Simulation of blast-loaded thin steel plates with slits by EUROPLEXUS.
Date: 2023-09-11
Institutions: Joint Research Centre
Subjects: critical infrastructure security, disaster resilience, environmental risk prevention, industrial hazard, information technology applications, public space, research report, resistance of materials, simulation, software, terrorism, testing

Simulation of blast-loaded 
thin steel plates with slits 
by EUROPLEXUS 

Casadei, F., Valsamos G., Larcher M., 
Aune V. 

2023 

ISSN 1831-9424 

EUR 31650 EN 

 
 
 
 
 
 
 
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JRC134674 

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How to cite this report: Casadei, F., Valsamos G., Larcher M., Aune, V., Simulation of blast-loaded thin steel plates with slits 
by EUROPLEXUS, Publications Office of the European Union, Luxembourg, 2023, doi:10.2760/016742, JRC134674. 

 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
Friday 8th September, 2023 @ 14:00

Simulation of blast-loaded thin steel plates with slits
by EUROPLEXUS

F. Casadei1,3, G. Valsamos2, M. Larcher3, and V. Aune4

1Active Senior
2European Commission, Joint Research Centre
Directorate for Space, Security and Migration
Technology Innovation in Security Unit
2European Commission, Joint Research Centre
Directorate for Space, Security and Migration
Safety and Security of Buildings Unit
4Structural Impact Laboratory (SIMLab), Centre for Research-based Innovation (CRI)
and Department of Structural Engineering, Norwegian University of Science and Technology,
Rich. Birkelands vei 1A, NO-7491 Trondheim, Norway

Last modiﬁed on Friday 8th September, 2023 @ 14:00

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Contents

Abstract

Foreword

1 Introduction

2 Lagrangian (uncoupled) preliminary simulations

2.1 Characteristics of the S2 plate mesh . . . . . . . . . . . . . . . . . . . . . . . . . . . .
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
2.2 Pressure time functions

3 Map ﬁle generation simulations

3.1 Case D7705600map . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.2 Case D7710600mapa . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.3 Case D7710600mapb . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.4 Producing a map ﬁle from a results ﬁle? . . . . . . . . . . . . . . . . . . . . . . . . . .
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.5 Producing multiple map ﬁles
3.5.1 Test MAMU01 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.6 Triggering the map ﬁle production . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.6.1 Case MATR01 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.6.2 Case MATR02 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.6.3 Case MATR03 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.6.4 Case MATR04 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.7 Case D7710600mapc . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.8 Case D7710600mapd . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.9 Case D7710600mape . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.10 A new form of displacement-driven erosion . . . . . . . . . . . . . . . . . . . . . . . . .
3.10.1 Case DERO00 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.10.2 Case DERO01 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.10.3 Case DERO02 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.10.4 Case DERO03 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.11 Case D7710600mapg . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.12 Case D7710600mapf
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.13 Case D7710600maph . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.14 Case D7710600mapi
3.15 Checking CENE with a mixed 3D-1D CCFV mesh . . . . . . . . . . . . . . . . . . . . .
3.15.1 Case 1D3D14 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.15.2 Case 1D3D24 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.15.3 Case 1D3D34 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.16 Case D7710600mapj
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.17 Checking alternative reconstruction/limiter on a mixed 3D-1D CCFV mesh . . . . . .
3.17.1 Case 1D3D44 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.17.2 Case 1D3D54 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.17.3 Case 1D3D64 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.18 Case D7710600mapk . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.19 Case D7710600mapl
3.20 Case D7710600mapm . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.21 Case D7710600mapn . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
3.22 Case D7710600mapo . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

4 Eulerian simulations

4.1 Case ST EUL 10 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

ii

1

2

3

4
12
14

15
16
19
21
25
25
25
26
26
27
27
27
28
31
32
36
36
36
37
37
38
39
44
45
46
46
46
46
48
53
53
53
54
55
56
58
60
65

68
68

Friday 8th September, 2023 @ 14:00

5 Lagrangian simulations

5.1 Case D6 S2 10 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
5.2 Case D14 S2 10 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .

71
71
71

6 FSI (coupled) preliminary simulations

75
76
6.1 Case D6 S2 35 FG . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
81
6.2 Case D6 S2 35 FP . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
85
6.3 Case D6 S2 35 FG2 . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
89
6.4 Case D6 S2 35 FG C . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
6.5 Case D6 S2 35 FP C . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
93
6.6 Case D6 S2 35 FG2 C . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
97
6.7 Additional stability safety coeﬃcient (CSVF) for the CCFV . . . . . . . . . . . . . . . 101
6.8 Case D6 S2 35 FG CSVF . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 102
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 106
6.9 Comparison of FSI simulations

7 FSI simulations

111
7.1 Case D6 S2 10 FP . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 112
7.2 Case D6 S2 15 FP . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 117
7.3 Case D6 S2 25 FP . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 122
7.4 Case D6 S2 35 FPN . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 127
7.5 Case D14 S2 10 FP . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 132
7.6 Case D14 S2 15 FP . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 137
7.7 Case D14 S2 25 FP . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 142
7.8 Case D14 S2 35 FPN . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 147

References

List of tables

List of ﬁgures

List of abbreviations and deﬁnitions

Appendix I — Input ﬁles

List of input ﬁles

153

155

156

159

161

260

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iv

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Abstract

This report presents some EUROPLEXUS [1] simulations of thin steel plates with slits that have
been tested in the SIMLab Shock Tube Facility (SSTF) at the Norwegian University of Science and
Technology (NTNU) in Trondheim, Norway. The SSTF is able to generate a clean and repeatable
blast-like pressure loading without resorting to the use of explosives.

The simulations presented here concern blast-like loading (in the SSTF shock tube) of thin steel
plates with pre-formed X-shaped slits. The presence of these initial defects triggers the formation and
propagation of cracks, eventually leading to complete failure of the plate (for suﬃciently high ﬁring
pressures).

Keywords: Shock tube, Blast loading, Thin plates, Ductile failure, Crack propagation.

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Friday 8th September, 2023 @ 14:00

Foreword

This report is part of a large series of scientiﬁc-technical documents that are meant to provide es-
sential information and documentation to users and developers of the EUROPLEXUS code. EURO-
PLEXUS (also abbreviated as EPX) is a computer code jointly developed by the French Commissariat
`a l’Energie Atomique (CEA DMT Saclay) and by EC-Joint Research Centre (JRC Ispra) within the
framework of contractual agreements between the two research bodies.

EPX is a mature, general-purpose Finite Element and Finite Volume explicit code under active
development since 1999, for the simulation of fast transient dynamic events in complex ﬂuid-structure
systems. It is an evolution of its ancestor PLEXIS-3C, which was also jointly developed by CEA and
JRC in the 1980s and early ’90s.

The code has been traditionally used in safety studies, ranging from nuclear reactors, to energy
plants, to chemical and industrial plants, oﬀ-shore structures, car and road barrier crashes, among
others. More recently it has proven a very useful tool in providing certiﬁed and independent numerical
solutions in support of EC policies regarding the security of critical infrastructures and public spaces
(like buildings, train and metro stations and carriages, etc.), which may be vulnerable to terrorist
attacks or to natural disasters.

While being mainly of technical nature, the information contained in this series of reports is
an invaluable source of reference for the users (as a complement to the User’s manual) but also
in particular for the developers of EPX. New models made available in the code are described in
detail from the theoretical viewpoint. Several veriﬁcation and application examples are also usually
provided, in order to illustrate the practical use and to verify the correct functioning of the models.
Usually, at the end of each report an Appendix lists the input ﬁles that were used to produce the
examples presented in the report. This allows users to re-run the test cases with EPX at any time
and to use them as a basis for their own numerical simulations.

A complete list of the reports (produced both at JRC and at CEA) in this series can be found in

the Bibliography section of the EPX User’s manual [1].

2

Friday 8th September, 2023 @ 14:00

1

Introduction

This report presents some EUROPLEXUS simulations of thin steel plates with slits that have been
tested in the SIMLab Shock Tube Facility (SSTF) at the Norwegian University of Science and Tech-
nology (NTNU) in Trondheim, Norway. The SSTF is able to generate a clean and repeatable blast-like
pressure loading without resorting to the use of explosives.

EUROPLEXUS [1] (also abbreviated as EPX) is a computer code jointly developed by the French
Commissariat `a l’Energie Atomique (CEA DMT Saclay) and by EC-JRC. The code application domain
is the numerical simulation of fast transient phenomena such as explosions, crashes and impacts in
complex three-dimensional ﬂuid-structure systems. The Cast3m [2] software from CEA is used as a
pre-processor to EPX when it is necessary to generate complex meshes.

The experimental test matrix and results used as a reference for the numerical simulations of this

report were published in reference [3].

Over a decade of fruitful collaboration between JRC and NTNU has led to a number of publi-
cations documenting the numerical simulations of NTNU experiments carried out by EPX, see e.g.
references [4–19]. On one hand, this activity and the availability of accurate and precise experimental
records has allowed the calibration of a number of models present in EPX, ranging from ﬂuid-structure
interaction (FSI), to structural failure models, to material models. On the other hand, the simula-
tions help the experimental team to design and carry out their experiments, and to interpret the
experimental results.

The simulations presented here concern blast-like loading (in the SSTF shock tube) of thin steel
plates with pre-formed X-shaped slits. The presence of these initial defects triggers the formation
and propagation of cracks, eventually leading to complete failure of the plate (for suﬃciently high
ﬁring pressures). Some of the main results obtained here, for one of the plates considered (Docol 600
material and 25 bar nonimal ﬁring pressure) have also been communicated at a recent Conference [16].
This report documents exhaustively the simulation procedure and the entire test matrix for this type
of plate and will serve as the base for a future journal paper on the subject.

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Friday 8th September, 2023 @ 14:00

2 Lagrangian (uncoupled) preliminary simulations

We start by re-running some of the simulations from the large test matrix that had been performed
around April 2021 as preparatory material for the DYMAT 2021 Conference in Madrid [14]. The test
matrix and the results were summarized in the (draft) report [19]. The scope of re-running these tests
was primarily to check that the results obtained have not changed following two years of development
of the code, and to update the EPX input ﬁles if needed, i.e.
if the syntax of some commands has
changed in the meantime.

The chosen tests are those using a plate with four X-shaped slits, which are labeled S2 in the
experimental campaign. The simulations performed (on the EVICOM desktop PC) are summarized
in Table 1.

Test

Material

p∗ Contact

D6 S2 15 Docol-600DL
D6 S2 25 Docol-600DL
D6 S2 35 Docol-600DL
D14 S2 15 Docol-1400M
D14 S2 25 Docol-1400M
D14 S2 35 Docol-1400M

[bar]
15
25
35
15
25
35

PINB
PINB
PINB
PINB
PINB
PINB

tﬁn
[ms]
5.0
5.0
5.0
5.0
5.0
5.0

Steps

130 760
131 335
151 677
110 787
128 781
133 246

CPU Eroded RAM Storage
[GB]
10.5
10.6
10.9
10.4
10.5
10.5

[GB]
1.4
1.4
1.4
1.4
1.4
1.4

[s]
52 558
52 558
156 698
41 447
67 450
63 404

60
320
617
609
1 124
1 102

Table 1: Preliminary Lagrangian simulations (repetition of 2021 tests).

The second column shows the material of the plate (either Docol-600DL or Docol-1400M steel),
the third one the nominal initial over-pressure in the driver. All pressures are expressed in bar. The
fourth column lists the EPX model used to represent the contact between the plate and the clamping
system. In [19] two sets of simulations were performed, one using the pinball contact model (PINB)
and the other using the sliding surface model (GLIS). As seen from the Table, only the PINB-based
simulations were repeated in the present Section.

The eighth column shows the number of eroded elements at the end of the simulation, which gives
an idea of the damage obtained. However, note that the number includes also the CLxx elements
(if any) attached to the eroded structural elements. The last two columns give the peak RAM and
the storage (amount of results) produced on the hard disk, in GB. The simulations are contained
in separate folders (one per test) of the directory EVICOM-D:\Users\Folco_Dati\Data\Pdf\2023\
COUPLED2023\Full_Paper\PINB.

From reference [3], we see that experimental results for the S2 specimens are available for the
following three nominal ﬁring over-pressures: 10 bar, 15 bar and 25 bar, and this for both materials.
In the 2021 report [19], simulations with the S2 plate had been done at nominal ﬁring over-pressures
of 15 bar, 25 bar and 35 bar, for both materials (which are the simulations repeated here). No
simulations at 10 bar was performed in 2021, therefore these will have to be produced anew, by
building the corresponding map ﬁle and Eulerian pressure ﬁle ﬁrst.

No corrections in the EPX input ﬁles of the simulations in Table 1 were necessary in order to
re-run them. The results obtained were virtually identical to those obtained in 2021 and reported
in [19]. Figure 1 shows the ﬁnal plate fracturing (mapped on the initial geometry) for all the above
simulations.

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Friday 8th September, 2023 @ 14:00

(a) Docol-600DL @ 15 bar

(b) Docol-600DL @ 25 bar

(c) Docol-600DL @ 35 bar

(d) Docol-1400M @ 15 bar

(e) Docol-1400M @ 25 bar

(f) Docol-1400M @ 35 bar

Figure 1: Final damage in the S2 plate (mapped on the initial geometry).

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The following Figures 2 to 7 show, for each case separately, the (symmetrized) plate mesh without
element outlines at various times (by using diﬀerent time values, as appropriate for each case), seen
from three diﬀerent eye positions (right, front, left), in order to highlight the opening of the slits. The
right and left views show the deformed plate, while the central view shows the undeformed plate, in
order to follow the formation and progression of the cracks.

(a) t = 3.0 ms

(b) Undeformed, t = 3.0 ms

(c) t = 3.0 ms

(d) t = 4.0 ms

(e) Undeformed, t = 4.0 ms

(f) t = 4.0 ms

(g) t = 5.0 ms

(h) Undeformed, t = 5.0 ms

(i) t = 5.0 ms

Figure 2: Geometry of the S2 plate at various times in case D6 S2 15.

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Friday 8th September, 2023 @ 14:00

(a) t = 2.0 ms

(b) Undeformed, t = 2.0 ms

(c) t = 2.0 ms

(d) t = 3.0 ms

(e) Undeformed, t = 3.0 ms

(f) t = 3.0 ms

(g) t = 4.0 ms

(h) Undeformed, t = 4.0 ms

(i) t = 4.0 ms

Figure 3: Geometry of the S2 plate at various times in case D6 S2 25.

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Friday 8th September, 2023 @ 14:00

(a) t = 1.6 ms

(b) Undeformed, t = 1.6 ms

(c) t = 1.6 ms

(d) t = 2.0 ms

(e) Undeformed, t = 2.0 ms

(f) t = 2.0 ms

(g) t = 3.0 ms

(h) Undeformed, t = 3.0 ms

(i) t = 3.0 ms

Figure 4: Geometry of the S2 plate at various times in case D6 S2 35.

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Friday 8th September, 2023 @ 14:00

(a) t = 3.0 ms

(b) Undeformed, t = 3.0 ms

(c) t = 3.0 ms

(d) t = 4.0 ms

(e) Undeformed, t = 4.0 ms

(f) t = 4.0 ms

(g) t = 5.0 ms

(h) Undeformed, t = 5.0 ms

(i) t = 5.0 ms

Figure 5: Geometry of the S2 plate at various times in case D14 S2 15.

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Friday 8th September, 2023 @ 14:00

(a) t = 2.0 ms

(b) Undeformed, t = 2.0 ms

(c) t = 2.0 ms

(d) t = 3.0 ms

(e) Undeformed, t = 3.0 ms

(f) t = 3.0 ms

(g) t = 4.0 ms

(h) Undeformed, t = 4.0 ms

(i) t = 4.0 ms

Figure 6: Geometry of the S2 plate at various times in case D14 S2 25.

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Friday 8th September, 2023 @ 14:00

(a) t = 1.6 ms

(b) Undeformed, t = 1.6 ms

(c) t = 1.6 ms

(d) t = 2.0 ms

(e) Undeformed, t = 2.0 ms

(f) t = 2.0 ms

(g) t = 3.0 ms

(h) Undeformed, t = 3.0 ms

(i) t = 3.0 ms

Figure 7: Geometry of the S2 plate at various times in case D14 S2 35.

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2.1 Characteristics of the S2 plate mesh

The (base) mesh of the S2 plate is shown in Figure 8. Only 1/4 of the plate is represented in the
computational model, thanks to symmetry. The zone of the plate exposed to the blast pressure is
shown in blue in Figure 8(a). The magenta zone is the ﬁrst couple of element layers clamped between
the frames, while the rest is shown in green.

(a) Base mesh

(b) Element outlines

(c) Detail of slit zone

(d) Free edges

Figure 8: Base mesh of the S2 plate.

The slit zone is detailed in Figure 8(c). The abrupt change in element size between the slit zone
and the surrounding zone is probably not optimal, especially in view of capturing the onset and
propagation of cracks, but the model relies on automatic adaptive mesh reﬁnement (AMR) to obtain
a more regular mesh during the course of the suimulation.

The presence of triangular elements at the four corners of the slit zone, and their orientation,
also might be not optimal as concerns the formation and orientation of the ﬁrst appearing cracks.

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Friday 8th September, 2023 @ 14:00

However, again, it is hoped that the correct crack orientation will be captured as they propagate,
thanks to AMR.

In the initial (base, i.e. not yet AMR reﬁned) conﬁguration, the most critical element in the entire
mesh is element 599, with a stability step ∆tstab = Cs∆tcrit = 2.20443 × 10−7 s (with Cs the safety
coeﬃcient, Cs = 0.7 in this case, and ∆tcrit ≈ L/c the critical step, where L is the element’s length
and c the speed of sound in the element’s material). This element is a CUB8 belonging to the lower
plate / bolts assembly and will not be reﬁned during the simulation, therefore it will lose its role of
most critical element, in favor of some element in the plate, as soon as AMR starts operating.

The “smallest” base element in the plate is element 10522, with a minimum intra-nodal length of
2.39069 mm. A bit surprisingly, this is a Q4GS located near the bolts and has ∆tstab = 3.05428 ×
10−7 s. The element (and three others all with the same stability step) may be seen depicted in
medium red in Figure 9(a), which shows the stability step (DTEL) distribution over the plate in the
initial conﬁguration. The color scale is inverted, i.e. the elements with the smallest DTEL are shown
in red and those with the largest DTEL are shown in blue. Note that these elements are unlikely to
get reﬁned by the AMR process.

(a) DTEL in the whole plate

(b) DTEL in the slit region

Figure 9: Stability step (DTEL) in the plate.

The most critical element(s) in the plate are the triangular elements located along the border
of the slit region. These are very small and not clearly visible in Figure 9(a). They appear in full
red in Figure 9(b), which uses a diﬀerent color scale from Figure 9(a), showing a detail of the slit
region, and have ∆tstab = 2.71015 × 10−7 s. The hypotenuse of these (rectangle, isosceles) triangles
measures 4.24264 mm while the cathetus (which is also the side of the square elements in the slit
region) measures 3.00000 mm. All the square elements in the slit region, in blue in Figure 9(b), have
∆tstab = 3.83272 × 10−7 s.

In these simulations a maximum reﬁnement level Lmax = 4 is used in the (entire) plate. Therefore,
the size of a fully reﬁned element becomes 1/8 of the corresponding base element and the stability
step gets reduced accordingly. Therefore, once the plate is (locally) fully reﬁned in and around the
slit, we may expect a stability step of the order of ∆tstab ≈ 2.71015 × 10−7/8 = 3.38769 × 10−8 s, and
this will also probably be the global stability step for (most part of) the simulation.

It is worthwhile to notice that the thickness of the plate is h = 0.8 mm. When fully reﬁned, the
side of the smallest plate elements in the crack region will become about L = 3.00000/8 = 0.375 mm.
Since this is below the thickness (L/h = 0.47), one might raise some doubts about the shell theory
being still valid for the (reﬁned) shell elements. In fact, common engineering practice would suggest

13

Friday 8th September, 2023 @ 14:00

having shell elements with a side to thickness ratio L/h larger than 2.

2.2 Pressure time functions

It should be noted that the above simulations were performed by using the so-called “Eulerian”
pressures (which in turn used the map ﬁles) produced in 2021 for the simulation of non-perforated
plates and which were stored in the “NTNU database” at JRC, described in reference [15]. The
pressure time functions are shown in Figure 10.

Figure 10: Pressure time functions used in the Lagrangian simulations.

The strategy behind the present simulations, including an explanation of map ﬁles, Eulerian,

Lagrangian (decoupled) and FSI (coupled) calculations, is presented in references [10, 13].

14

EUROPLEXUS 9 MAY       2023 DRAWING  1PLOTPRES-1- P77_15E                                           -2- P77_25E                                                                      -3- P77_35ETIME [S]-5.0E-03     0.0 5.0E-03 1.0E-02 1.5E-02PRES [PA]-5.0E+05     0.0 5.0E+05 1.0E+06 1.5E+061112223333Friday 8th September, 2023 @ 14:00

3 Map ﬁle generation simulations

As noted in the previous Section, no simulations at 10 bar nominal ﬁring over-pressure had been
performed in 2021. Therefore, the corresponding map ﬁle and Eulerian pressure ﬁle have to be
generated anew. The simulations performed for this purpose are summarized in Table 2 (not in
alphabetical order but in the order in which they were actually executed, so note that that case 10g
comes before 10f) and are described in detail below. The number of eroded elements reported is at
the time tfant, i.e. it includes only the elements eroded by material failure and by neighboring (if any).

Case

Description

D7705600map
D7710600mapa
D7710600mapb
D7710600mapc
D7710600mapd
D7710600mape
D7710600mapg
D7710600mapf
D7710600mapf
D7710600maph
D7710600mapi
D7710600mapj
D7710600mapk
D7710600mapl

Repetition of 2021
See Section 3.2
Reduce ramping period
Multiple map ﬁles
Use map trigger
Do not remove membranes
Idem b, DERO, tﬁn = 4 ms
Idem e, DERO, ﬁrst run
Idem e, DERO, second run
Idem f, CENE, not NTIL
Idem h, Cs = 0.25
Idem f, CENE, KMAS 0.75
Idem e, FSCP 0
Idem e, low-res FSI
D7710600mapm Idem l, correct FELCSN W
Idem m, correct ping-pong
D7710600mapn
D7710600mapo
Idem n, MAXL 3
∗Map trigger

p∗
[bar]
5
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10
10

tﬁre
[ms]
7.0
7.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0

tﬁn
[ms]
44.0
40.0
40.0
40.0
32.2∗
32.2∗
4.0
[26.8]
[19.2]
[3.1]
[3.1]
32.2∗
[5.7]
[8.2]
[14.0]
32.1∗
[8.0]

Steps

103 728
92 742
94 902
94 902
77 884
125 138
12 349
[106 979]
[118 824]
[2 781]
[7 754]
168 348
[20 002]
[19 056]
[31 510]
71 201
[29 965]

CPU
[s]
95 960
68 127
133 774
125 650
118 562
704 043
22 039
[559 389]
[615 928]
[1 533]
[4 164]
994 947
[63 332]
[79 266]
[162 887]
547 779
1 235 830

Ero. RAM Sto.
[GB]
[GB]
12.6
4.0
11.4
4.0
11.7
4.1
12.2
4.1
9.7
4.1
9.8
4.3
1.4
4.1
[7.9]
[4.1]
[5.7]
[4.1]
—
—
—
—
10.0
4.3
[1.7]
[4.1]
[4.6]
[6.7]
[7.4]
[6.7]
16.7
6.7
24.2
[37.8]

468
236
502
502
502
546
414
[546]
[638]
—
—
654
[896]
[208]
[104]
252
[726]

Table 2: Simulations of membrane bursts to generate map ﬁles.

The following Table lists the main parameters used in the generation of map ﬁles. All simulations

were performed in 2021, except the 10 bar cases.

p∗ Nm

[bar]
5
10a
10b
10c
10d
10e
10g
10f
10h
10i
10j
10k
10l
10m
10n
10o
15
25
35
60

2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
2
3
3
3
3

hmem
[mm]
0.22–0.29
0.50
0.50
0.50
0.50
0.50
0.50
0.50
0.50
0.50
0.50
0.50
0.50
0.50
0.50
0.50
0.50
1.00
1.50
2.75

p4
[bar]
6.376
11.360
11.360
11.360
11.360
11.360
11.360
11.360
11.360
11.360
11.360
11.360
11.360
11.360
11.360
11.360
17.160
28.110
39.140
63.070

p3
[bar]
1.0050
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
1.0080
1.0080
1.0070
1.0060

p2
[bar]
1.0050
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
5.6770
9.8340
13.7100
22.0300

p1
[bar]
1.0050
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
0.9968
1.0080
1.0080
1.0070
1.0060

pimp
[bar]
2.25
4.20
4.20
4.20
4.20
4.20
4.20
4.20
4.20
4.20
4.20
4.20
4.20
4.20
4.20
4.20
3.85
7.87
12.98
20.50

tﬁre
[ms]
7.0
7.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0

tfant
[ms]
10.0
8.0
8.0
8.0
8.0
—
—
—
—
—
—
—
—
—
—
—
8.0
18.0
8.0
18.0

tmap
[ms]
38.0
31.0
33.0
31.0-33.0
trigger
trigger
—
trigger
trigger
trigger
trigger
trigger
trigger
trigger
trigger
trigger
29.0
28.0
27.0
26.0

tﬁn
[ms]
44.0
40.0
40.0
40.0
[40.0]
[40.0]
4.0
[40.0]
[40.0]
[40.0]
[40.0]
[40.0]
[40.0]
[40.0]
[40.0]
[40.0]
40.0
40.0
40.0
40.0

tquas
[ms]
5.0
7.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
3.0
5.0
5.0
5.0
5.0

Table 3: Parameters used in the simulations to generate map ﬁles.

It should be noted that the nominally thicker membranes in Table 3 were actually obtained by

15

Friday 8th September, 2023 @ 14:00

stacking together several membranes of the two basic thicknesses that were available experimentally,
namely 0.25 and 0.5 mm. The setup of membranes in the various experiments is detailed in Figure 11.

Figure 11: Setup of membranes in the various experiments.

3.1 Case D7705600map

This is a repetition of the homonym test that had been run in 2021, in order to check that the results
of the code have not changed after two years of development. Figure 12 compares the 2021 map ﬁle
(red curves) with the current one (black curves).

As it can be seen, the solutions diﬀer somewhat in the initial part of the shock tube (ﬁring section),
where the membranes are located. However, the ﬁnal and most signiﬁcant parts of the curves (near
the specimen) are nearly identical, so the diﬀerences should not have an impact on the results as the
specimen is concerned.

Figure 13 shows the inﬂation and progressive failure of the ﬁring membranes.
Figure 14 shows the ﬂuid mesh FSI-driven reﬁnement and the ﬂuid pressure.
Figure 15 shows the failure patterns of the ﬁring membranes.

16

Friday 8th September, 2023 @ 14:00

(a) Pressure

(b) Density

Figure 12: Comparison of map ﬁle curves between 2021 solution and current one.

(c) Velocity

(a) t = 0

(b) t = 3 ms

(c) t = 7 ms

(d) t = 8 ms

(e) t = 9 ms

(f) t = 10 ms

Figure 13: Inﬂation and progressive failure of the ﬁring membranes in test D7705600map.

17

EUROPLEXUS13 APRIL     2023 DRAWING  1D77-05-DOCOL600-1D3D01-1- P_38                                              -2- P_38_2021              ABSCISSA 0. 5.10.15.20.PRESS. [PA] 50000.1.0E+051.5E+052.0E+052.5E+051111122222EUROPLEXUS13 APRIL     2023 DRAWING  2D77-05-DOCOL600-1D3D01-1- R_38                                              -2- R_38_2021              ABSCISSA 0. 5.10.15.20.DENS. [KG/M3]0.51.01.52.02.51111122222EUROPLEXUS13 APRIL     2023 DRAWING  3D77-05-DOCOL600-1D3D01-1- V_38                                              -2- V_38_2021              ABSCISSA 0. 5.10.15.20.VELO. [M/S]-100. -50.   0.  50. 100. 150. 200.1111111222222Friday 8th September, 2023 @ 14:00

(a) t = 7 ms

(b) t = 8 ms

(c) t = 9 ms

(d) t = 10 ms

(e) t = 7 ms

(f) t = 8 ms

(g) t = 9 ms

(h) t = 10 ms

Figure 14: Fluid mesh FSI-driven reﬁnement and the ﬂuid pressure in test D7705600map.

(a) First membrane

(b) Second membrane

Figure 15: Failure patterns of the ﬁring membranes in test D7705600map.

18

Friday 8th September, 2023 @ 14:00

3.2 Case D7710600mapa

This is a ﬁrst attempt at obtaining a map ﬁle for the nominal 10 bar ﬁring pressure. The mesh ﬁle is
identical to that of the 5 bar case presented above. The EPX input ﬁle diﬀers in the following points:
(cid:136) The membrane thickness is constant and equal to 0.5 mm instead of passing from 0.22 to 0.25

and to 0.29 mm.

(cid:136) The constitutive law for the membranes material (Melinex) is diﬀerent. Two such laws were
characterized at NTNU, one for membrane thicknesses less than 0.5 mm (only case 5 bar) and
the other for membrane thicknesses equal to or greater than 0.5 mm (all other cases).

(cid:136) This test used two membranes, like the 5 bar case, while all other tests used three membranes.
The pressures in the ﬁring chambers p1, p2, p3, p4, as well as the initially imposed pressure pimp
acting on the membranes, were modiﬁed with respect to the 5 bar case, according to the values
listed in Table 3.

(cid:136) The time of production of the map ﬁle tmap was tentatively reduced from 38.0 to 31.0 ms. It is
diﬃcult to estimate this time exactly in a ﬁrst calculation like this one. This value will likely
have to be adjusted upon repeating the simulation.

(cid:136) The time of removal of the membranes tfant was reduced from 10.0 to 8.0 ms, i.e. to the value
used in all higher-pressure tests except 25 and 60 bar nominal pressure cases which used 18 ms
in the 2021 simulations. The use of such diﬀerent and apparently random times seems hard to
justify, other than by empirical arguments, and will have to be investigated.

(cid:136) The time at which the quasi-static damping is removed tquas was increased from 5.0 to 7.0 ms,
in order to make it equal to the ﬁring time. Again, it seems hard to justify why the damping
should act over a diﬀerent period of time than the initial pressure ramping time. Note from
Table 3 that the map ﬁles from 2021 for 15 bar and higher used a tmap of 5.0 ms, larger than
tﬁre, which also seems a bit strange. All these value will have to be justiﬁed and possibly made
more uniform.

Figure 16 shows the inﬂation and progressive failure of the ﬁring membranes.

(a) t = 0

(b) t = 3 ms

(c) t = 7 ms

(d) t = 8 ms

(e) t = 9 ms

(f) t = 10 ms

Figure 16: Inﬂation and progressive failure of the ﬁring membranes in test D7710600mapa.

Figure 17 shows the ﬂuid mesh FSI-driven reﬁnement and the ﬂuid pressure.
Figure 18 shows the failure patterns of the ﬁring membranes at t = 8 ms (tfant). As it can be seen,
the removal of the membranes is done too early, since the second membrane has not failed completely

19

Friday 8th September, 2023 @ 14:00

(a) t = 7 ms

(b) t = 8 ms

(c) t = 9 ms

(d) t = 10 ms

(e) t = 7 ms

(f) t = 8 ms

(g) t = 9 ms

(h) t = 10 ms

Figure 17: Fluid mesh FSI-driven reﬁnement and the ﬂuid pressure in test D7710600mapa.

yet.

(a) First membrane

(b) Second membrane

Figure 18: Failure patterns of the ﬁring membranes in test D7710600mapa.

20

Friday 8th September, 2023 @ 14:00

3.3 Case D7710600mapb

The test presented in the previous Section is repeated with the following modiﬁcations:

(cid:136) Four pressure sensors e4, e3, e2 and e1 are added to track the ﬂuid pressure in the driver and
in the three chambers and thus be able to follow the loading and ﬁring process. Tentatively, the
ﬁrst three sensors are placed on the internal wall of the pipe, close to (directly upstream) the
membranes, while the last one (e1) is located directly downstream the third (last) membrane,
in the driven section.

(cid:136) The ramping period of the initial membrane pressurization (ﬁring time tﬁre) is reduced from
7.0 to 3.0 ms, i.e. it is made equal to that of the higher-pressure tests. Note that this time is
usually, in all tests performed so far, the same as the time of ﬂuid material re-initialization in
the pressure chambers timat (INIT IMAT directive) and the same as the time until which CCFV
calculations are skipped tskip (INIT SKIP directive).

(cid:136) The time in the (INIT SKIP and INIT IMAT directives is reduced from 5.0 to 3.0 ms to make it

equal to the ﬁring time tﬁre.

(cid:136) The map time tmap, i.e. the time at which the map ﬁle is produced, is increased from 31 ms to

33 ms.

(cid:136) The time of removal of the quasi-static damping tquas is reduced from 7.0 to 3.0 ms to make it

equal to the ﬁring time tﬁre.

The CPU cost of this simulation becomes roughly double that of the previous one, mainly due to

the shortening of tskip mentioned above.

Figure 19 shows the inﬂation and progressive failure of the ﬁring membranes.

(a) t = 0

(b) t = 3 ms

(c) t = 4 ms

(d) t = 6 ms

(e) t = 7 ms

(f) t = 8 ms

Figure 19: Inﬂation and progressive failure of the ﬁring membranes in test D7710600mapb.

Figure 20 shows the ﬂuid mesh FSI-driven reﬁnement and the ﬂuid pressure.
Figure 21 shows the failure patterns of the ﬁring membranes at t = 8 ms (tfant). As it can be seen,
the removal of the membranes seems to have been done at about the right time, since they both look
completely failed at t = 8 ms.

Figure 22 compares the map ﬁle curves from tests D7710600mapa (red curves) and D7710600mapb
(black curves). It immediately appears that the map time tmap for the (b) solution, 33 ms, is too
large, since the blast has already hit the right end of the model. Therefore, this simulation will have
to be repeated, by taking as map time an intermediate value between cases (a), 31 ms, and (b), 33

21

Friday 8th September, 2023 @ 14:00

(a) t = 3 ms

(b) t = 4 ms

(c) t = 6 ms

(d) t = 8 ms

(e) t = 3 ms

(f) t = 4 ms

(g) t = 6 ms

(h) t = 8 ms

Figure 20: Fluid mesh FSI-driven reﬁnement and the ﬂuid pressure in test D7710600mapb.

(a) First membrane

(b) Second membrane

Figure 21: Failure patterns of the ﬁring membranes in test D7710600mapb.

ms, by taking for example tmap = 32 ms.

Finally, Figure 23 compares the space curves at the same time t = 31 ms from tests D7710600mapa
(red curves) and D7710600mapb (black curves). This allows to directly appreciate the eﬀect of the
diﬀerent modeling of the membranes in the two solutions.

22

Friday 8th September, 2023 @ 14:00

(a) Pressure

(b) Density

Figure 22: Comparison of map ﬁle curves between solutions D7710600mapa and D7710600mapb.

(c) Velocity

23

EUROPLEXUS15 APRIL     2023 DRAWING  1D77-10-DOCOL600-1D3D01-1- P_33                                              -2- P_A_31                 ABSCISSA 0. 5.10.15.20.PRESS. [PA]    0.1.E+052.E+053.E+054.E+055.E+056.E+0511112222EUROPLEXUS15 APRIL     2023 DRAWING  2D77-10-DOCOL600-1D3D01-1- R_33                                              -2- R_A_31                 ABSCISSA 0. 5.10.15.20.DENS. [KG/M3]1.01.52.02.53.03.54.011111122222EUROPLEXUS15 APRIL     2023 DRAWING  3D77-10-DOCOL600-1D3D01-1- V_33                                              -2- V_A_31                 ABSCISSA 0. 5.10.15.20.VELO. [M/S]-100. -50.   0.  50. 100. 150. 200. 250. 300.11111122222Friday 8th September, 2023 @ 14:00

(a) Pressure

(b) Density

Figure 23: Comparison of curves at t = 31 ms between solutions D7710600mapa and D7710600mapb.

(c) Velocity

24

EUROPLEXUS15 APRIL     2023 DRAWING  4D77-10-DOCOL600-1D3D01-1- P_31                                              -2- P_A_31                 ABSCISSA 0. 5.10.15.20.PRESS. [PA]    0.0 50000.1.0E+051.5E+052.0E+052.5E+053.0E+051111122222EUROPLEXUS15 APRIL     2023 DRAWING  5D77-10-DOCOL600-1D3D01-1- R_31                                              -2- R_A_31                 ABSCISSA 0. 5.10.15.20.DENS. [KG/M3]1.01.52.02.5111111111222222222EUROPLEXUS15 APRIL     2023 DRAWING  6D77-10-DOCOL600-1D3D01-1- V_31                                              -2- V_A_31                 ABSCISSA 0. 5.10.15.20.VELO. [M/S]-100. -50.   0.  50. 100. 150. 200. 250. 300.11111122222Friday 8th September, 2023 @ 14:00

3.4 Producing a map ﬁle from a results ﬁle?

We explore the possibility of generating a map ﬁle from a results ﬁle, instead of having to re-run the
simulation. The ALIC ﬁle is chosen because it is the one containing the largest subset of code data.
We tentatively use the following EPX input ﬁle, trying to generate a map ﬁle from the results of
test D7710600mapb at 33 ms (if this works then one could use the same technique to generate a map
ﬁle at 31 or 32 ms since ALIC data are available at those times):

D7710600MAPBM
ECHO
!CONV WIN
RESU SPLI ALIC ’D7710600mapb.ali’ GARD PSCR
SORT ARRE NSTO 34 ! TEMP 33.0E-3
ECRI FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

FIN

TIME PROG 32.99E-3 TERM ! 33.0E-3 TERM

We use the ARRE keyword of the SORT directive to position ourselves at the selected ALIC storage
(NSTO 34 i.e. the 34-th storage, corresponding here to t = 33 ms). Using the time (TEMP) instead of
NSTO could be more problematic due to the imprecision of ﬂoating point values. Then we use the ECRI
... MAPP directive to generate a map ﬁle at the desired time. Note that we use TIME PROG 32.99E-3,
i.e. a slightly lower value than the nominal one, in order to be sure that the map ﬁle will be triggered
at the chosen ARRE time, again to avoid problems with ﬂoating point imprecisions.

The map ﬁle writing routine M MAPPING::WRITE MAPPING is invoked. However, it fails writ-
ing the ﬁle because some arrays are not allocated: CONV VFCC, CONV VFCC 1D, SOLU VFCC,
SOLU VFCC 1D. In fact, these arrays are not stored in the ALIC ﬁle.

Adding such arrays in the ALIC ﬁle would probably increase too much the size of the ﬁle itself,
and is probably unjustiﬁed just to make it compatible with a possible (future, hypothetic) need of
producing a map ﬁle from the ALIC data. Therefore, this strategy is abandoned.

3.5 Producing multiple map ﬁles

We therefore resort to a less elegant and less powerful strategy, which consists in generating multiple
map ﬁles, at a series of selected times, when running the simulation. After inspecting the solution, the
user can select the best map ﬁle and perhaps discard the remaining ones. Of course, this technique
cannot be applied with an already existing simulation, but it requires re-running it (hopefully just
once).

A few simple modiﬁcations are introduced in subroutines ECRITU and M MAPPING::WRITE-
MAPPING in order to activate this possibility. When reading the MAPP command, the correspond-
ing ﬁle unit is not opened immediately in ECRITU, but only the (basic) ﬁle name is built. Then,
during the simulation, the map ﬁle writing routine can be called several times. Each time, a unique
ﬁle name is generated by appending an automatic suﬃx nn to the base ﬁle name, where nn is the
counter of map ﬁles produced in the current run (01, 02 etc.). The writing routine opens the ﬁle
anew, writes it and ﬁnally closes it at each mapping station.

The simulations performed are summarized in Table 4 and are described in detail below.

Test

Mesh Description

MAMU01

100 Q4VF Generate two map ﬁles

tﬁn
[ms]
80.0

Steps CPU
[s]
0.1

69

Table 4: Simulations to generate multiple map ﬁles.

3.5.1 Test MAMU01

As an example of this new possibility, consider test MAMU01. This test is similar to MAPP01 from
reference [11], but we ask for the production of two map ﬁles, one at 50 ms and the other at 60 ms:

MAMU01
. . .

ECRI . . .

25

Friday 8th September, 2023 @ 14:00

FICH FORM MAPP OBJE LECT tous TERM TIME PROG 50.E-3 60.E-3 TERM

. . .

FIN

Indeed, after running the test, the following map ﬁles are found in the current directory: mamu01 01.map

and mamu01 02.map.

3.6 Triggering the map ﬁle production

As an alternative to specifying multiple map ﬁles, a new possibility is developed which uses a trigger
in order to activate the map ﬁle production. The mechanism is similar to the strategy used to trigger
adaptive mesh reﬁnement, see directives OPTI ADAP TRIG, OPTI NOCR TRIG and LINK TBLO ... TRIG
described in [1], and the input syntax is also similar.

The idea is to activate the map ﬁle writing when a certain physical quantity, monitored at a certain
location (element or node) in the mesh, reaches a certain threshold. A typical example of monitored
quantity would be the ﬂuid pressure upstream the specimen in the shock tube.

A new TRIG sub-directory is allowed in the ECRI FICH MAPP directive, as an alternative to specifying

one or more map times explicitly via /CTIM/:

"ECRI" "FICH" ...

"MAPP" <"FORM"> <nmapp> "OBJE" /LECT/

$[ /CTIM/ ;

TRIG |[ CONT icon ; ECRO iecr ; EPST ieps ;

DEPL idep ; VITE ivit ; ACCE iacc ; VCVI ivcv ]|
<TSTO> TVAL tval /LECT/ ]$ ;

The TSTO optional keyword stops the simulation immediately after generating the (triggered) map
ﬁle. The other keywords have the same meaning as for the OPTI ADAP TRIG directive, see [1] for
details.

If a results ﬁle of type ALIC (full) is speciﬁed in the simulation, then an ALIC storage is auto-
matically generated at the MAPP trigger time, in addition to the other storages speciﬁed in the EPX
input ﬁle.

The simulations performed are summarized in Table 5 and are described in detail below.

Test

MATR01
MATR02
MATR03
MATR04

Mesh Description

tﬁn
[ms]
80.0
100 Q4VF Use trigger to generate map ﬁle
[54.9]
100 Q4VF Idem 01, add TSTO
100 Q4VF Idem 02, no ALIC ﬁle
[54.9]
100 Q4VF Idem 03 but ALIC after MAPP in .EPX [54.9]

Steps CPU
[s]
0.1
0.1
0.1
0.1

69
46
46
46

Table 5: Simulations to trigger map ﬁle generation.

3.6.1 Case MATR01
This test is similar to MAPP01 from reference [11], but we use the TRIG keyword to generate the map
ﬁle when the pressure exceeds a given value in a monitored Finite Volume near the right end of the
tube:

MATR01
. . .

COMP GROU 3 ’hp’ LECT

1 PAS 1

50 TERM
’lp’ LECT 51 PAS 1 100 TERM
’trigger’ LECT 81 TERM

. . .

ECRI VFCC TFRE 10.E-3

FICH ALIC TFRE 10.E-3
FICH FORM MAPP OBJE LECT tous TERM

TRIG ECRO 1 TVAL 1.1E5 LECT trigger TERM

. . .

FIN

The trigger is activated at step 46, t = 54.9 ms and a map ﬁle (MATR01 01.map) is written.. The

simulation continues until tﬁn = 80.0 ms because the TSTO optional keyword is not set.

26

Friday 8th September, 2023 @ 14:00

3.6.2 Case MATR02

This test is similar to MATR01 but we add the TSTO keyword. The siumulation is stopped as soon
as the map ﬁle is generated. The run continues after the SUIT command. An ALIC storage is
automatically written at the trigger time (step 46).

3.6.3 Case MATR03

This test is similar to MATR02 but there is no ALIC ﬁle output, so no ALIC storage is automatically
written at the trigger time (step 46). The ALIC ﬁle is speciﬁed before the MAPP ﬁle in the EPX
input ﬁle.

3.6.4 Case MATR04

This test is similar to MATR03 but the ALIC ﬁle is speciﬁed after the MAPP ﬁle in the EPX input
ﬁle. The program behaviour is identical to MAPP03, as it should be.

27

Friday 8th September, 2023 @ 14:00

3.7 Case D7710600mapc

This is a repetition of case D7710600mapb where we produce a map ﬁle every 0.5 ms from t = 31 ms
to t = 33 ms. Therefore, we expect ﬁve map ﬁles to be generated, named D7710600mapc 01.map to
D7710600mapc 05.map. The syntax of the map command becomes:

D7710600mapc

. . .

ECRI . . .

FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

TIME PROG 31.0E-3 PAS 0.5E-3 33.0E-3 TERM

. . .

FIN

Figure 24 shows the inﬂation and progressive failure of the ﬁring membranes.

(a) t = 0

(b) t = 3 ms

(c) t = 4 ms

(d) t = 6 ms

(e) t = 7 ms

(f) t = 8 ms

Figure 24: Inﬂation and progressive failure of the ﬁring membranes in test D7710600mapc.

Figure 25 shows the ﬂuid mesh FSI-driven reﬁnement and the ﬂuid pressure.
Figure 26 shows the failure patterns of the ﬁring membranes at t = 8 ms (tfant). As it can be seen,
the removal of the membranes seems to have been done at about the right time, since they both look
completely failed at t = 8 ms.

Figure 27 compares the map ﬁle curves at 31, 32 and 33 ms. Note that those at 31.5 and 32.5 ms
cannot be drawn from the ALIC ﬁle because data were stored only at full-millisecond time stations.
They could be drawn from the map ﬁles themselves, but this is more complicated since it would
require reading back the map ﬁle and mapping it onto a ﬂuid mesh (like in an Eulerian simulation,
for example). The map ﬁles at 32 and 33 ms look too “late” since the blast wave is either already too
close to the right extremity of the model, or it has even already been reﬂected. The map ﬁle at 31
ms might be a little bit too early. So it seems that the map ﬁle at 31.5 ms (the second one produced
in this simulation, i.e. ﬁle D7710600MAPC 02.map) might be the best one to be used in successive
Eulerian or FSI simulations

28

Friday 8th September, 2023 @ 14:00

(a) t = 3 ms

(b) t = 4 ms

(c) t = 6 ms

(d) t = 8 ms

(e) t = 3 ms

(f) t = 4 ms

(g) t = 6 ms

(h) t = 8 ms

Figure 25: Fluid mesh FSI-driven reﬁnement and the ﬂuid pressure in test D7710600mapc.

(a) First membrane

(b) Second membrane

Figure 26: Failure patterns of the ﬁring membranes in test D7710600mapc.

29

Friday 8th September, 2023 @ 14:00

(a) Pressure

(b) Density

Figure 27: Comparison of map ﬁle curves at 31, 32 and 33 ms in test D7710600mapc.

(c) Velocity

30

EUROPLEXUS21 APRIL     2023 DRAWING  1D7710600MAPC-1- P_31                                              -2- P_32                                                                         -3- P_33ABSCISSA 0. 5.10.15.20.PRESS. [PA]    0.1.E+052.E+053.E+054.E+055.E+056.E+05111122223333EUROPLEXUS21 APRIL     2023 DRAWING  2D7710600MAPC-1- R_31                                              -2- R_32                                                                         -3- R_33ABSCISSA 0. 5.10.15.20.DENS. [KG/M3]1.01.52.02.53.03.54.0111112222233333EUROPLEXUS21 APRIL     2023 DRAWING  3D7710600MAPC-1- V_31                                              -2- V_32                                                                         -3- V_33ABSCISSA 0. 5.10.15.20.VELO. [M/S]-100. -50.   0.  50. 100. 150. 200. 250. 300.11111122222233333Friday 8th September, 2023 @ 14:00

3.8 Case D7710600mapd

This is a repetition of test D7710600mapc by using the trigger mechanism to produce the map ﬁle
instead of prescribing the map time(s) explicitly:

D7710600mapd

. . .

COMP . . .

GROU 22

. . .

’trigger’ LECT tube TERM COND NEAR POIN -0.70 0 0

. . .

ECRI . . .

FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

TRIG ECRO 1 TSTO TVAL 1.02E5 LECT trigger TERM

. . .

FIN

Since the TSTO keyword is speciﬁed, the simulation is expected to stop right after creating the
map ﬁle. And, since an ALIC ﬁle is prescribed, an ALIC storage is expected to automatically occur
at the trigger time. Both such conditions are indeed respected.

In this simulation the map trigger gets activated at ttrig = 32.2 ms. Figure 28 shows the map ﬁle

curves at the trigger time.

(a) Pressure

(b) Density

(c) Velocity

Figure 28: Map ﬁle curves at ttrig = 32.2 ms in test D7710600mapd.

Other results of this simulation were of course identical to those presented in Figures 24, 25 and 26

for test D7710600mapc, and are not presented for brevity.

31

EUROPLEXUS23 APRIL     2023 DRAWING  1D7710600MAPD-1- P_TRIG                 ABSCISSA 0. 5.10.15.20.PRESS. [PA]    0.0 50000.1.0E+051.5E+052.0E+052.5E+053.0E+0511111EUROPLEXUS23 APRIL     2023 DRAWING  2D7710600MAPD-1- R_TRIG                 ABSCISSA 0. 5.10.15.20.DENS. [KG/M3]1.01.52.02.5111111111EUROPLEXUS23 APRIL     2023 DRAWING  3D7710600MAPD-1- V_TRIG                 ABSCISSA 0. 5.10.15.20.VELO. [M/S]-100. -50.   0.  50. 100. 150. 200. 250. 300.111111Friday 8th September, 2023 @ 14:00

3.9 Case D7710600mape

This is a repetition of test D7710600mapd without removing the membranes by the FANT directive at
tfant = 8.0 ms. Therefore, the simulation becomes very long in terms of CPU. The scope is to obtain
a reference solution to which solutions with various values of tfant can be compared in order to assess
the equivalence of the map ﬁle obtained.

Upon ﬁrst running, this simulation had to be stopped due to physical displacement of the EVICOM
PC on which it was running, when it had reached about 28.5 ms instead of the expected trigger time
of about 32.2 ms (ﬁde case D7710600mapd). So it had to be re-run to complete the simulation. The
trigger got activated at t = 32.1668 ms, after 125 138 time steps and 704 043 s (8.2 days) of CPU
time, and the simulation was automatically stopped after writing the map ﬁle.

The automatically produced map ﬁle is named D7710600mape 01.map and has a size of 85 042 848
bytes. On the ﬁrst line, it contains the creation date 01/05/2023. Note that this is not the date the
ﬁle was actually written (10/05/2023 at 17:29), but the date at which the job had been started.

An ALIC ﬁle storage (number 34) was automatically written at the map time just before stopping
the job. However, results were not automatically written on the listing at the map time. This will
have to be corrected, since a printout at the map time might be useful, among other things, to get
the ﬁnal list of eroded elements etc.

Figure 29 shows the inﬂation and progressive failure of the ﬁring membranes. The pressurization
phase ends at 3 ms. At 4 ms both membranes are already largely damaged. At 8 ms the failure process
has substantially terminated (so that the membranes could probably be removed). Very little occurs
in the membranes conﬁguration beyond 8 ms, except near the very end of the simulation (t > 27
ms) when the membranes bounce slightly back, possibly due to a re-pressurization wave which brings
some gas from the driven section back into the driver.

(a) t = 0

(b) t = 3 ms

(c) t = 4 ms

(d) t = 8 ms

(e) t = 27 ms

(f) t = 32.2 ms

Figure 29: Inﬂation and progressive failure of the ﬁring membranes in test D7710600mape.

Figure 30 shows the ﬂuid mesh FSI-driven reﬁnement and the ﬂuid pressure.
Figure 31 shows the failure patterns of the ﬁring membranes at various times. As it can be seen, at
8 ms both membranes are already completely failed. Very few additional erosions take place between
8 and 32.2 ms. In fact, of the total 273 shell elements eroded (due to material failure) at t = 32.2
ms, 251 (i.e. 92%) had already been eroded at t = 8.0 ms. Note that in this model, whenever a shell
element gets eroded (here only due to material failure), the attached CLXX element used to initially

32

Friday 8th September, 2023 @ 14:00

(a) t = 3 ms

(b) t = 4 ms

(c) t = 8 ms

(d) t = 32.2 ms

(e) t = 3 ms

(f) t = 4 ms

(g) t = 8 ms

(h) t = 32.2 ms

Figure 30: Fluid mesh FSI-driven reﬁnement and the ﬂuid pressure in test D7710600mape.

pressurize the membranes also gets eroded, so that the total number of eroded elements reported by
EPX by ATTENTION messages in the listing (and in Table 2) is the double of what is physically
interesting.

(a) First membrane @ t = 8 ms

(b) Second membrane @ t = 8 ms

(c) First membrane @ t = 32.2 ms

(d) Second membrane @ t = 32.2 ms

Figure 31: Failure patterns of the ﬁring membranes in test D7710600mape.

Figure 32 shows the map ﬁle (space) curves at the trigger time (in black) compared with the same

33

Friday 8th September, 2023 @ 14:00

curves for case D7710600mapd (in red). The diﬀerence between the two cases is that in D7710600mapd
the membranes were removed at t = 8 ms, while in case D7710600mapd they are kept until the ﬁnal
(map trigger) time.

(a) Pressure

(b) Density

(c) Velocity

Figure 32: Comparison of map ﬁle curves in tests D7710600mapd and D7710600mape.

The curves diﬀer somewhat in the initial (left) part of the tube, due to the presence of the
membranes in the black case, and their absence in the red case. However, the central and ﬁnal
(rightmost) parts of the curves, say for x > 5 m (where the abscissa x in the drawings of Figure 32 is
measured from the left extremity of the tube) are very similar. This conﬁrms the fact that removing
the membranes once they are completely failed is a legitimate process. In fact, experience shows that
the specimen (placed at the right extremity of the tube) usually fails completely just a few ms after
the ﬁrst impact of the blast wave.

A ﬁner inspection shows that the curves obtained by removing the membranes (in red) are slightly
higher than those obtained by keeping the membranes (in black). This appears plausible, since the
(largely failed) membranes, if not removed, continue to exert a (very little) containment eﬀect upon
the discharge of the high-pressure gas from the driver into the driven section of the tube.

The quasi-equality of the map curves over a distance of about Leq = 11 m in the right part of the
tube warrants an “unperturbed” period tunpert for the experiment which can be estimated as follows.
The last membrane (mem2 in this case) is located at Xm2 = −16.265 m in the model, while the map
trigger is located at Xtrig = −0.7 m. The blast wave starts being released at approximately tﬁre = 3.0
ms and reaches the map trigger at ttrig = 32.2 ms. Therefore, the average propagation speed of the
blast wave front along the tube is: vave
blast = (Xtrig − Xm2)/(ttrig − tﬁre) = (−0.7 + 16.265)/(32.2 − 3.0) =
0.533 m/ms. From this we obtain tunpert ≈ Leq/vave
blast = 11.0/0.533 = 20.6 ms (i.e. 533 m/s), which
is largely suﬃcient to simulate the specimen behavior up to (its possible) failure.

34

EUROPLEXUS 1 MAY       2023 DRAWING  1D7710600MAPE-1- P_TRIG                                            -2- P_D_TRIG               ABSCISSA 0. 5.10.15.20.PRESS. [PA]    0.0 50000.1.0E+051.5E+052.0E+052.5E+053.0E+051111122222EUROPLEXUS 1 MAY       2023 DRAWING  2D7710600MAPE-1- R_TRIG                                            -2- R_D_TRIG               ABSCISSA 0. 5.10.15.20.DENS. [KG/M3]1.01.52.02.51111111111122222222EUROPLEXUS 1 MAY       2023 DRAWING  3D7710600MAPE-1- V_TRIG                                            -2- V_D_TRIG               ABSCISSA 0. 5.10.15.20.VELO. [M/S]-100. -50.   0.  50. 100. 150. 200. 250. 300.1111111222222Friday 8th September, 2023 @ 14:00

In the experiments with larger nominal ﬁring pressures (15, 25 and 35 bar), the average propagation
speed of the blast wave front vave
blast will most likely be higher than in this case (10 bar), resulting
in smaller values of tunpert. However, also the blast pressure levels will result higher, so that the
(possible) failure of the specimen will occur in a shorter time, i.e. the experiment duration will be
shorter. Therefore, the above conclusion on the adequacy of tunpert should continue to hold also for
the tests with higher ﬁring pressures (to be checked and conﬁrmed).

Figure 33 shows the CPU time, the stability step and the (norm of) the maximum velocity during

the simulation.

(a) CPU time

(b) ∆t

(c) ∆t (log scale)

(d) vmax (log scale)

Figure 33: CPU time, stability time step and maximum velocity in test D7710600mape.

35

EUROPLEXUS11 MAY       2023 DRAWING  1LOG2PLOT_MAPE-1- CPU                    TIME [S]    0.05.0E-031.0E-021.5E-022.0E-022.5E-023.0E-023.5E-02CPU [S]-1.E+05     0. 1.E+05 2.E+05 3.E+05 4.E+05 5.E+05 6.E+05 7.E+05 8.E+051111EUROPLEXUS11 MAY       2023 DRAWING  2LOG2PLOT_MAPE-1- DTCRIT                 TIME [S]    0.05.0E-031.0E-021.5E-022.0E-022.5E-023.0E-023.5E-02DTCRIT [S]    0.05.0E-081.0E-071.5E-072.0E-072.5E-073.0E-073.5E-074.0E-074.5E-075.0E-0711111111111111111111111111111111111111111111111111111111111111111111111111111111111111111EUROPLEXUS11 MAY       2023 DRAWING 11LOG2PLOT_MAPE-1- DTCRIT                 TIME [S]    0.05.0E-031.0E-021.5E-022.0E-022.5E-023.0E-023.5E-02LOG10 (DTCRIT [S])-7.5-7.0-6.5-6.0111111111111111111111111111111111111111111111111111111111111111EUROPLEXUS11 MAY       2023 DRAWING 12LOG2PLOT_MAPE-1- VMAX                   TIME [S]    0.05.0E-031.0E-021.5E-022.0E-022.5E-023.0E-023.5E-02LOG10 (VMAX [M/S])0.00.51.01.52.02.53.03.54.04.511111111111111111111111111111111111111111Friday 8th September, 2023 @ 14:00

3.10 A new form of displacement-driven erosion

In the simulations performed so far it was observed that small fragments detached from the membranes
and traveling freely through the shock tube were not eroded until the entire membranes were eventually
removed by the FANT command at time tfant.

This might cause a degradation of performance in the simulation, if such small fragments happen
to be critical as far as stability is concerned. Besides, retaining such fragments even after they have
exited the 3D ﬂuid region of the model makes no sense and has no inﬂuence on the results.

Therefore, a method is sought to remove such fragments from the simulation. One possibility
would be to remove membrane elements once they have exited the 3D ﬂuid region, so that they can
no longer contribute to FSI. However, some inspection of the code reveals that achieving this goal
might be relatively complicated and error-prone.

Therefore, it is preferred resorting to a simpler and safer alternative strategy. Any membrane
elements should be removed from the calculation (eroded) when they have displaced more than a
prescribed amount from their initial position. The norm of the displacement is used, for the sake of
simplicity in the implementation. This is yet another type of displacement-driven erosion, similar but
not identical to the one used in safety glass windows blast studies, see the COMP FAIL DISP or AUTO
directive in [1].

The new displacement-driven erosion model is activated by the COMP DERO DISP directive, see [1]:

COMP ...

DERO ( DISP disp /LECT/ )

The simulations performed to check the new model are summarized in Table 6 and are described

in detail below.

Test

Mesh Description

DERO00
DERO01
DERO02
DERO03

5 Q41L Case without adaptivity
5 Q41L Case with adaptivity
5 Q4GS

Idem 01 but 3D

5 Q4GS 5 CL3D Idem 02 but add CL3D

tﬁn
[ms]
30.0
30.0
30.0
30.0

Steps CPU
[s]
—
—
—
—

7
12
11
11

Table 6: Simulations to check displacement-driven erosion.

3.10.1 Case DERO00

This is a simple test to verify the new COMP DERO DISP directive in the absence of adaptivity.

A bar made of 5 Q41L square elements has an initial velocity. We want to erode elements 4 and
5 after a displacement of 0.1 m and elements 2 and 3 after a displacement of 0.2 m. The input reads:

DERO00
ECHO
!CONV WIN
EROS 1.0
LAGR DPLA
GEOM LIBR POIN 12 Q41L 5 TERM

4 0 5 0
4 1 5 1

1 0 2 0 3 0
1 1 2 1 3 1

0 0
0 1
1 2 8 7
2 3 9 8
3 4 10 9
4 5 11 10

5 6 12 11

COMP EPAI 1. LECT tous TERM

DERO DISP 0.1 LECT 4 5 TERM
DISP 0.2 LECT 2 3 TERM

MATE VM23 RO 8000. YOUN 2.D8 NU 0.3 ELAS 2.D8

TRAC 1 2.D8 1.0
LECT tous TERM

INIT VITE 1 10 LECT tous TERM
ECRI FREQ 100
OPTI PAS AUTO NOTE LOG 1
CALC TINI 0. TEND 0.03D0
FIN

This results in the following erosions:

** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION

1 IN PUT_FAILED_ELEM : STEP
2 IN PUT_FAILED_ELEM : STEP
3 IN PUT_FAILED_ELEM : STEP
4 IN PUT_FAILED_ELEM : STEP

3 T = 1.30826E-02 ELEMENT
3 T = 1.30826E-02 ELEMENT
5 T = 2.18043E-02 ELEMENT
5 T = 2.18043E-02 ELEMENT

4 BECOMES ERODED (COMP DERO DISP)
5 BECOMES ERODED (COMP DERO DISP)
2 BECOMES ERODED (COMP DERO DISP)
3 BECOMES ERODED (COMP DERO DISP)

3.10.2 Case DERO01

This test is similar to DERO00 but we add adaptivity. We initially reﬁne elements 3 and 5 once by
the INIT ADAP SPLI directive:

36

Friday 8th September, 2023 @ 14:00

DERO01
ECHO
!CONV WIN
EROS 1.0
LAGR DPLA
DIME ADAP NPOI 10 Q41l 8 ENDA TERM
GEOM LIBR POIN 12 Q41L 5 TERM

4 0 5 0
4 1 5 1

1 0 2 0 3 0
1 1 2 1 3 1

0 0
0 1
1 2 8 7
2 3 9 8
3 4 10 9
4 5 11 10
5 6 12 11

COMP EPAI 1. LECT 1 PAS 1 5 TERM
DERO DISP 0.1 LECT 4 5 TERM
DISP 0.2 LECT 2 3 TERM

MATE VM23 RO 8000. YOUN 2.D8 NU 0.3 ELAS 2.D8

TRAC 1 2.D8 1.0
LECT 1 PAS 1 5 TERM

LINK COUP
INIT VITE 1 10.0 LECT 1 PAS 1 12 TERM

ADAP SPLI LEVE 2 LECT 3 5 TERM

ECRI FREQ 100
OPTI PAS AUTO NOTE LOG 1
CALC TINI 0. TEND 0.03D0
FIN

This results in the following erosions:

** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION

1 IN PUT_FAILED_ELEM : STEP
2 IN PUT_FAILED_ELEM : STEP
3 IN PUT_FAILED_ELEM : STEP
4 IN PUT_FAILED_ELEM : STEP
5 IN PUT_FAILED_ELEM : STEP
6 IN PUT_FAILED_ELEM : STEP
7 IN PUT_FAILED_ELEM : STEP
8 IN PUT_FAILED_ELEM : STEP
9 IN PUT_FAILED_ELEM : STEP
10 IN PUT_FAILED_ELEM : STEP

5 T = 1.09022E-02 ELEMENT
5 T = 1.09022E-02 ELEMENT
5 T = 1.09022E-02 ELEMENT
5 T = 1.09022E-02 ELEMENT
5 T = 1.09022E-02 ELEMENT
10 T = 2.18043E-02 ELEMENT
10 T = 2.18043E-02 ELEMENT
10 T = 2.18043E-02 ELEMENT
10 T = 2.18043E-02 ELEMENT
10 T = 2.18043E-02 ELEMENT

4 BECOMES ERODED (COMP DERO DISP)
10 BECOMES ERODED (COMP DERO DISP)
11 BECOMES ERODED (COMP DERO DISP)
12 BECOMES ERODED (COMP DERO DISP)
13 BECOMES ERODED (COMP DERO DISP)
2 BECOMES ERODED (COMP DERO DISP)
6 BECOMES ERODED (COMP DERO DISP)
7 BECOMES ERODED (COMP DERO DISP)
8 BECOMES ERODED (COMP DERO DISP)
9 BECOMES ERODED (COMP DERO DISP)

3.10.3 Case DERO02

This test is similar to DERO01 but in 3D, using Q4GS shell elements. The erosion pattern coincides
with that of DERO01, as expected:

** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION

1 IN PUT_FAILED_ELEM : STEP
2 IN PUT_FAILED_ELEM : STEP
3 IN PUT_FAILED_ELEM : STEP
4 IN PUT_FAILED_ELEM : STEP
5 IN PUT_FAILED_ELEM : STEP
6 IN PUT_FAILED_ELEM : STEP
7 IN PUT_FAILED_ELEM : STEP
8 IN PUT_FAILED_ELEM : STEP
9 IN PUT_FAILED_ELEM : STEP
10 IN PUT_FAILED_ELEM : STEP

5 T = 1.20665E-02 ELEMENT
5 T = 1.20665E-02 ELEMENT
5 T = 1.20665E-02 ELEMENT
5 T = 1.20665E-02 ELEMENT
5 T = 1.20665E-02 ELEMENT
9 T = 2.17197E-02 ELEMENT
9 T = 2.17197E-02 ELEMENT
9 T = 2.17197E-02 ELEMENT
9 T = 2.17197E-02 ELEMENT
9 T = 2.17197E-02 ELEMENT

4 BECOMES ERODED (DERO DISP (DISPLACEMENT))
10 BECOMES ERODED (DERO DISP (DISPLACEMENT))
11 BECOMES ERODED (DERO DISP (DISPLACEMENT))
12 BECOMES ERODED (DERO DISP (DISPLACEMENT))
13 BECOMES ERODED (DERO DISP (DISPLACEMENT))
2 BECOMES ERODED (DERO DISP (DISPLACEMENT))
6 BECOMES ERODED (DERO DISP (DISPLACEMENT))
7 BECOMES ERODED (DERO DISP (DISPLACEMENT))
8 BECOMES ERODED (DERO DISP (DISPLACEMENT))
9 BECOMES ERODED (DERO DISP (DISPLACEMENT))

3.10.4 Case DERO03

This test is similar to DERO03 but we attach CL3D boundary condition elements to the Q4GS shell
elements. The CL3D elements are eroded as soon as the matching shell elements are eroded, as
expected:

** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION
** ATTENTION

1 IN PUT_FAILED_ELEM : STEP
2 IN PUT_FAILED_ELEM : STEP
3 IN PUT_FAILED_ELEM : STEP
4 IN PUT_FAILED_ELEM : STEP
5 IN PUT_FAILED_ELEM : STEP
6 IN PUT_FAILED_ELEM : STEP
7 IN PUT_FAILED_ELEM : STEP
8 IN PUT_FAILED_ELEM : STEP
9 IN PUT_FAILED_ELEM : STEP
10 IN PUT_FAILED_ELEM : STEP
11 IN PUT_FAILED_ELEM : STEP
12 IN PUT_FAILED_ELEM : STEP
13 IN PUT_FAILED_ELEM : STEP
14 IN PUT_FAILED_ELEM : STEP
15 IN PUT_FAILED_ELEM : STEP
16 IN PUT_FAILED_ELEM : STEP
17 IN PUT_FAILED_ELEM : STEP
18 IN PUT_FAILED_ELEM : STEP
19 IN PUT_FAILED_ELEM : STEP
20 IN PUT_FAILED_ELEM : STEP

5 T = 1.20665E-02 ELEMENT
5 T = 1.20665E-02 ELEMENT
5 T = 1.20665E-02 ELEMENT
5 T = 1.20665E-02 ELEMENT
5 T = 1.20665E-02 ELEMENT
5 T = 1.20665E-02 ELEMENT
5 T = 1.20665E-02 ELEMENT
5 T = 1.20665E-02 ELEMENT
5 T = 1.20665E-02 ELEMENT
5 T = 1.20665E-02 ELEMENT
9 T = 2.17197E-02 ELEMENT
9 T = 2.17197E-02 ELEMENT
9 T = 2.17197E-02 ELEMENT
9 T = 2.17197E-02 ELEMENT
9 T = 2.17197E-02 ELEMENT
9 T = 2.17197E-02 ELEMENT
9 T = 2.17197E-02 ELEMENT
9 T = 2.17197E-02 ELEMENT
9 T = 2.17197E-02 ELEMENT
9 T = 2.17197E-02 ELEMENT

4 BECOMES ERODED (DERO DISP (DISPLACEMENT))
15 BECOMES ERODED (DERO DISP (DISPLACEMENT))
16 BECOMES ERODED (DERO DISP (DISPLACEMENT))
17 BECOMES ERODED (DERO DISP (DISPLACEMENT))
18 BECOMES ERODED (DERO DISP (DISPLACEMENT))

9 BECOMES ERODED (NEIGHBOUR WAS ERODED)
23 BECOMES ERODED (NEIGHBOUR WAS ERODED)
24 BECOMES ERODED (NEIGHBOUR WAS ERODED)
25 BECOMES ERODED (NEIGHBOUR WAS ERODED)
26 BECOMES ERODED (NEIGHBOUR WAS ERODED)

2 BECOMES ERODED (DERO DISP (DISPLACEMENT))
11 BECOMES ERODED (DERO DISP (DISPLACEMENT))
12 BECOMES ERODED (DERO DISP (DISPLACEMENT))
13 BECOMES ERODED (DERO DISP (DISPLACEMENT))
14 BECOMES ERODED (DERO DISP (DISPLACEMENT))

7 BECOMES ERODED (NEIGHBOUR WAS ERODED)
19 BECOMES ERODED (NEIGHBOUR WAS ERODED)
20 BECOMES ERODED (NEIGHBOUR WAS ERODED)
21 BECOMES ERODED (NEIGHBOUR WAS ERODED)
22 BECOMES ERODED (NEIGHBOUR WAS ERODED)

37

Friday 8th September, 2023 @ 14:00

3.11 Case D7710600mapg

This test was meant to verify the DERO command on the real shock tube model rather than the small
academic tests described in Section 3.10. The model is identical to that of case D7710600mapb, but
we add the COMP DERO keyword for the ﬁrst membrane (mem1), set at a displacement of just 0.2 m to
activate the erosion as early as possible, and we reduce the ﬁnal time to just 4.0 ms to speed up the
simulation.

D7710600MAPG

. . .

COMP . . .

DERO DISP 0.20 LECT mem1 TERM

. . .

CALC TINI 0 TEND 4.0E-3
FIN

At t = 4.0 ms, 30 elements had been eroded by the DERO mechanism, thus conﬁrming the correct

functioning of the new directive.

Figure 34 shows the inﬂation and progressive failure of the ﬁring membranes.

(a) t = 0

(b) t = 3 ms

(c) t = 4 ms

Figure 34: Inﬂation and progressive failure of the ﬁring membranes in test D7710600mapg.

Figure 35 shows the failure patterns of the ﬁring membranes. Note that the central part of the
ﬁrst membrane (the red one) gets eroded by the DERO mechanism. The same does not apply to the
second membrane (the green one), since the DERO command is not applied to it.

(a) First membrane

(b) Second membrane

Figure 35: Failure patterns of the ﬁring membranes in test D7710600mapg.

38

Friday 8th September, 2023 @ 14:00

3.12 Case D7710600mapf

This is a repetition of test D7710600mape of Section 3.9 by adding the COMP DERO DISP directive
(after testing it on case D7710600mapg presented in the previous Section) in order to erode membrane
fragments once they have exited the 3D ﬂuid domain:

D7710600mapf

. . .

COMP . . .

GROU 22

. . .

’trigger’ LECT tube TERM COND NEAR POIN -0.70 0 0

. . .
DERO DISP 1.230 LECT mem1 TERM
DISP 1.160 LECT mem2 TERM

. . .

ECRI . . .

FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

TRIG ECRO 1 TSTO TVAL 1.02E5 LECT trigger TERM

. . .

FIN

Upon ﬁrst running, this simulation had to be stopped due to physical displacement of the EVICOM
PC on which it was running, when it had reached about 26.8 ms instead of the expected trigger time
of about 32.2 ms (ﬁde case D7710600mapd). So it had to be re-run to complete the simulation.
However, it was also noticed that the DERO DISP directive was not working and the central fragments
of the membranes were not eroded after the speciﬁed displacement. This was due to a bug in the
DERO DISP model, which was ﬁxed in an evolution of 2 May 2023.

Then the test was re-run and the DERO DISP model did work (causing 34 erosions) but, quite
surprisingly, the simulation became extremely slow (∆t = 2 × 10−11) at around t = 19.3 ms, i.e.
much earlier than the time reached during the ﬁrst run (26.8 ms), with huge velocities (108 m/s) in
some Finite Volumes, so that the simulation had to be intentionally stopped. It is not known (and
considered unlikely) whether this phenomenon is due to the DERO DISP model. Actually, one would
expect that removing possibly weird membrane fragments from the calculation would help stability
rather than compromising it. So, the subject will have to be further investigated.

Some results are presented, until the last storage station which was at t = 19.0 ms. Figure 36

shows the inﬂation and progressive failure of the ﬁring membranes.

(a) t = 0

(b) t = 3 ms

(c) t = 7 ms

(d) t = 8 ms

(e) t = 9 ms

(f) t = 19 ms

Figure 36: Inﬂation and progressive failure of the ﬁring membranes in test D7710600mapf.

39

Friday 8th September, 2023 @ 14:00

Figure 37 shows the ﬂuid mesh FSI-driven reﬁnement and the ﬂuid pressure.

(a) t = 7 ms

(b) t = 8 ms

(c) t = 9 ms

(d) t = 19 ms

(e) t = 7 ms

(f) t = 8 ms

(g) t = 9 ms

(h) t = 19 ms

Figure 37: Fluid mesh FSI-driven reﬁnement and the ﬂuid pressure in test D7710600mapf.

Figure 38 shows the failure patterns of the ﬁring membranes at various times. As it can be seen,
at 8 ms both membranes are already completely failed, including the central part which ﬂies away as
a small fragment and gets eroded by the DERO DISP mechanism. Very few additional erosions take
place between 8 and 19 ms.

Figure 39 shows the ﬂuid velocities in the 3D part of the model (driver and ﬁrst part of the
driven section) at 19 ms. A huge (non-physical) velocity appears in a volume near the partially failed
membranes, where the pressure should be quite low at this time. By zooming in the pressure maps
in Figure 37, one sees that relatively high pressures remain “trapped” in the inﬂuence domain of
the membranes, probably due to the fact that numerical ﬂuxes are blocked between FVs within said
domain.

Although such phenomenon has probably no inﬂuence on the pressure distribution along the tube
(the ﬂuid pressures and velocities in the 1D part of the ﬂuid model are perfectly physical), they might
produce a local instability or imprecision, which might be the source of the numerical diﬃculties
observed in the simulation (excessive drop of the stability step).

40

Friday 8th September, 2023 @ 14:00

(a) First membrane @ t = 8 ms

(b) Second membrane @ t = 8 ms

(c) First membrane @ t = 19 ms

(d) Second membrane @ t = 19 ms

Figure 38: Failure patterns of the ﬁring membranes in test D7710600mapf.

(a) t = 19 ms

(b) Detail

Figure 39: Fluid velocity in the 3D part of the ﬂuid model at t = 19 ms in test D7710600mapf.

41

Friday 8th September, 2023 @ 14:00

Figure 40 shows the CPU time, the stability step and the (norm of) the maximum velocity during
the simulation. The curves from the present simulation are drawn in black, while the corresponding
ones from case D7710600mape are drawn in red, for comparison. The stability step is relatively
constant in the ﬁrst part of the simulation (∆t ≈ 3 × 10−7), apart from two localized drops at around
7 and 11 ms, from which it recovers relatively promptly. However, from about 17 ms onward the step
drops down to a much lower value of about 5 × 10−8 until, at about 19.3 ms, it becomes too small for
the simulation to advance, prompting for interruption of the calculation.

The maximum velocity remains of the order of 1000 m/s (which is physical) until about 17 ms.
Then it starts increasing very rapidly and this has a deleterious eﬀect on the stability time step of
the ﬂuid Finite Volumes, and eventually on the overall cost of the simulation.

(a) CPU time

(b) ∆t

(c) ∆t (log scale)

(d) vmax (log scale)

Figure 40: CPU, stability step and maximum velocity in tests D7710600mape and D7710600mapf.

Table 7 presents some data related to stability at various times. For t ≥ 17 ms the critical elements
are ﬂuid ones at the maximum reﬁnement level (3) in the second ﬁring chamber (ﬁr2). Since the ﬂuid
part of the model is Eulerian, the size of these elements does not change and the drop in their stability
seems due to the high local velocities in the volumes themselves.

42

EUROPLEXUS11 MAY       2023 DRAWING 13LOG2PLOT_MAPF-1- CPU                                               -2- CPU_E                  TIME [S]    0.05.0E-031.0E-021.5E-022.0E-022.5E-023.0E-023.5E-02CPU [S]-1.E+05     0. 1.E+05 2.E+05 3.E+05 4.E+05 5.E+05 6.E+05 7.E+05 8.E+051112222EUROPLEXUS11 MAY       2023 DRAWING 14LOG2PLOT_MAPF-1- DTCRIT                                            -2- DTCRIT_E               TIME [S]    0.05.0E-031.0E-021.5E-022.0E-022.5E-023.0E-023.5E-02DTCRIT [S]-5.0E-08     0.0 5.0E-08 1.0E-07 1.5E-07 2.0E-07 2.5E-07 3.0E-07 3.5E-07 4.0E-07 4.5E-07 5.0E-07111111111111111111111111111111111111112222222222222222222222222222222222222222222222222222222222222222222222222222222EUROPLEXUS11 MAY       2023 DRAWING 15LOG2PLOT_MAPF-1- DTCRIT                                            -2- DTCRIT_E               TIME [S]    0.05.0E-031.0E-021.5E-022.0E-022.5E-023.0E-023.5E-02LOG10 (DTCRIT [S])-11.0-10.5-10.0 -9.5 -9.0 -8.5 -8.0 -7.5 -7.0 -6.5 -6.011111111111112222222222222222222EUROPLEXUS11 MAY       2023 DRAWING 16LOG2PLOT_MAPF-1- VMAX                                              -2- VMAX_E                 TIME [S]    0.05.0E-031.0E-021.5E-022.0E-022.5E-023.0E-023.5E-02LOG10 (VMAX [M/S])0.1.2.3.4.5.6.7.8.9.111111111111111111111111111111222222222222222222222Friday 8th September, 2023 @ 14:00

Time
[ms]
0.0
5.0
7.0
10.0
11.0
15.0
17.0
18.0
19.0

Step

∆tstab El. crit.

Level

0
15 501
22 112
31 532
35 397
47 578
63 857
88 761
112 587

[s] ·10−7
4.61
3.19
2.55
3.27
3.22
3.29
0.48
0.36
0.67

406
92 556
108 566
92 556
92 556
92 556
226 045
226 031
226 031

1
3
3
3
3
3
3
3
3

Base
el.

Type

Mat.

Belongs to

406 Q4GS VM23
185 Q4GS VM23

pinbcm
mem1, memc1d
20 013 CUVF GAZP ﬁr2, ﬂui3d, fcoup1
mem1, memc1d
mem1, memc1d
mem1, memc1d
19 850 CUVF GAZP ﬁr2, ﬂui3d, fcoup1
19 850 CUVF GAZP ﬁr2, ﬂui3d, fcoup1
19 850 CUVF GAZP ﬁr2, ﬂui3d, fcoup1

185 Q4GS VM23
185 Q4GS VM23
185 Q4GS VM23

Table 7: Some stability-related data in test D7710600mapf.

43

Friday 8th September, 2023 @ 14:00

3.13 Case D7710600maph

This is basically a repetition of test D7710600mapf by activating the CENE option (OPTI VFCC CENE)
of the CCFV. According to the Users’ manual [1], this option (which has only eﬀect in second-order
in space simulations like the present one) should apply a correction to the gradients in such a way
that the internal energy stays always positive. Therefore, the NTIL option, which had been used in
the previous simulations, is removed since it should become redundant (to be checked). The hope is
that CENE would eliminate or reduce the instabilities observed.

Other minor model changes are also applied with respect to case D7710600mapf, so that the

complete set of modiﬁcations can be listed as follows:

(cid:136) Replace option NTIL by option CENE (as already explained above).
(cid:136) Replace CSTA 0.25 by CSTA 0.7 CSVF 0.471, in this way hoping to speed up the simulation.
The structural elements, which should be the most critical ones, will be integrated with a much
larger step while the CCFV will have a safety coeﬃcient Cs = 0.7 · 0.471 = 0.33, which is
(slightly) higher that the one used previously (0.25) but still below the theoretical limit of 1/3
for a 3D calculation.

(cid:136) The pinbcm object composed of Q4GS elements is no longer used. This represented the (rigid)
structure placed around the 3D driven section in the model in order to prevent the membranes
or fragments thereof from exiting the tube radially (while axial motion is left free). Since
pseudo-nodal pinballs (npincm) were (and still are) used for the contact, the shell elements are
simply not needed. Note that these shells were initially the most critical elements in the model
(due to steel-like material and to the fact that they had not been declared NOCR, despite being
completely blocked in translation). Therefore, it is hoped to gain something in the simulation
speed in the initial phase, before the membranes get reﬁned by adaptivity and become the most
critical ones.

(cid:136) We add the command TFAI 6.0E-7 in an attempt to erode membrane fragments that would
become so distorted as to slow down the simulation. The value chosen is based on the fact
that the stability step of the membranes (in the initial, unreﬁned conﬁguration) is ∆tstab =
2.84×10−6. Since a maximum reﬁnement level of 3 is prescribed in the membranes, the stability
step will become 1/4 of the initial value, i.e. about 7.1 × 10−7. By applying some extra safety
to account for possible element deformation, we obtain the value indicated above of 6.0 × 10−7.
(cid:136) Upon preliminary running, it was noticed that spurious contact forces were generated in the
initial conﬁguration between the perimeter of the membranes and the containing structure men-
tioned above. This generated spurious in-plane forces in the membrane due to the penalty-based
contact model adopted (PINB PENA). Although such forces had probably only minor eﬀects, it
is preferred to get rid of them by removing from the contact declaration the pseudo-nodal pin-
balls involved in these spurious contacts, now identiﬁes as two additional element groups named
npmem1 and npmem2.

(cid:136) Finally, an initial small value of the time increment PAS1 1.E-8 is prescribed to give the model

a better chance to start the simulation in an smooth and equilibrated manner.

Upon ﬁrst running, the simulation failed violently (access violation) as soon as the CCFV calcula-
tion was activated at tﬁre (3.0 ms here). This was due to an evident bug in module M REC VFCC 1D,
subroutine BOUCLE RECONS GRADIENT VFCC 1D. The quantity NBRFACELE must be com-
puted before calling CALL LIMIT EINT VFCC 1D, if the CENE option is active.

After correcting this bug, the simulation was re-run, but this time it stopped only slightly later,
at t ≈ 3.1 ms, with a nonsense message (BAD LENGTH in M ALLOCATION). Inspection revealed
that the maximum velocity passes from a physically plausible value to a huge value (1016) in just one
step, which is probably the indirect cause of the mentioned message.

Therefore, it is suspected that the correction mentioned before is not the only one needed. The
fact that the bug mentioned above was present seems to indicate that the CENE option, despite having
apparently been programmed, had never been tested in a case containing 1D VFCC elements (while
there are several non-regression tests using it with 3D VFCC elements). The advice and intervention
of CEA, authors of the CENE option, will have to be requested.

44

Friday 8th September, 2023 @ 14:00

3.14 Case D7710600mapi

This was a repetition of case D7710600mapi described in the previous Section, by returning to the
original (stricter) stability step of the previous simulations, thus hoping to avoid the instability (sudden
increase of the velocity) observed in the previous simulation. The modiﬁcations were:

(cid:136) The CSTA 0.7 CSVF 0.471 is rolled back to CSTA 0.25.
(cid:136) Consequently, the value of TFAI must be modiﬁed, because now the time increment used will

be smaller. We set it to 6.0 × 10−7 · (0.25/0.70), i.e. TFAI 2.15E-7.

However, upon running we obtain the same error message, at the same time as in the previous
simulation, and the huge velocity has the same value. This might indicate that the problem is not a
numerical instability, but just (another) bug in the so-far untested CENE model when applied to a 1D
VFCC mesh. However, this hypothesis will have to be checked.

45

Friday 8th September, 2023 @ 14:00

3.15 Checking CENE with a mixed 3D-1D CCFV mesh

In order to check whether the CENE option can be used in the presence of 1D CCFV elements (together
with 3D CCFV elements) we conduct some simple tests. We revisit the test 1D3D14 from reference [5].
In this test, two 3D ﬂuid domains are connected by a 1D part. The conditions are those typical of a
shock tube test, so the numerical solutions can be compared against the analytical one.

The simulations performed are summarized in Table 8 and are described in detail below.

Test

Mesh Description

1D3D14
1D3D24
1D3D34

2200 CUVF 1000 TUVF Repeated from [5]
2200 CUVF 1000 TUVF Idem 14, add RECO 1
2200 CUVF 1000 TUVF Idem 24, add CENE

tﬁn
[ms]
20.0
20.0
20.0

Steps CPU
[s]
12.8
18.6
19.5

1 896
1 897
1 899

Table 8: Simulations to check the use of CENE with 1D CCFV.

3.15.1 Case 1D3D14

This is simply a repetition of the test from [5], to check that the input is still valid after a few years
have passed. The OTPS option is modiﬁed into STPS to comply with the intervened syntax changes.
The test uses ORDR 2 STPS 2 but the reconstruction RECO is not activated, since at the moment the
test was constructed (2015) the 1D part of the model did not accept it. Therefore, the formulation
was actually ﬁrst order in space.

The test runs correctly, and some results are presented next. Figure 41 compares the numerical
solution (in black) against the analytical reference (in red), showing excellent agreement (for a ﬁrst-
order model).

(a) Pressure

(b) Density

(c) Sound speed

Figure 41: Some results of test 1D3D14.

3.15.2 Case 1D3D24

We repeat case 1D3D14 by activating the RECO 1 option, which is now available also for 1D volumes.
The model becomes full second-order in space.

Figure 42 compares the numerical solution (in black) against the analytical reference (in red),
showing even better agreement than in the pevious case (thanks to the second-order in space formu-
lation).

3.15.3 Case 1D3D34

Finally, we repeat case 1D3D24 (second order in space) by adding the CENE option.

The simulation runs smoothly and delivers the same result as case 1D3D24 (no diﬀerence on the

.ps ﬁle), as shown in Figure 42.

The conclusion from these tests seems to be that in principle CENE can be used in second-order
VFCC simulations containing a mix of 3D and 1D volumes (after the correction that was described in

46

EUROPLEXUS11 MAY       2023 DRAWING  11D3D14-1- P_21                                              -2- P_ANA                  CURR_ABSCISSA 0. 5.10.15.20.25.30.35.PRESS. [PA]    0.05.0E+051.0E+061.5E+0611112222EUROPLEXUS11 MAY       2023 DRAWING  21D3D14-1- RO_21                                             -2- R_ANA                  CURR_ABSCISSA 0. 5.10.15.20.25.30.35.DENS. [KG/M3] 0. 5.10.15.1111122222EUROPLEXUS11 MAY       2023 DRAWING  31D3D14-1- VX_21                                             -2- V_ANA                  CURR_ABSCISSA 0. 5.10.15.20.25.30.35.VELOC. [M/S]-50.  0. 50.100.150.200.250.300.350.111111222222Friday 8th September, 2023 @ 14:00

(a) Pressure

(b) Density

(c) Sound speed

Figure 42: Some results of test 1D3D24.

(a) Pressure

(b) Density

(c) Sound speed

Figure 43: Some results of test 1D3D34.

one of the previous cases). Therefore, the diﬃculties observed in the previous shock tube simulations
must have a diﬀerent origin.

47

EUROPLEXUS11 MAY       2023 DRAWING  11D3D24-1- P_21                                              -2- P_ANA                  CURR_ABSCISSA 0. 5.10.15.20.25.30.35.PRESS. [PA]    0.05.0E+051.0E+061.5E+0611112222EUROPLEXUS11 MAY       2023 DRAWING  21D3D24-1- RO_21                                             -2- R_ANA                  CURR_ABSCISSA 0. 5.10.15.20.25.30.35.DENS. [KG/M3] 0. 5.10.15.1111122222EUROPLEXUS11 MAY       2023 DRAWING  31D3D24-1- VX_21                                             -2- V_ANA                  CURR_ABSCISSA 0. 5.10.15.20.25.30.35.VELOC. [M/S]-50.  0. 50.100.150.200.250.300.350.111111222222EUROPLEXUS11 MAY       2023 DRAWING  11D3D34-1- P_21                                              -2- P_ANA                  CURR_ABSCISSA 0. 5.10.15.20.25.30.35.PRESS. [PA]    0.05.0E+051.0E+061.5E+0611112222EUROPLEXUS11 MAY       2023 DRAWING  21D3D34-1- RO_21                                             -2- R_ANA                  CURR_ABSCISSA 0. 5.10.15.20.25.30.35.DENS. [KG/M3] 0. 5.10.15.1111122222EUROPLEXUS11 MAY       2023 DRAWING  31D3D34-1- VX_21                                             -2- V_ANA                  CURR_ABSCISSA 0. 5.10.15.20.25.30.35.VELOC. [M/S]-50.  0. 50.100.150.200.250.300.350.111111222222Friday 8th September, 2023 @ 14:00

3.16 Case D7710600mapj

This was a repetition of case D7710600mapf described in Section 3.12 with the following modiﬁcations:

(cid:136) The CENE option for the VFCC is used in place of NFAI, like in cases 10h and 10i.
(cid:136) The Dubois parameters for mass, momentum and energy KMAS, KQDM and KENE are set to 0.75
instead of the default value 0.5. In addition, the Dubois limiters are explicitly chosen by setting
LMAS, LQDM and LENE to 3, but this is the default and so they had been already used in the
previous simulations.

(cid:136) The stability coeﬃcient is left to the setting used in case 10f (CSTA 0.25), unlike in case 10h.
Note that the chosen values (0.75) of the Dubois limiter parameters are those used in the recent
very successful simulations of explosions (conﬁned detonation of solid charges in air) inside pipes
performed at NTNU, see [17, 18]. However, in that case the pressures and pressure gradients were
probably higher than in the present shock tube tests. The default values (0.50) of the Dubois limiter
parameters had been used in all simulations of the shock tube so far, see e.g. [10, 15].

Upon ﬁrst running, the simulation stopped due to TILT at step 11384, t = 3.69711 ms, having
used 16 543 s of CPU and after the erosion of 224 elements (half of which due to material failure
and the rest due to neighbor failure). The reason for the stop was negative internal energy across
VFCC interface 832 913, right element 283 223, a CUVF element whose base element is 21 451. The
last printed vmax on the log ﬁle was still physical (703 m/s).

We attempt to re-run the same identical simulation by adding the NTIL option (although this
should in theory be redundant, since the CENE option is also active). This time the simulation
successfully reaches the map trigger time, which happens to be at tmap = 32.157 ms, although using
an even larger amount of CPU time (11.6 days) than in case D7710600mape.

During the entire simulation, 291 elements are eroded due to material failure and 36 due to the

DERO mechanims.

Figure 44 shows the inﬂation and progressive failure of the ﬁring membranes. The pressurization
phase ends at 3 ms. At 4 ms both membranes are already largely damaged. At 8 ms the failure process
has substantially terminated (so that the membranes could probably be removed). Very little occurs
in the membranes conﬁguration beyond 8 ms, except near the very end of the simulation (t > 27
ms) when the membranes bounce slightly back, possibly due to a re-pressurization wave which brings
some gas from the driven section back into the driver.

Figure 45 shows the ﬂuid mesh FSI-driven reﬁnement and the ﬂuid pressure. From the ﬂuid pres-
sure maps it can be seen that the tendency for some high pressure to remain “trapped” near the par-
tially failed membranes is somewhat higher than in the previous simulations, cfr. case D7710600mape,
Figure 30.

Figure 46 shows the failure patterns of the ﬁring membranes at various times. As it can be seen, at
8 ms both membranes are already completely failed. Very few additional erosions take place between
8 and 32.2 ms.

Figure 47 shows the map ﬁle (space) curves at the trigger time (in green) compared with the
same curves for case D7710600mapd (in red) and with those for case D7710600mape (in black). The
colors chosen are the same as in Figure 32, to allow direct comparison. The diﬀerence between the
three cases is that in D7710600mapd the membranes were removed at t = 8 ms, while in the other
two cases they are kept until the ﬁnal (map trigger) time. The diﬀerence between D7710600mape
and D7710600mapj is that the latter uses more aggressive values of the Dubois parameters, the CENE
option in place of NFAI and the DERO erosion mechanism.

As it can be seen, the black (case e) and green (present case j) map curves are almost identical in

the signiﬁcant part of the tube, say for x > 7 m.

Figure 48 shows the CPU time, the stability step and the (norm of) the maximum velocity during

the simulation.

48

Friday 8th September, 2023 @ 14:00

(a) t = 0

(b) t = 3 ms

(c) t = 4 ms

(d) t = 8 ms

(e) t = 27 ms

(f) t = 32.2 ms

Figure 44: Inﬂation and progressive failure of the ﬁring membranes in test D7710600mapj.

(a) t = 3 ms

(b) t = 4 ms

(c) t = 8 ms

(d) t = 32.2 ms

(e) t = 3 ms

(f) t = 4 ms

(g) t = 8 ms

(h) t = 32.2 ms

Figure 45: Fluid mesh FSI-driven reﬁnement and the ﬂuid pressure in test D7710600mapj.

49

Friday 8th September, 2023 @ 14:00

(a) First membrane @ t = 8 ms

(b) Second membrane @ t = 8 ms

(c) First membrane @ t = 32.2 ms

(d) Second membrane @ t = 32.2 ms

Figure 46: Failure patterns of the ﬁring membranes in test D7710600mapj.

50

Friday 8th September, 2023 @ 14:00

(a) Pressure

(b) Density

Figure 47: Comparison of map ﬁle curves in tests D7710600mapd, D7710600mape and D7710600mapj.

(c) Velocity

51

EUROPLEXUS12 MAY       2023 DRAWING  1D7710600MAPJ-1- P_TRIG                                            -2- P_D_TRIG                                                                     -3- P_E_TRIGABSCISSA 0. 5.10.15.20.PRESS. [PA]    0.0 50000.1.0E+051.5E+052.0E+052.5E+053.0E+05111112222233333EUROPLEXUS12 MAY       2023 DRAWING  2D7710600MAPJ-1- R_TRIG                                            -2- R_D_TRIG                                                                     -3- R_E_TRIGABSCISSA 0. 5.10.15.20.DENS. [KG/M3]1.01.52.02.5111111111112222222233333333333EUROPLEXUS12 MAY       2023 DRAWING  3D7710600MAPJ-1- V_TRIG                                            -2- V_D_TRIG                                                                     -3- V_E_TRIGABSCISSA 0. 5.10.15.20.VELO. [M/S]-100. -50.   0.  50. 100. 150. 200. 250. 300.11111112222223333333Friday 8th September, 2023 @ 14:00

(a) CPU time

(b) ∆t

(c) ∆t (log scale)

(d) vmax (log scale)

Figure 48: CPU time, stability time step and maximum velocity in test D7710600mapj.

52

EUROPLEXUS24 MAY       2023 DRAWING  1LOG2PLOT_MAPJ-1- CPU                    TIME [S]    0.05.0E-031.0E-021.5E-022.0E-022.5E-023.0E-023.5E-02CPU [S]-5.0E+05     0.0 5.0E+05 1.0E+06 1.5E+06111EUROPLEXUS24 MAY       2023 DRAWING  2LOG2PLOT_MAPJ-1- DTCRIT                 TIME [S]    0.05.0E-031.0E-021.5E-022.0E-022.5E-023.0E-023.5E-02DTCRIT [S]    0.05.0E-081.0E-071.5E-072.0E-072.5E-073.0E-073.5E-074.0E-074.5E-075.0E-071111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111EUROPLEXUS24 MAY       2023 DRAWING 11LOG2PLOT_MAPJ-1- DTCRIT                 TIME [S]    0.05.0E-031.0E-021.5E-022.0E-022.5E-023.0E-023.5E-02LOG10 (DTCRIT [S])-7.5-7.0-6.5-6.01111111111111111111111111111111111111111111111111111111111111111111111111111111111111111EUROPLEXUS24 MAY       2023 DRAWING 12LOG2PLOT_MAPJ-1- VMAX                   TIME [S]    0.05.0E-031.0E-021.5E-022.0E-022.5E-023.0E-023.5E-02LOG10 (VMAX [M/S])0.00.51.01.52.02.53.03.54.0111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111111Friday 8th September, 2023 @ 14:00

3.17 Checking alternative reconstruction/limiter on a mixed 3D-1D CCFV mesh

After being informed of the numerical diﬃculties encountered in the simulations, CEA’s experts (P.
Galon, A. Beccantini) have suggested trying alternative settings of the CCFV parameters:

(cid:136) Try ﬁrst order in space. Unfortunately, this is considered unsuitable for the present application
because we need a high-accuracy solution due to the length of the shock tube. Nevertheless, a
ﬁrst-order test will be conducted to ﬁnd out whether all the instabilities come from the second-
order formulation.

(cid:136) Try out RECO 2 instead of RECO 1.

In this way, the reconstruction is based on the internal
speciﬁc energy rather than on the conservative variables. The internal energy should therefore
remain strictly positive by construction and there should be no need to use the CENE option. A
doubt is raised that RECO 2 is available also in the 1D case. The existence of some benchmarks
using it (e.g. BM VFCC 1D TCHOC OE2OT2 PRIM) seems to indicate that this is the case,
but a test will be carried out to verify this (see below).

(cid:136) Use the Barth-Jespersen (B-J) limiter, which is more diﬀusive but also more robust than the
Dubois limiter. To this end it is suggested to set: LMAS 2 LQDM 2 LENE 2 but also LVEL 2 and
LPRE 2. It is not clear, and will have to be ascertained, whether LVEL and LPRE are used only
for the CDEM material (as written in the listing), or also in the present case of GAZP material
(as written in the Users’ manual [1]). The B-J limiter uses an additional parameter (actually,
a switch) KBar. By default it is KBar = 0 which activates the standard version of the limiter.
Setting KBar = 1 (KBAR 1) activates a modiﬁed version of the limiter which is more robust for
the calculation of shock waves. So in the present case it is advised to use KBAR 1.

To check the above mentioned settings, we ﬁrst perform some quick tests by using the 1D-3D
shock tube model of Section 3.15. This model is probably too simple and does not present real 3D
phenomena unlike in the shock tube application near the membranes. However, the scope here is
mainly to see whether the code accepts the new proposed setting of the parameters in a case involving
a mixed 1D-3D CCFV mesh. The simulations performed are summarized in Table 9 and are described
in detail below.

Test

Mesh Description

1D3D44
1D3D54
1D3D64

2200 CUVF 1000 TUVF Idem 24, RECO 2
2200 CUVF 1000 TUVF Idem 24, B-J limiter
2200 CUVF 1000 TUVF RECO 2, B-J limiter

tﬁn
[ms]
20.0
20.0
20.0

Steps CPU
[s]
19.1
19.1
19.1

1 897
1 900
1 900

Table 9: Simulations to check the use of alternative reconstruction and limiter.

3.17.1 Case 1D3D44

This case is similar to test 1D3D24 of Section 3.15.2 but we use RECO 2 (speciﬁc internal energy)
instead of RECO 1 (conservative variables) for the reconstruction.

The calculation succeeded. Results are visually very similar (although not identical, according to
diﬀ on the .PS curves) to those of case 1D3D24. They are shown in Figure 49. These results conﬁrm
that RECO 2 can indeed be used in 1D VFCC models.

3.17.2 Case 1D3D54

This case is similar to test 1D3D24 of Section 3.15.2 (RECO 1) but we use the B-J limiter: LMAS 2,
LQDM 2, LENE 2, but also LVEL 2 and LPRE 2, plus KBAR 1.

The calculation succeeded. Results are visually very similar (although not identical, according to
diﬀ on the .PS curves) to those of case 1D3D24. They are shown in Figure 50. These results conﬁrm
that the B-J limiter can indeed be used in 1D VFCC models.

53

Friday 8th September, 2023 @ 14:00

(a) Pressure

(b) Density

(c) Sound speed

Figure 49: Some results of test 1D3D44.

(a) Pressure

(b) Density

(c) Sound speed

Figure 50: Some results of test 1D3D54.

3.17.3 Case 1D3D64

This case is similar to test 1D3D44 (RECO 2) but we use the B-J limiter like in case 1D3D54, thus
combining all suggested parameter modiﬁcations.

The calculation succeeded. Results are visually very similar (although not identical, according to
diﬀ on the .PS curves) to those of case 1D3D24. They are shown in Figure 51. These results conﬁrm
that the RECO 2 combined with the B-J limiter can indeed be used in 1D VFCC models.

(a) Pressure

(b) Density

(c) Sound speed

Figure 51: Some results of test 1D3D64.

54

EUROPLEXUS13 MAY       2023 DRAWING  11D3D44-1- P_21                                              -2- P_ANA                  CURR_ABSCISSA 0. 5.10.15.20.25.30.35.PRESS. [PA]    0.05.0E+051.0E+061.5E+0611112222EUROPLEXUS13 MAY       2023 DRAWING  21D3D44-1- RO_21                                             -2- R_ANA                  CURR_ABSCISSA 0. 5.10.15.20.25.30.35.DENS. [KG/M3] 0. 5.10.15.1111122222EUROPLEXUS13 MAY       2023 DRAWING  31D3D44-1- VX_21                                             -2- V_ANA                  CURR_ABSCISSA 0. 5.10.15.20.25.30.35.VELOC. [M/S]-50.  0. 50.100.150.200.250.300.350.111111222222EUROPLEXUS13 MAY       2023 DRAWING  11D3D54-1- P_21                                              -2- P_ANA                  CURR_ABSCISSA 0. 5.10.15.20.25.30.35.PRESS. [PA]    0.05.0E+051.0E+061.5E+0611112222EUROPLEXUS13 MAY       2023 DRAWING  21D3D54-1- RO_21                                             -2- R_ANA                  CURR_ABSCISSA 0. 5.10.15.20.25.30.35.DENS. [KG/M3] 0. 5.10.15.1111122222EUROPLEXUS13 MAY       2023 DRAWING  31D3D54-1- VX_21                                             -2- V_ANA                  CURR_ABSCISSA 0. 5.10.15.20.25.30.35.VELOC. [M/S]-50.  0. 50.100.150.200.250.300.350.111111222222EUROPLEXUS13 MAY       2023 DRAWING  11D3D64-1- P_21                                              -2- P_ANA                  CURR_ABSCISSA 0. 5.10.15.20.25.30.35.PRESS. [PA]    0.05.0E+051.0E+061.5E+0611112222EUROPLEXUS13 MAY       2023 DRAWING  21D3D64-1- RO_21                                             -2- R_ANA                  CURR_ABSCISSA 0. 5.10.15.20.25.30.35.DENS. [KG/M3] 0. 5.10.15.1111122222EUROPLEXUS13 MAY       2023 DRAWING  31D3D64-1- VX_21                                             -2- V_ANA                  CURR_ABSCISSA 0. 5.10.15.20.25.30.35.VELOC. [M/S]-50.  0. 50.100.150.200.250.300.350.111111222222Friday 8th September, 2023 @ 14:00

3.18 Case D7710600mapk

This is a repetition of case D7710600mape described in Section 3.9 by using FSCP 0 instead of FSCP
1 in the FLSW model of FSI. This means that CCFV numerical ﬂuxes will be blocked only along
the direction normal to the structure, rather than along all spatial directions. Consequently, the ﬂuid
will be free to slide along the membranes, thus hopefully reducing the probability for high-pressure
pockets to be trapped in the vicinity of the membranes.

Unfortunately, the simulation stopped at t = 5.73 ms due to the onset of an enormous velocity
(1032) occurring in just one step on a shell node (101 135). At the immediately previous steps the
maximum velocity was about 9000 m/s in some ﬂuid volumes. The last storage station in the ALIC
ﬁle was at 5.0 ms.

Figure 52 compares the ﬂuid pressures near the partially failed membranes at t = 5.0 ms between
cases D7710600mape (FSCP 1) and D7710600mapk (FSCP 0). It can be seen that even larger high-
pressure pockets are formed than in the reference case. Therefore, setting FSCP to 0 does not solve
the problem.

(a) D7710600mape (FSCP 1)

(b) D7710600mapk (FSCP 0)

Figure 52: Comparison of ﬂuid pressures at 5 ms in tests D7710600mape and D7710600mapk.

Figure 53 shows the coupled ﬂuid and the structural inﬂuence domain of the partially failed

membranes at t = 5.0 ms.

(a) Coupled ﬂuid

(b) Idem plus inﬂuence domain

Figure 53: Coupled ﬂuid and structural inﬂuence domain at 5 ms in test D7710600mapk.

By inspection, it appears evident that the thickness of the coupled ﬂuid layer is excessive. This
may perhaps contribute to the formation of the observed high-pressure pockets, since ﬂuid ﬂuxes
are blocked (either directionally or completely) within the coupled ﬂuid layer (structural inﬂuence
domain).

55

Friday 8th September, 2023 @ 14:00

3.19 Case D7710600mapl

Following the disappointing results of test D7710600mapk, it is decided to revise the FSI coupling
parameters, as well as the related AMR settings, used in the simulations so far. As already observed
in the previous test case, the thickness of the coupled ﬂuid layer (i.e. the thickness of the membranes
inﬂuence domain) appears excessive. Besides possibly contributing to the persistence of high-pressure
pockets, this penalizes the CPU time of the solution due to an excessive number of small ﬂuid elements
generated (also due to the scaling factor SCAL 2 used in the FLSW ADAP command).

Furthermore, the size of the (fully reﬁned) ﬂuid mesh seems inappropriate, namely too large, with
respect to the (fully reﬁned) structural mesh in the central part of the membranes. Recall in fact
that, in theory, a (much) ﬁner ﬂuid mesh than the structural mesh is required for an embedded-type
FSI algorithm such as FLSW to work properly. This said, in several applications excessively large
ﬂuid meshes were used in the past, in order to reduce the cost of the simulation which is dominated
by the number of ﬂuid volumes, with acceptable results. But this might not be true in the present
application.

Closer inspection of the present case shows that this (i.e. the simulation of the membranes) is a
particularly tough situation. Already the base structural mesh is very non-uniform, namely ﬁner near
the center of the membranes (from where cracks are expected to start) and coarser near the outer
perimeter. And the (base) ﬂuid mesh is also correspondingly uneven, since it is build by following the
same logic.

Therefore, using a constant thickness of the inﬂuence domain (i.e. a constant inﬂuence radius R
0.025 in the FLSW directive) might be inappropriate here. It might be better to prescribe a variable
radius, by using the GAMM keyword instead of R, see [1]. In this way, the local radius is computed
based on the size of the local ﬂuid mesh. This requires an extra search over the ﬂuid elements, and
therefore the computational cost is increased with respect to the case of constant R, but one might
perhaps save something in the total number of reﬁned ﬂuid elements.

In order to check out this setting relatively rapidly, this test provisionally uses low-resolution FSI.
That is, the maximum reﬁnement level of the membranes is reduced from 3 to 2 (ADAP THRS MAXL
2). This is inappropriate for a precise detection of the membrane cracks, but will give at least an
approximate solution.

The changes in the present case with respect to case D7710600mape can be summarized as follows:
(cid:136) Reduce the structural reﬁnement (MAXL) from level 3 to level 2.
(cid:136) Use a variable radius of the structural inﬂuence domain by setting GAMM 1.1 instead of R 0.025

in the FLSW ADAP directive.

(cid:136) Use an automatically computed grid size instead of a user-speciﬁed grid size for the main fast
search grid, namely DELE 1.1 instead of HGRI 0.016. In this way, the grid size is computed by
EPX based on the size of the largest coupled structural element.

(cid:136) Use a lower scaling factor for the determination of ﬂuid elements to be reﬁned, SCAL 1.5 instead

of 2.0.

The simulation stopped at t = 8.27 ms with an error message in BUILD FELCSN W saying that

“there are FLSW nodes outside the fast search grid”. This problem will have to be investigated.

Figure 54 compares the ﬂuid pressures near the partially failed membranes at t = 8.0 ms between
cases D7710600mape (R 0.025) and D7710600mapl (GAMM 1.1). The thickness of the coupled ﬂuid
layer is much smaller and the high-pressure pockets seem reduced with respect to the reference.

The diﬀerences in the overall solutions (pressure levels, position of the membranes) are attributed
to the fact that this is a low-resolution FSI solution. See e.g. the failure patterns of the membranes
at 8.0 ms, which are compared against the reference in Figure 55. A full-resolution test will have to
be conducted next.

56

Friday 8th September, 2023 @ 14:00

(a) D7710600mape (R 0.025)

(b) D7710600mapl (GAMM 1.1)

Figure 54: Comparison of ﬂuid pressures at 8 ms in tests D7710600mape and D7710600mapl.

(a) First membrane, test 10e

(b) Second membrane, test 10e

(c) First membrane, test 10l

(d) Second membrane, test 10l

Figure 55: Comparison of membranes erosion at 8 ms in tests D7710600mape and D7710600mapl.

57

Friday 8th September, 2023 @ 14:00

3.20 Case D7710600mapm

After inspection of BUILD FELCSN W, it was decided to simply transform the error message into an
attention message (with a limit of 10 messages) and let the calculation go on. In fact, it may happen
that some structure nodes initially lie outside of the coupled ﬂuid domain, or (like in this case) move
outside that domain during the simulation. Therefore, some structure node might end up ﬁnding
itself outside the fast search grid. In that case, we tentatively assume that simply no FSI coupling
should occur on those nodes.

This test is a repetition of case D7710600mapl with the corrected executable. Unfortunately, the

simulation stopped at about t = 14.0 ms with an error message saying:

ERROR 1 *** ADAPT_FLSW *** PING-PONG DUE TO RCON

Figure 56 compares the ﬂuid pressures near the partially failed membranes at t = 14.0 ms between
cases D7710600mape (R 0.025) and D7710600mapm (GAMM 1.1). The thickness of the coupled ﬂuid
layer is much smaller and the high-pressure pockets seem reduced with respect to the reference.

(a) D7710600mape (R 0.025)

(b) D7710600mapm (GAMM 1.1)

Figure 56: Comparison of ﬂuid pressures at 14 ms in tests D7710600mape and D7710600mapm.

The diﬀerences in the overall solutions (pressure levels, position of the membranes) are attributed
to the fact that this is a low-resolution FSI solution. See e.g. the failure patterns of the membranes
at 8.0 ms, which are compared against the reference in Figure 57. A full-resolution test will have to
be conducted next.

58

Friday 8th September, 2023 @ 14:00

(a) First membrane, test 10e

(b) Second membrane, test 10e

(c) First membrane, test 10l

(d) Second membrane, test 10l

Figure 57: Comparison of membranes erosion at 14 ms in tests D7710600mape and D7710600mapm.

59

Friday 8th September, 2023 @ 14:00

3.21 Case D7710600mapn

After inspection of subroutine ADAPT FLSW from module M LINK FLSW, it was decided to simply
transform the error message into an attention message (with a limit of 10 messages) and let the
calculation go on. The same is done also in subroutine ADAPT FLSR from module M LINK FLSR,
for uniformity. Note that the same correction (concerning PING-PONG due to RCON) had been
done some time ago also in subroutine ADAPT PINB from module M PINS ADAP.

This test is a repetition of case D7710600mapm with the corrected executable. The map ﬁle
production trigger is activated, and the simulation is automatically stopped, at tmap = 32.129 ms,
after about 6.3 days of CPU time.

Figure 58 shows the inﬂation and progressive failure of the ﬁring membranes. The pressurization
phase ends at 3 ms. At 4 ms both membranes are already largely damaged. At 8 ms the failure process
has substantially terminated (so that the membranes could probably be removed). Very little occurs
in the membranes conﬁguration beyond 8 ms, except near the very end of the simulation (t > 27
ms) when the membranes bounce slightly back, possibly due to a re-pressurization wave which brings
some gas from the driven section back into the driver.

(a) t = 0

(b) t = 3 ms

(c) t = 4 ms

(d) t = 8 ms

(e) t = 27 ms

(f) t = 32.1 ms

Figure 58: Inﬂation and progressive failure of the ﬁring membranes in test D7710600mapn.

60

Friday 8th September, 2023 @ 14:00

Figure 59 shows the ﬂuid mesh FSI-driven reﬁnement and the ﬂuid pressure.

(a) t = 3 ms

(b) t = 4 ms

(c) t = 8 ms

(d) t = 32.1 ms

(e) t = 3 ms

(f) t = 4 ms

(g) t = 8 ms

(h) t = 32.1 ms

Figure 59: Fluid mesh FSI-driven reﬁnement and the ﬂuid pressure in test D7710600mapn.

Figure 60 shows the failure patterns of the ﬁring membranes at various times. As it can be seen, at
8 ms both membranes are already completely failed. Very few additional erosions take place between
8 and 32.2 ms.

(a) First membrane @ t = 8 ms

(b) Second membrane @ t = 8 ms

(c) First membrane @ t = 32.1 ms

(d) Second membrane @ t = 32.1 ms

Figure 60: Failure patterns of the ﬁring membranes in test D7710600mapn.

61

Friday 8th September, 2023 @ 14:00

Figure 61 shows the map ﬁle (space) curves at the trigger time (in cyan), compared with the
same curves for case D7710600mapd (in red), with those for case D7710600mape (in black) and those
for case D7710600mapj (in green). The colors chosen are the same as in Figure 47, to allow direct
comparison. The diﬀerence between the four cases is that in D7710600mapd the membranes were
removed at t = 8 ms, while in the other three cases they are kept until the ﬁnal (map trigger) time.
The diﬀerence between D7710600mape and D7710600mapj is that the latter uses more aggressive
values of the Dubois parameters, the CENE option in place of NFAI and the DERO erosion mechanism.

(a) Pressure

(b) Density

(c) Velocity

Figure 61: Comparison of map ﬁle curves in tests D7710600mapd, mape, mapj and mapn.

As it can be seen, the black (case e), green (case j) and cyan (present case n) map curves are

almost identical in the signiﬁcant part of the tube, say for x > 7 m.

62

EUROPLEXUS21 MAY       2023 DRAWING  1D7710600MAPN-1- P_TRIG                                            -2- P_D_TRIG                                                                     -3- P_E_TRIG-4- P_J_TRIG               ABSCISSA 0. 5.10.15.20.PRESS. [PA]    0.0 50000.1.0E+051.5E+052.0E+052.5E+053.0E+051111122222333334444EUROPLEXUS21 MAY       2023 DRAWING  2D7710600MAPN-1- R_TRIG                                            -2- R_D_TRIG                                                                     -3- R_E_TRIG-4- R_J_TRIG               ABSCISSA 0. 5.10.15.20.DENS. [KG/M3]1.01.52.02.51111111111111222222223333333333344444444444EUROPLEXUS21 MAY       2023 DRAWING  3D7710600MAPN-1- V_TRIG                                            -2- V_D_TRIG                                                                     -3- V_E_TRIG-4- V_J_TRIG               ABSCISSA 0. 5.10.15.20.VELO. [M/S]-100. -50.   0.  50. 100. 150. 200. 250. 300.111111122222233333334444444Friday 8th September, 2023 @ 14:00

Figure 62 shows the CPU time, the stability step, the (norm of) the maximum velocity and the

CPU time per step during the simulation.

(a) CPU time

(b) ∆t

(c) ∆t (log scale)

(d) vmax (log scale)

(e) CPU time per step

Figure 62: CPU time, stability time step and maximum velocity in test D7710600mapn.

From Figure 62(e) it can be observed that the CPU cost per step of the simulation has some
unexpected (and sometimes persistent) spikes after about 25 ms, which penalize the overall cost of
the simulation. This behavior is surprising since the cost of the simulation per step should not vary
so much, since it has nothing to do with the step size which, on the other hand, might drop thus
pebalizing the eﬃciency of the calculation. But the latter does not vary too much in this example.

63

EUROPLEXUS27 MAY       2023 DRAWING  1LOG2PLOT_MAPN-1- CPU                    TIME [S]    0.05.0E-031.0E-021.5E-022.0E-022.5E-023.0E-023.5E-02CPU [S]-1.E+05     0. 1.E+05 2.E+05 3.E+05 4.E+05 5.E+05 6.E+051111EUROPLEXUS27 MAY       2023 DRAWING  2LOG2PLOT_MAPN-1- DTCRIT                 TIME [S]    0.05.0E-031.0E-021.5E-022.0E-022.5E-023.0E-023.5E-02DTCRIT [S]5.0E-081.0E-071.5E-072.0E-072.5E-073.0E-073.5E-074.0E-074.5E-075.0E-0711111111111111111111111EUROPLEXUS27 MAY       2023 DRAWING 12LOG2PLOT_MAPN-1- DTCRIT                 TIME [S]    0.05.0E-031.0E-021.5E-022.0E-022.5E-023.0E-023.5E-02LOG10 (DTCRIT [S])-7.2-7.1-7.0-6.9-6.8-6.7-6.6-6.5-6.4-6.31111111111111111111EUROPLEXUS27 MAY       2023 DRAWING 13LOG2PLOT_MAPN-1- VMAX                   TIME [S]    0.05.0E-031.0E-021.5E-022.0E-022.5E-023.0E-023.5E-02LOG10 (VMAX [M/S])0.00.51.01.52.02.53.03.54.011111111111111111111111111111111111111111111111111111111111111111111111111EUROPLEXUS27 MAY       2023 DRAWING 10LOG2PLOT_MAPN-1- CPUPSTEP               TIME [S]    0.05.0E-031.0E-021.5E-022.0E-022.5E-023.0E-023.5E-02CPUPSTEP [S]-5. 0. 5.10.15.20.25.30.35.111111111111111111111111111111111111111111111111111111Friday 8th September, 2023 @ 14:00

There are some sudden drops, but the normal value is recovered rapidly.

This behavior will have to be investigated. A possible (suspect) candidate for the large increase of
the per step cost observed could be the (supposedly fast) search of the ﬂuid element containing each
structural node, which is only carried on when the GAMM parameter (not R) is used, like in the present
case.

In this regard, it should be observed that in this simulation the membrane fragments are not
eroded according to the displacement criterion (DERO) and therefore, if they ﬂy a long distance away,
they could cause the abnormal extension of the fast search domain (fast search grid).

64

Friday 8th September, 2023 @ 14:00

3.22 Case D7710600mapo

This test is similar to D7710600mapl/m/n but we restore membranes reﬁnement to level 3 (ADAP THRS
MAXL 3). In the FLSW ADAP directive we use GAMM 1.1, DELE 1.1, LMAX 4 and SCAL 1.2.

The simulation was very slow (as it could have been expected) and took about 14.3 days of CPU

to reach the ﬁrst 8 ms.

Figure 63 shows the inﬂation and progressive failure of the ﬁring membranes. The pressurization
phase ends at 3 ms. At 4 ms both membranes are already largely damaged. At 8 ms the failure
process has substantially terminated (so that the membranes could probably be removed).

(a) t = 0

(b) t = 3 ms

(c) t = 4 ms

Figure 63: Inﬂation and progressive failure of the ﬁring membranes in test D7710600mapo.

(d) t = 8 ms

65

Friday 8th September, 2023 @ 14:00

Figure 64 shows the ﬂuid mesh FSI-driven reﬁnement and the ﬂuid pressure. The fully reﬁned

ﬂuid zone near the structure is very narrow.

(a) t = 3 ms

(b) t = 4 ms

(c) t = 8 ms

(d) t = 3 ms

(e) t = 4 ms

(f) t = 8 ms

Figure 64: Fluid mesh FSI-driven reﬁnement and the ﬂuid pressure in test D7710600mapo.

Figure 65 shows the failure patterns of the ﬁring membranes at various times. As it can be seen,

at 8 ms both membranes are already completely failed.

(a) First membrane @ t = 8 ms

(b) Second membrane @ t = 8 ms

Figure 65: Failure patterns of the ﬁring membranes in test D7710600mapo.

66

Friday 8th September, 2023 @ 14:00

Figure 66 shows the CPU time, the stability step, the (norm of) the maximum velocity and the

CPU time per step during the simulation.

(a) CPU time

(b) ∆t

(c) ∆t (log scale)

(d) vmax (log scale)

Figure 66: CPU time, stability time step and maximum velocity in test D7710600mapo.

(e) CPU time per step

67

EUROPLEXUS16 JUNE      2023 DRAWING  1LOG2PLOT_MAPO-1- CPU                    TIME [S]    0.1.E-032.E-033.E-034.E-035.E-036.E-037.E-038.E-039.E-03CPU [S]-5.0E+05     0.0 5.0E+05 1.0E+06 1.5E+061111EUROPLEXUS16 JUNE      2023 DRAWING  2LOG2PLOT_MAPO-1- DTCRIT                 TIME [S]    0.1.E-032.E-033.E-034.E-035.E-036.E-037.E-038.E-039.E-03DTCRIT [S]1.0E-071.5E-072.0E-072.5E-073.0E-073.5E-074.0E-074.5E-075.0E-071111111111111111111111111111111111111111111111111111111111111EUROPLEXUS16 JUNE      2023 DRAWING 12LOG2PLOT_MAPO-1- DTCRIT                 TIME [S]    0.1.E-032.E-033.E-034.E-035.E-036.E-037.E-038.E-039.E-03LOG10 (DTCRIT [S])-7.0-6.9-6.8-6.7-6.6-6.5-6.4-6.3111111111111111111111111111111111111111111111111111111111111111EUROPLEXUS16 JUNE      2023 DRAWING 13LOG2PLOT_MAPO-1- VMAX                   TIME [S]    0.1.E-032.E-033.E-034.E-035.E-036.E-037.E-038.E-039.E-03LOG10 (VMAX [M/S])0.00.51.01.52.02.53.03.54.011111111111111111111111111111EUROPLEXUS16 JUNE      2023 DRAWING 10LOG2PLOT_MAPO-1- CPUPSTEP               TIME [S]    0.1.E-032.E-033.E-034.E-035.E-036.E-037.E-038.E-039.E-03CPUPSTEP [S]-50.  0. 50.100.150.1111111111111111111111111111111111111111111111111111Friday 8th September, 2023 @ 14:00

4 Eulerian simulations

In this Section we use some of the map ﬁles obtained in Section 3 in order to run Eulerian simulations
aimed at producing the pressure time curves that will be used in the successive set of Lagrangain
(uncoupled) simulations to be described in Section 5. The strategy behind this procedure is explained
in references [10, 15].

In the Eulerian simulations, only the ﬂuid is represented. The model consists of the 3D ﬂuid
domain from the mapping simulations (without the membranes), the 1D ﬂuid domain from the said
simulations, plus an extra 3D ﬂuid domain which extends until the nominal position of the specimen
(plate) to be tested. The plate is not included, and the right end of the model represents a rigid wall,
i.e. a rigid plate.

The scope is to measure the blast pressure acting on the ﬁnal wall, at nine diﬀerent sampling
positions spread over the cross section, from which one can obtain a single time signal (called the
Eulerian pressure history in the following), representing the average pressure that would act on an
ideal perfectly rigid plate placed at the end of the shock tube. Experience has shown that the nine
signals obtained are almost identical in practice, see [15], since the pressure is evenly distributed over
the ideally rigid plate. Therefore, it makes sense to use a single pressure signal (the average one) in
order to (uniformly) load the test deformable plate in the successive Lagrangian simulations.

The Eulerian simulations performed are summarized in Table 10.

Case

ST EUL 10 D7710600mape 01.map

Map ﬁle Map date
(start)
01/05/23

p∗
[bar]
10

tmap
[ms]
32.2

tﬁn
[ms]
44.0

Steps CPU RAM Sto.
[GB]
1.5

[s]
4 317

[GB]
2.1

4 638

Table 10: Eulerian simulations.

4.1 Case ST EUL 10

This test uses as a basis the Eulerian mesh from the 2021 Eulerian simulation at 5 bar nominal
pressure (case ST EUL 05 from the NTNU database [15]). The initial ﬂuid material properties (MATE
directive) are updated so they correspond to those of the 10 bar case, see Table 3. The initial state
of the ﬂuid in the mapped parts of the ﬂuid domain is read back from the map ﬁle produced in case
D7710600mape of Section 3.9, named D7710600mape 01.map. The modiﬁed parts of the input ﬁle
with respect to the 5 bar case (from 2021) are marked in red below:

ST_EUL_10
ECHO
!CONV win
CAST mesh
TRID EULE
!EROS 1.0
DIME

JONC 1180 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM

GEOM ! T3GS fake

CUVF flui3d tubelp3 ! tank
TUVF tubelp1
CL3D face3d stub3d ! pre
TUBM rac3d1d raclp

TERM
COMP ! EPAI 3.00E-3 LECT fake TERM

DIAM DROI 0.1692568 LECT tubelp1 TERM
RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

TERM

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT stub3d TERM COEF 1.0

TERM
TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

’S6’ LECT tube TERM COND NEAR POIN 0 0.06 0
’S7’ LECT tube TERM COND NEAR POIN 0 0.12 0.12
’S8’ LECT tube TERM COND NEAR POIN 0 0.12 0.06
’S9’ LECT tube TERM COND NEAR POIN 0 0.12 0
’S01’ LECT tube TERM COND NEAR POIN -0.245 0 0.15
’S02’ LECT tube TERM COND NEAR POIN -0.345 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

NGRO 1 ’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0
COUL TURQ LECT tube tra lp3xl TERM

VERT LECT fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM

ROSE LECT S1 S2 S3 S4 S5 S6 S7 S8 S9 S01 S02 TERM

MATE

!LOI 2

GAZP RO 13.445 GAMM 1.4 CV 719.286 PINI 11.36E5 PREF 9.968E4

LECT none TERM

!LOI 3

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 4

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 5

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT flui3d TERM ! _cuvf TERM

GROU 17 ’endtube’ LECT tube TERM COND XB GT -0.6

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

’trigger’ LECT tube TERM COND NEAR POIN -0.1501 0 0
’frefine’ LECT flui TERM COND XB GT -0.3
1.0

COND XB LT

’S1’ LECT tube TERM COND NEAR POIN 0 0 0.12
’S2’ LECT tube TERM COND NEAR POIN 0 0 0.06
’S3’ LECT tube TERM COND NEAR POIN 0 0 0
’S4’ LECT tube TERM COND NEAR POIN 0 0.06 0.12
’S5’ LECT tube TERM COND NEAR POIN 0 0.06 0.06

LECT epar1 epar2 TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT rac3d1d raclp tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 6 7 LECT tubelpp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with

68

Friday 8th September, 2023 @ 14:00

! the same characteristics as the material used for tubelp1

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT tubelp3 _cuvf TERM ! tank _cuvf TERM

INIT MAPP FORM ’D7710600mape_01.map’ MATC OBJE LECT flui3d tubelp1 TERM
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3
POIN LECT pt0 TERM
ELEM LECT S1 TERM

!
!
!
!

FICH ALIC TEMP TFRE 1.e-5

FICH ALIT ’./D7710600eule.alt’ FREQ 0 TFRE 0.D0
FICH ALIT FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 22.D-3 PAS 0.01D-3 60.D-3
PAS 1.D-3 120.D-3
POIN LECT pt0 TERM
ELEM LECT S1 S2 S3 S4 S5 S6 S7 S8 S9 S01 S02 TERM

!
!
!
!

FICH PVTK ’./D7710600eule.pvd’ FREQ 0 TFRE 0.D0
Fichier PVTK TFREQ

10.0e-3

GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA

FICH SPLI ALIC TFRE 0.5E-3

OPTI NOTE CSTA 0.25

LOG 1
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1
NTIL
CALC TINI 0 TEND 44.0E-3
FIN

Once run the simulation, the input ﬁle ST EUL 10p is used to obtain the pressure curves. Again,
the diﬀerences with respect to the 5 bar case are highlighted in red. The plot limits XMIN, XMAX, the
time shift (MOVE) and the ambient pressure are adjusted to values appropriate for the 10 bar case:

ST_EUL_10p
ECHO
RESU SPLI ALIC TEMP ’ST_EUL_10.alt’ GARD PSCR
SORT GRAP
AXTE 1.0 ’Time [s]’
COUR 1 ’S1’ ECRO COMP 1 LECT S1 TERM ! Sensors 1 to 0
COUR 2 ’S2’ ECRO COMP 1 LECT S2 TERM
COUR 3 ’S3’ ECRO COMP 1 LECT S3 TERM
COUR 4 ’S4’ ECRO COMP 1 LECT S4 TERM
COUR 5 ’S5’ ECRO COMP 1 LECT S5 TERM
COUR 6 ’S6’ ECRO COMP 1 LECT S6 TERM
COUR 7 ’S7’ ECRO COMP 1 LECT S7 TERM
COUR 8 ’S8’ ECRO COMP 1 LECT S8 TERM
COUR 9 ’S9’ ECRO COMP 1 LECT S9 TERM
TRAC 1 2 3 4 5 6 7 8 9 AXES 1.0 ’Sensors’

XMIN 32.E-3 XMAX 44.E-3 NX 12 YZER
COLO turq rose roug bleu noir vert turq rose roug
THIC 0.8 0.8 0.8 0.8 0.8 0.8 0.8 0.8 0.8

COUR 10 ’Pave’ MEAN 9 1 2 3 4 5 6 7 8 9 ! Take the average
TRAC 10 AXES 1.0 ’Average’

XMIN 32.E-3 XMAX 44.E-3 NX 12 YZER

COUR 11 ’Sub’ SUBC 10 0.9968e5
COUR 12 ’Pressure’ MOVE 11 -32.0e-3
TRAC 12 AXES 1.0 ’Pres [Pa]’ YZER

! Subtract ambient pressure
! Shift in time
! This is the final result

COLO BLEU
THIC 0.8

LIST 12 AXES 1.0 ’Pres [Pa]’ YZER
QUAL COUR 12 REFE
FIN

0.00000E+00 TOLE 1.E-2

Figure 67 shows the nine raw pressure signals obtained (which are nearly identical as expected),

the average pressure signal and the overpressure signal.

The ﬁnal obtained pressure (overpressure) time function for 10 bar nominal ﬁring pressure is
shown in cyan in Figure 68, where it is compared with the other pressures time functions that had
been presented in Figure 10 (note that these signals are not synchronized in time).

69

Friday 8th September, 2023 @ 14:00

(a) Raw pressures

(b) Average pressure

(c) Overpressure

Figure 67: Some results of test ST EUL 10.

Figure 68: Pressure time functions to be used in the Lagrangian simulations.

70

EUROPLEXUS13 MAY       2023 DRAWING  1ST_EUL_10-1- S1                                                -2- S2                                                                           -3- S3-4- S4                                                -5- S5                                                                           -6- S6-7- S7                                                -8- S8                                                                           -9- S9TIME [S]3.2E-023.3E-023.4E-023.5E-023.6E-023.7E-023.8E-023.9E-024.0E-024.1E-024.2E-024.3E-024.4E-02SENSORS    0.1.E+052.E+053.E+054.E+055.E+056.E+057.E+0511111222223333344444555556666677777888889999EUROPLEXUS13 MAY       2023 DRAWING  2ST_EUL_10-1- PAVE                   TIME [S]3.2E-023.3E-023.4E-023.5E-023.6E-023.7E-023.8E-023.9E-024.0E-024.1E-024.2E-024.3E-024.4E-02AVERAGE 50000.1.0E+051.5E+052.0E+052.5E+053.0E+053.5E+054.0E+054.5E+055.0E+055.5E+056.0E+05111111EUROPLEXUS13 MAY       2023 DRAWING  3ST_EUL_10-1- PRESSURE               TIME [S]-5.0E-03     0.0 5.0E-03 1.0E-02 1.5E-02PRES [PA]-50000.    0.0 50000.1.0E+051.5E+052.0E+052.5E+053.0E+053.5E+054.0E+054.5E+055.0E+051111EUROPLEXUS13 MAY       2023 DRAWING  1PLOTPRES-1- P77_10E                                           -2- P77_15E                                                                      -3- P77_25E-4- P77_35E                TIME [S]-5.0E-03     0.0 5.0E-03 1.0E-02 1.5E-02PRES [PA]-5.0E+05     0.0 5.0E+05 1.0E+06 1.5E+0611223334444Friday 8th September, 2023 @ 14:00

5 Lagrangian simulations

By using the 10 bar Eulerian pressure signal obtained in Section 4, we are now able to run the 10 bar
nominal Lagrangian simulations (for the two materials considered in this study, i.e. tests D6 S2 10
and D14 S2 10) and thus to complete the Lagrangian test matrix that was introduced in Section 2
(see Table 1).

The complete test matrix is detailed in Table 11. The output disk space includes both ALIC and

PVTK results ﬁles.

Test

Material

p∗ Contact

D6 S2 10 Docol-600DL
D6 S2 15 Docol-600DL
D6 S2 25 Docol-600DL
D6 S2 35 Docol-600DL
D14 S2 10 Docol-600DL
D14 S2 15 Docol-1400M
D14 S2 25 Docol-1400M
D14 S2 35 Docol-1400M

[bar]
10
15
25
35
10
15
25
35

PINB
PINB
PINB
PINB
PINB
PINB
PINB
PINB

tﬁn
[ms]
5.0
5.0
5.0
5.0
5.0
5.0
5.0
5.0

Steps

170 745
130 760
131 335
151 677
142 561
110 787
128 781
133 246

CPU Eroded RAM Storage
[GB]
10.5
10.5
10.6
10.9
10.3
10.4
10.5
10.5

[GB]
1.4
1.4
1.4
1.4
1.4
1.4
1.4
1.4

[s]
61 792
52 558
52 558
156 698
35 621
41 447
67 450
63 404

22
60
320
617
12
609
1 124
1 102

Table 11: Complete set of Lagrangian simulations of the S2 plate.

5.1 Case D6 S2 10

The simulation runs correctly until the ﬁnal time.

5.2 Case D14 S2 10

The simulation runs correctly until the ﬁnal time.

Figure 69 shows the ﬁnal plate fracturing (mapped on the initial geometry) for all the Lagrangian

simulations.

(a) Docol-600DL @ 10 bar

(b) Docol-600DL @ 15 bar

(c) Docol-600DL @ 25 bar

(d) Docol-600DL @ 35 bar

(e) Docol-1400M @ 10 bar

(f) Docol-1400M @ 15 bar

(g) Docol-1400M @ 25 bar

(h) Docol-1400M @ 35 bar

Figure 69: Final damage in the Lagrangian S2 plate (mapped on the initial geometry).

71

Friday 8th September, 2023 @ 14:00

The following Figures 70 and 71 show, for each case separately, the (symmetrized) plate mesh
without element outlines at various times (by using diﬀerent time values, as appropriate for each
case), seen from three diﬀerent eye positions (right, front, left), in order to highlight the opening
of the slits. The right and left views show the deformed plate, while the central view shows the
undeformed plate, in order to follow the formation and progression of the cracks.

(a) t = 3.0 ms

(b) Undeformed, t = 3.0 ms

(c) t = 3.0 ms

(d) t = 4.0 ms

(e) Undeformed, t = 4.0 ms

(f) t = 4.0 ms

(g) t = 5.0 ms

(h) Undeformed, t = 5.0 ms

(i) t = 5.0 ms

Figure 70: Geometry of the S2 plate at various times in case D6 S2 10.

72

Friday 8th September, 2023 @ 14:00

(a) t = 3.0 ms

(b) Undeformed, t = 3.0 ms

(c) t = 3.0 ms

(d) t = 4.0 ms

(e) Undeformed, t = 4.0 ms

(f) t = 4.0 ms

(g) t = 5.0 ms

(h) Undeformed, t = 5.0 ms

(i) t = 5.0 ms

Figure 71: Geometry of the S2 plate at various times in case D14 S2 10.

73

Friday 8th September, 2023 @ 14:00

Finally, Figure 72 summarizes and compares among them all the main results of the Lagrangian
calculations performed so far. For each case, the ﬁnal (at t = 5.0 ms) plate damage (cracks) in both
the initial (un-deformed) and the deformed geometry is shown.

(a) Docol-600DL @ 10 bar

(b) Docol-600DL @ 15 bar

(c) Docol-600DL @ 25 bar

(d) Docol-600DL @ 35 bar

(e) Docol-600DL @ 10 bar

(f) Docol-600DL @ 15 bar

(g) Docol-600DL @ 25 bar

(h) Docol-600DL @ 35 bar

(i) Docol-1400M @ 10 bar

(j) Docol-1400M @ 15 bar

(k) Docol-1400M @ 25 bar

(l) Docol-1400M @ 35 bar

(m) Docol-1400M @ 10 bar

(n) Docol-1400M @ 15 bar

(o) Docol-1400M @ 25 bar

(p) Docol-1400M @ 35 bar

Figure 72: Final damage in the Lagrangian S2 plate, on the initial and on the deformed geometry.

74

Friday 8th September, 2023 @ 14:00

6 FSI (coupled) preliminary simulations

This Section presents some preliminary FSI (coupled) simulations of the S2 plates. The simulations
performed are summarized in Table 12 and are described in detail below.

Test

Description

D6 S2 35 FG
D6 S2 35 FP
D6 S2 35 FG2
D6 S2 35 FG C
D6 S2 35 FP C

FSI simulation
Idem but with PINB
GLIS ADAP SYME
FG + TFAI 1.143E-08
FP + TFAI 1.143E-08
D6 S2 35 FG2 C FG2 + TFAI 1.143E-08
FG + CSVF 0.571

D6 S2 35 FG CSVF

[bar]

p∗ Cont.

tﬁn
[ms]
35 GLIS
32.0
35 PINB 32.0
35 GLIS
32.0
32.0
35 GLIS
35 PINB 32.0
32.0
35 GLIS
32.0
35 GLIS

Steps

83 207
83 106
83 021
153 726
153 829
155 657
73 871

CPU Ero. RAM Sto.
[GB]
5.7
5.9
5.7
5.9
6.0
5.8
5.7

[GB]
5.2
5.3
5.2
5.2
5.3
5.2
5.2

[s]
217 487
223 180
224 298
417 774
451 618
455 530
206 380

1061
1500
1058
228
222
222
203

Table 12: FSI (coupled) preliminary simulations of the S2 plates.

All these FSI simulations used the ST MAP3 35.map map ﬁle from the NTNU DataBase [15],
that had been generated at a physical time tmap = 27.0 ms on 21/02/2021. So all these simulations
start at 27.0 ms. The mesh of the S2 plate, with 4 X-shaped slits, and of the clamping system (of
which only 1/4 is included in the model, thanks to symmetry) was generated by running Cast3m on
the input ﬁle S2.dgibi, producing S2.msh, see Figure 73.

(a) Plate

(b) Plate assembly

Figure 73: Mesh of the S2 plate and clamping system.

Next, the full FSI model, including also the shock tube (but without the membranes) was obtained
by running Cast3m on the input ﬁle S2 FSI.dgibi, which reads back S2.msh and produces S2 FSI.msh
by embedding the structural assembly into the ﬂuid mesh, see Figure 74.

(a) Tank

(b) Complete FSI model

Figure 74: Mesh of the FSI model with embedded S2 plate and clamping system.

75

Friday 8th September, 2023 @ 14:00

6.1 Case D6 S2 35 FG

This simulation used the GLIS directive to model the contact (with friction) between the plate and
the clamping system. In this model (and in the two following ones) the same value of TFAI (tfail =
2.0×10−8 s) was tentatively used as in the Lagrangian (uncoupled) simulations presented in Section 2.
Recall that TFAI is used in order to get rid of (erode) plate elements that might become too distorted
in the deformation process without arriving at complete material failure, thereby possibly penalizing
the overall stability step of the simulation.

However, after running the test it was noted that, on a total of 1061 eroded elements, only 213
were removed due to material failure, while as many as 848 were eroded due to TFAI, i.e. for having
reached a too small stability step. By comparison, in the Lagrangian simulation D6 S2 35 of Section 2,
which used exactly the same mesh for the plate, only one element had been eroded due to TFAI.

After some investigation, the reason for this evident discrepancy was determined. The two calcula-
s = 0.7 in the Lagrangian
= 0.4 in the FSI (ALE) case. The smaller value used in the second case is due to the

tions used diﬀerent values of the safety stability coeﬃcient CSTA, namely CLag
case and CALE
fact that the ﬂuid is present and the CCFV require smaller stability coeﬃcients, especially in 3D.

s

The problem observed comes from the fact that EPX uses the same Cs for all elements (both
structure and ﬂuid). Therefore, in order to reproduce the same conditions as in the Lagrangian case,
one should in the FSI case use:

fail = tLag
tALE
fail ·

CALE
s
CLag
s

= 2.0 × 10−8 ·

0.4
0.7

= 1.143 × 10−8 s

(1)

So this simulation and the two following ones are probably incorrect since the plate failure is
over-estimated, and will have to be repeated. Nevertheless, some results are presented below. A more
appropriate solution of this problem will require a small development in EPX, e.g.
introducing a
separate (or an additional) stability safety coeﬃcient for the CCFV, in order to avoid having to resort
to relatively obscure calculations such as eq. (1).

76

Friday 8th September, 2023 @ 14:00

Figure 75 shows the (symmetrized) ﬂuid pressure in the test region at various times.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 75: Fluid pressure in the test region in simulation D6 S2 35 FG.

77

Friday 8th September, 2023 @ 14:00

Figure 76 shows the (symmetrized) mesh in the test region at various times.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 76: Mesh in the test region in simulation D6 S2 35 FG.

78

Friday 8th September, 2023 @ 14:00

Figure 77 shows the (symmetrized) plate mesh at various times. The element outlines are included,
in order to appreciate the adaptive mesh reﬁnement taking place in the plate.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 77: Plate mesh in simulation D6 S2 35 FG.

79

Friday 8th September, 2023 @ 14:00

Figure 78 shows the (symmetrized) plate mesh without element outlines at various times. The ge-
ometry is mapped onto the initial conﬁguration, by using the DEFO AMPD 0.0 keywords. The ADAP
keyword of the TRAC directive is used to allow for correct visualization of free edges and sharp corners.
This allows to appreciate the progressive growth of the cracks.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 78: Undeformed plate mesh (without element outlines) in simulation D6 S2 35 FG.

Most damage in the plate occurs between 30.0 and 30.5 ms. The central part of the plate is teared
oﬀ and ﬂies away. X-shaped cracks continue to grow thereafter in the exposed part of the plate still
attached to the clamping system.

80

Friday 8th September, 2023 @ 14:00

6.2 Case D6 S2 35 FP

This simulation was similar to D6 S2 35 FG but used the PINB directive to model the contact (with
friction) between the plate and the clamping system.

Figure 79 shows the (symmetrized) ﬂuid pressure in the test region at various times.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 79: Fluid pressure in the test region in simulation D6 S2 35 FP.

81

Friday 8th September, 2023 @ 14:00

Figure 80 shows the (symmetrized) mesh in the test region at various times.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 80: Mesh in the test region in simulation D6 S2 35 FP.

82

Friday 8th September, 2023 @ 14:00

Figure 81 shows the (symmetrized) plate mesh at various times. The element outlines are included,
in order to appreciate the adaptive mesh reﬁnement taking place in the plate.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 81: Plate mesh in simulation D6 S2 35 FP.

83

Friday 8th September, 2023 @ 14:00

Figure 82 shows the (symmetrized) plate mesh without element outlines at various times. The ge-
ometry is mapped onto the initial conﬁguration, by using the DEFO AMPD 0.0 keywords. The ADAP
keyword of the TRAC directive is used to allow for correct visualization of free edges and sharp corners.
This allows to appreciate the progressive growth of the cracks.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 82: Undeformed plate mesh (without element outlines) in simulation D6 S2 35 FP.

84

Friday 8th September, 2023 @ 14:00

6.3 Case D6 S2 35 FG2

This was a repetition of test D6 S2 35 FG by adding the GLIS ADAP SYME option.

According to [1], the ADAP keyword combines sliding surfaces (GLIS) with adaptivity. This means
that the sliding surfaces data structure is updated whenever the mesh is adaptively reﬁned or un-
reﬁned. The SYME keyword combines sliding surfaces (GLIS) with symmetries. This is currently
implemented only in the coupled version of the links (LINK COUP). The combination should prevent the
appearance of unsymmetric contact forces (which could break the symmetry of the model), especially
in case of friction.

Figure 83 shows the (symmetrized) ﬂuid pressure in the test region at various times.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 83: Fluid pressure in the test region in simulation D6 S2 35 FG2.

85

Friday 8th September, 2023 @ 14:00

Figure 84 shows the (symmetrized) mesh in the test region at various times.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 84: Mesh in the test region in simulation D6 S2 35 FG2.

86

Friday 8th September, 2023 @ 14:00

Figure 85 shows the (symmetrized) plate mesh at various times. The element outlines are included,
in order to appreciate the adaptive mesh reﬁnement taking place in the plate.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 85: Plate mesh in simulation D6 S2 35 FG2.

87

Friday 8th September, 2023 @ 14:00

Figure 86 shows the (symmetrized) plate mesh without element outlines at various times. The ge-
ometry is mapped onto the initial conﬁguration, by using the DEFO AMPD 0.0 keywords. The ADAP
keyword of the TRAC directive is used to allow for correct visualization of free edges and sharp corners.
This allows to appreciate the progressive growth of the cracks.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 86: Undeformed plate mesh (without element outlines) in simulation D6 S2 35 FG2.

88

Friday 8th September, 2023 @ 14:00

6.4 Case D6 S2 35 FG C

This is a repetition of case D6 S2 35 FG by correcting the value of tfail according to eq. (1), i.e. by
setting TFAI 1.143E-8.

Upon ﬁrst run, this simulation had to be stopped due to physical displacement of the EVICOM
PC on which it was running, when it had reached about 31.1 ms instead of the planned 32.0 ms. So
it had to be re-run to complete the simulation. Some results are shown below.

Figure 87 shows the (symmetrized) ﬂuid pressure in the test region at various times.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 87: Fluid pressure in the test region in simulation D6 S2 35 FG C.

89

Friday 8th September, 2023 @ 14:00

Figure 88 shows the (symmetrized) mesh in the test region at various times.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 88: Mesh in the test region in simulation D6 S2 35 FG C.

90

Friday 8th September, 2023 @ 14:00

Figure 89 shows the (symmetrized) plate mesh at various times. The element outlines are included,
in order to appreciate the adaptive mesh reﬁnement taking place in the plate.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 89: Plate mesh in simulation D6 S2 35 FG C.

91

Friday 8th September, 2023 @ 14:00

Figure 90 shows the (symmetrized) plate mesh without element outlines at various times. The ge-
ometry is mapped onto the initial conﬁguration, by using the DEFO AMPD 0.0 keywords. The ADAP
keyword of the TRAC directive is used to allow for correct visualization of free edges and sharp corners.
This allows to appreciate the progressive growth of the cracks.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 90: Undeformed plate mesh (without element outlines) in simulation D6 S2 35 FG C.

92

Friday 8th September, 2023 @ 14:00

6.5 Case D6 S2 35 FP C

This is a repetition of case D6 S2 35 FP by correcting the value of tfail according to eq. (1), i.e. by
setting TFAI 1.143E-8.

Upon ﬁrst run, this simulation had to be stopped due to physical displacement of the EVICOM
PC on which it was running, when it had reached about 31.1 ms instead of the planned 32.0 ms. So
it had to be re-run to complete the simulation. Some results are shown below.

Figure 91 shows the (symmetrized) ﬂuid pressure in the test region at various times.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 91: Fluid pressure in the test region in simulation D6 S2 35 FP C.

93

Friday 8th September, 2023 @ 14:00

Figure 92 shows the (symmetrized) mesh in the test region at various times.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 92: Mesh in the test region in simulation D6 S2 35 FP C.

94

Friday 8th September, 2023 @ 14:00

Figure 93 shows the (symmetrized) plate mesh at various times. The element outlines are included,
in order to appreciate the adaptive mesh reﬁnement taking place in the plate.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 93: Plate mesh in simulation D6 S2 35 FP C.

95

Friday 8th September, 2023 @ 14:00

Figure 94 shows the (symmetrized) plate mesh without element outlines at various times. The ge-
ometry is mapped onto the initial conﬁguration, by using the DEFO AMPD 0.0 keywords. The ADAP
keyword of the TRAC directive is used to allow for correct visualization of free edges and sharp corners.
This allows to appreciate the progressive growth of the cracks.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 94: Undeformed plate mesh (without element outlines) in simulation D6 S2 35 FP C.

96

Friday 8th September, 2023 @ 14:00

6.6 Case D6 S2 35 FG2 C

This is a repetition of case D6 S2 35 FG2 by correcting the value of tfail according to eq. (1), i.e. by
setting TFAI 1.143E-8.

Upon ﬁrst run, this simulation had to be stopped due to physical displacement of the EVICOM
PC on which it was running, when it had reached about 31.1 ms instead of the planned 32.0 ms. So
it had to be re-run to complete the simulation. Some results are shown below.

Figure 95 shows the (symmetrized) ﬂuid pressure in the test region at various times.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 95: Fluid pressure in the test region in simulation D6 S2 35 FG2 C.

97

Friday 8th September, 2023 @ 14:00

Figure 96 shows the (symmetrized) mesh in the test region at various times.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 96: Mesh in the test region in simulation D6 S2 35 FG2 C.

98

Friday 8th September, 2023 @ 14:00

Figure 97 shows the (symmetrized) plate mesh at various times. The element outlines are included,
in order to appreciate the adaptive mesh reﬁnement taking place in the plate.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 97: Plate mesh in simulation D6 S2 35 FG2 C.

99

Friday 8th September, 2023 @ 14:00

Figure 98 shows the (symmetrized) plate mesh without element outlines at various times. The ge-
ometry is mapped onto the initial conﬁguration, by using the DEFO AMPD 0.0 keywords. The ADAP
keyword of the TRAC directive is used to allow for correct visualization of free edges and sharp corners.
This allows to appreciate the progressive growth of the cracks.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 98: Undeformed plate mesh (without element outlines) in simulation D6 S2 35 FG2 C.

100

Friday 8th September, 2023 @ 14:00

6.7 Additional stability safety coeﬃcient (CSVF) for the CCFV

Following the observations raised in Section 6.1 when dealing with case D6 S2 35 FG, we introduce an
additional stability safety coeﬃcient CVF
(new option OPTI CSVF csvf) for the Cell-Centered Finite
Volumes (CCFV). In an FSI simulation, where both the structure (FE) and the ﬂuid (CCFV) are
present, this should allow to compute each type of element with a ∆t closer to its actual stability
limit, while at the same time (hopefully) saving some CPU in the overall calculation.

s

To illustrate this, consider for example the FSI (ALE) case D6 S2 35 FC of Section 6.1. The
model is 3D and, to be on the safe side, the CCFV ﬂuid requires a stability safety coeﬃcient Cs of
0.4. In fact, theoretically one should use 1/D, where D is the space dimension, so Cs = 0.33 in 3D.
However, the corresponding Lagrangian (structure only) calculation D6 S2 35 presented in Section 2
used a much larger safety factor Cs = 0.7, without showing any sign of instability.

Furthermore, in the plate simulations considered in the present report, the critical part of the
model is the structure since, on one hand, the sound speed in the metal is typically higher than in
the ﬂuid (air) and, on the other hand, the mesh size in the structure hS (after adaptive reﬁnement)
is smaller than that in the ﬂuid hF (also after adaptive reﬁnement).

Actually, the latter condition (hs < hF ) is the opposite to the one recommended to achieve
optimal accuracy in FSI calculations using embedded methods such as the FLSW algorithm used
here. However, the reason for reﬁning the structure so much is that we want to faithfully capture the
formation and propagation of cracks in the plate. Reﬁning also the ﬂuid accordingly would lead to a
much higher number of ﬂuid elements, since the ﬂuid is a 3D volume and not a 3D surface, and this
could unacceptably penalize the CPU cost of the simulation.

Prior to the present development, in EPX the stability step of an element was the critical step
∆tcrit estimated by the code (roughly the element length L divided by the speed of sound c in the
element material) multiplied by the safety coeﬃcient Cs (CSTA, by default 0.8):

∆tstab = Cs∆tcrit ≈ Cs

L
c

(2)

The same equation applied to all elements, i.e. to both FE and CCFV.

We now introduce an additional safety coeﬃcient CVF

s

, which can be prescribed by the option:

OPTI CSVF csvf

By default, the code assumes CVF
s = 1.0, so that results of older models should not be aﬀected. For a
Cell-Centered Finite Volume, the value of the stability step obtained by eq. (2) is further multiplied
by CVF

, obtaining:

s

∆tFE

stab = Cs∆tcrit ≈ Cs

L
c

for a FE

∆tVF

stab = CVF

s Cs∆tcrit ≈ CVF

s Cs

L
c

for a CCFV

(3)

Thus, instead of correcting the test D6 S2 35 FG of Section 6.1 by reducing the failure time step
tfail according to eq. (1) as done in case D6 S2 35 FG C of Section 6.4, one can more simply proceed
as follows:

(cid:136) Set the global safety coeﬃcient to the same value as that used in the Lagrangian failure time

step tfail simulation, i.e. Cs = 0.7 (OPTI CSTA 0.7).

(cid:136) Set the additional safety coeﬃcient in such a way that a ﬁnal value of 0.4 is obtained for the

ﬂuid part of the model, i.e. CVF

s = 0.4/0.7 = 0.571.

(cid:136) Set the failure time step to the same value used in the Lagrangian (structure only) simulation,
tfail = 2.0 × 10−8 s. Since the ﬂuid part of the model is not erodible, the value of tfail has no
eﬀect on it.

Thus, the only modiﬁcation in order to pass from a Lagrangian to a FSI simulation is the added
, in such a way that the desired overall safety coeﬃcient (0.4 in this example) is obtained

setting of CVF
for the ﬂuid part of the model.

s

101

Friday 8th September, 2023 @ 14:00

6.8 Case D6 S2 35 FG CSVF
This is a repetition of case D6 S2 35 FG of Section 6.1 by using the new option OPTI CSVF as explained
in Section 6.7. The relevant parts of the input ﬁle read:

D6_S2_35_FG_CSVF

. . .

OPTI NOTE CSTA 0.7 CSVF 0.571 ! (so that CSTA*CSVF=0.4 for the VFCC)

. . .

CALC TINI 0 TEND 32.0E-3 TFAI 2.0E-8
FIN

This solution was considerably faster than the other “corrected” solutions, using just about half

the number of steps and half the CPU time. Some results are shown below.

Figure 99 shows the (symmetrized) ﬂuid pressure in the test region at various times.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 99: Fluid pressure in the test region in simulation D6 S2 35 FG CSVF.

102

Friday 8th September, 2023 @ 14:00

Figure 100 shows the (symmetrized) mesh in the test region at various times.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 100: Mesh in the test region in simulation D6 S2 35 FG CSVF.

103

Friday 8th September, 2023 @ 14:00

Figure 101 shows the (symmetrized) plate mesh at various times. The element outlines are included,
in order to appreciate the adaptive mesh reﬁnement taking place in the plate.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 101: Plate mesh in simulation D6 S2 35 FG CSVF.

104

Friday 8th September, 2023 @ 14:00

Figure 102 shows the (symmetrized) plate mesh without element outlines at various times. The
geometry is mapped onto the initial conﬁguration, by using the DEFO AMPD 0.0 keywords. The ADAP
keyword of the TRAC directive is used to allow for correct visualization of free edges and sharp corners.
This allows to appreciate the progressive growth of the cracks.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 102: Undeformed plate mesh (without element outlines) in simulation D6 S2 35 FG2 CSVF.

105

Friday 8th September, 2023 @ 14:00

6.9 Comparison of FSI simulations

In this Section we compare the 35-bar FSI solutions obtained so far. Only the four “corrected” cases are
considered, namely cases D6 S2 35 FG C, D6 S2 35 FG P, D6 S2 35 FG2 C and D6 S2 35 FG CSVF
from Table 12.

Figure 103 compares the (symmetrized) ﬂuid pressures in the test region at t = 32.0 ms.

(a) Case D6 S2 35 FG C

(b) Case D6 S2 35 FP C

(c) Case D6 S2 35 FG2 C

(d) Case D6 S2 35 FG CSVF

Figure 103: Final ﬂuid pressures in the test region in preliminary FSI simulations at 35 bar.

106

Friday 8th September, 2023 @ 14:00

Figure 104 compares the (symmetrized) meshes in the test region at t = 32.0 ms.

(a) Case D6 S2 35 FG C

(b) Case D6 S2 35 FP C

(c) Case D6 S2 35 FG2 C

(d) Case D6 S2 35 FG CSVF

Figure 104: Final meshes in the test region in preliminary FSI simulations at 35 bar.

107

Friday 8th September, 2023 @ 14:00

Figure 105 compares the (symmetrized) plate meshes at t = 32.0 ms. The element outlines are
included, in order to appreciate the adaptive mesh reﬁnement taking place in the plate.

(a) Case D6 S2 35 FG C

(b) Case D6 S2 35 FP C

(c) Case D6 S2 35 FG2 C

(d) Case D6 S2 35 FG CSVF

Figure 105: Final plate meshes in preliminary FSI simulations at 35 bar.

108

Friday 8th September, 2023 @ 14:00

Figure 106 shows the (symmetrized) plate mesh without element outlines at various times. The
geometry is mapped onto the initial conﬁguration, by using the DEFO AMPD 0.0 keywords. The ADAP
keyword of the TRAC directive is used to allow for correct visualization of free edges and sharp corners.
This allows to appreciate the progressive growth of the cracks.

The Lagrangian solution of case D6 S2 35 from Section 2 is also included as the last one in the

Figure, in order to allow direct comparison with the FSI solutions.

(a) Case D6 S2 35 FG C

(b) Case D6 S2 35 FP C

(c) Case D6 S2 35 FG2 C

(d) Case D6 S2 35 FG CSVF

(e) Case D6 S2 35 (Lagrangian)

Figure 106: Final undeformed plate meshes in preliminary FSI simulations at 35 bar.

From the above Figures, one might conclude that the ﬁrst three FSI solutions look very similar,
indicating that the choice of the contact model (either GLIS or PINB) does not play a big role in this
application. Also, the use of additional ADAP keyword in the GLIS model seems to have little inﬂuence
here.

109

Friday 8th September, 2023 @ 14:00

The last FSI solution, using CSFV, shows some diﬀerences with respect to the other three (especially
in the form of the radial cracks which are less straight), but it remains very similar and might even
be considered equivalent from an engineering viewpoint. Altogether, the diﬀerences observed are
reasonable, considering that this solution was twice faster than the previous ones.

The Lagrangian solution is similar to the FSI solutions as far as the general shape and orientation
of the cracks is concerned, but the cracks are slightly more pronounced, especially towards the center
of the plate, showing additional crack bifurcations not present in the FSI solutions.

110

Friday 8th September, 2023 @ 14:00

7 FSI simulations

This Section presents a set of FSI simulations with each of the nominal ﬁring pressures of interset
for the S2 plate, namely 10, 15 and 25 bar. Simulations at 35 bar are also included, although no
experiment was conducted on the S2 plate at that ﬁring pressure. All tests use the PINB model for
the contact between the plate and the mounting frames.

The simulations performed are summarized in Table 13 and are described in detail below.

Test

p∗
[bar]

Map ﬁle

Date

D6 S2 10 FP
D6 S2 15 FP
D6 S2 25 FP
D6 S2 35 FPN
D14 S2 10 FP
D14 S2 15 FP
D14 S2 25 FP
D14 S2 35 FPN
∗Map trigger

10 D7710600mape 01.map
D7715600map.map
15
D7725600map.map
25
35
D7735600map.map
10 D7710600mape 01.map
D7715600map.map
15
D7725600map.map
25
D7735600map.map
35

01/05/23
03/03/21
03/03/21
15/03/21
01/05/23
03/03/21
03/03/21
15/03/21

tmap
[ms]
32.2∗
29.0
28.0
27.0
32.2∗
29.0
28.0
27.0

tﬁn
[ms]
38.2
36.0
34.0
32.0
38.2
36.0
34.0
32.0

Steps

278 122
202 006
180 679
155 040
252 736
166 856
154 131
119 550

CPU
[s]
603 259
480 804
479 251
488 320
430 743
330 494
341 940
270 415

Ero. RAM Sto.
[GB]
[GB]
6.9
4.9
7.8
5.0
6.8
5.1
5.9
5.3
6.9
4.9
7.8
4.9
6.8
5.0
5.8
5.0

7
20
61
222
4
490
677
1 099

Table 13: FSI (coupled) simulations of the S2 plates.

111

Friday 8th September, 2023 @ 14:00

7.1 Case D6 S2 10 FP

This test is an FSI simulation at a nominal ﬁring pressure of 10 bar. The model is derived from that of
case D6 S2 35 FP C presented in the previous Section, but uses the 10-bar map ﬁle D7710600mape 01.-
map obtained in Section 3.9, generated at tmap = 32.2 ms on 01/05/2023. The plate material is
Docol-600DL. Some results are shown below.

Figure 107 shows the (symmetrized) ﬂuid pressure in the test region at various times.

(a) t = 33.2 ms

(b) t = 33.7 ms

(c) t = 34.2 ms

(d) t = 34.7 ms

(e) t = 35.2 ms

(f) t = 35.7 ms

(g) t = 36.2 ms

(h) t = 37.2 ms

(i) t = 38.2 ms

Figure 107: Fluid pressure in the test region in simulation D14 S2 10 FP.

112

Friday 8th September, 2023 @ 14:00

Figure 108 shows the (symmetrized) mesh in the test region at various times.

(a) t = 33.2 ms

(b) t = 33.7 ms

(c) t = 34.2 ms

(d) t = 34.7 ms

(e) t = 35.2 ms

(f) t = 35.7 ms

(g) t = 36.2 ms

(h) t = 37.2 ms

(i) t = 38.2 ms

Figure 108: Mesh in the test region in simulation D6 S2 10 FP.

113

Friday 8th September, 2023 @ 14:00

Figure 109 shows the (symmetrized) plate mesh at various times. The element outlines are included,
in order to appreciate the adaptive mesh reﬁnement taking place in the plate.

(a) t = 33.2 ms

(b) t = 33.7 ms

(c) t = 34.2 ms

(d) t = 34.7 ms

(e) t = 35.2 ms

(f) t = 35.7 ms

(g) t = 36.2 ms

(h) t = 37.2 ms

(i) t = 38.2 ms

Figure 109: Plate mesh in simulation D6 S2 10 FP.

114

Friday 8th September, 2023 @ 14:00

Figure 110 shows the (symmetrized) plate mesh without element outlines at various times. The
geometry is mapped onto the initial conﬁguration, by using the DEFO AMPD 0.0 keywords. The ADAP
keyword of the TRAC directive is used to allow for correct visualization of free edges and sharp corners.
This allows to appreciate the progressive growth of the cracks.

(a) t = 33.2 ms

(b) t = 33.7 ms

(c) t = 34.2 ms

(d) t = 34.7 ms

(e) t = 35.2 ms

(f) t = 35.7 ms

(g) t = 36.2 ms

(h) t = 37.2 ms

(i) t = 38.2 ms

Figure 110: Undeformed plate mesh (without element outlines) in simulation D6 S2 10 FP.

115

Friday 8th September, 2023 @ 14:00

Figure 111 shows the (symmetrized) plate mesh without element outlines at various times, from three
diﬀerent eye positions (right, front, left), in order to highlight the opening of the slits. The right and
left views show the deformed plate, while the central view shows the undeformed plate, like in the
previous Figure, in order to highlight the cracks.

(a) t = 36.2 ms

(b) Undeformed, t = 36.2 ms

(c) t = 36.2 ms

(d) t = 372. ms

(e) Undeformed, t = 37.2 ms

(f) t = 37.2 ms

(g) t = 38.2 ms

(h) Undeformed, t = 38.2 ms

(i) t = 38.2 ms

Figure 111: Plate mesh (without element outlines) in simulation D6 S2 10 FP.

116

Friday 8th September, 2023 @ 14:00

7.2 Case D6 S2 15 FP

This test is similar to case D6 S2 10 FP but uses the 15-bar map ﬁle from 2021, D7715600map.map
from the NTNU DataBase [15], that had been generated at a physical time of tmap = 29.0 ms on
03/03/2021. Some results are shown below.

Figure 112 shows the (symmetrized) ﬂuid pressure in the test region at various times.

(a) t = 32.5 ms

(b) t = 33.0 ms

(c) t = 33.5 ms

(d) t = 34.0 ms

(e) t = 34.5 ms

(f) t = 35.0 ms

(g) t = 35.5 ms

(h) t = 36.0 ms

Figure 112: Fluid pressure in the test region in simulation D6 S2 15 FP.

117

Friday 8th September, 2023 @ 14:00

Figure 113 shows the (symmetrized) mesh in the test region at various times.

(a) t = 32.5 ms

(b) t = 33.0 ms

(c) t = 33.5 ms

(d) t = 34.0 ms

(e) t = 34.5 ms

(f) t = 35.0 ms

(g) t = 35.5 ms

(h) t = 36.0 ms

Figure 113: Mesh in the test region in simulation D6 S2 15 FP.

118

Friday 8th September, 2023 @ 14:00

Figure 114 shows the (symmetrized) plate mesh at various times. The element outlines are included,
in order to appreciate the adaptive mesh reﬁnement taking place in the plate.

(a) t = 32.5 ms

(b) t = 33.0 ms

(c) t = 33.5 ms

(d) t = 34.0 ms

(e) t = 34.5 ms

(f) t = 35.0 ms

(g) t = 35.5 ms

(h) t = 36.0 ms

Figure 114: Plate mesh in simulation D6 S2 15 FP.

119

Friday 8th September, 2023 @ 14:00

Figure 115 shows the (symmetrized) plate mesh without element outlines at various times. The
geometry is mapped onto the initial conﬁguration, by using the DEFO AMPD 0.0 keywords. The ADAP
keyword of the TRAC directive is used to allow for correct visualization of free edges and sharp corners.
This allows to appreciate the progressive growth of the cracks.

(a) t = 32.5 ms

(b) t = 33.0 ms

(c) t = 33.5 ms

(d) t = 34.0 ms

(e) t = 34.5 ms

(f) t = 35.0 ms

(g) t = 35.5 ms

(h) t = 36.0 ms

Figure 115: Undeformed plate mesh (without element outlines) in simulation D6 S2 15 FP.

120

Friday 8th September, 2023 @ 14:00

Figure 116 shows the (symmetrized) plate mesh without element outlines at various times, from three
diﬀerent eye positions (right, front, left), in order to highlight the opening of the slits. The right and
left views show the deformed plate, while the central view shows the undeformed plate, like in the
previous Figure, in order to highlight the cracks.

(a) t = 34.0 ms

(b) Undeformed, t = 34.0 ms

(c) t = 34.0 ms

(d) t = 35.0 ms

(e) Undeformed, t = 35.0 ms

(f) t = 35.0 ms

(g) t = 36.0 ms

(h) Undeformed, t = 36.0 ms

(i) t = 36.0 ms

Figure 116: Plate mesh (without element outlines) in simulation D6 S2 15 FP.

121

Friday 8th September, 2023 @ 14:00

7.3 Case D6 S2 25 FP

This test is similar to case D6 S2 10 FP but uses the 25-bar map ﬁle from 2021, D7725600map.map
from the NTNU DataBase [15], that had been generated at a physical time of tmap = 28.0 ms on
03/03/2021. Some results are shown below.

Figure 117 shows the (symmetrized) ﬂuid pressure in the test region at various times.

(a) t = 30.5 ms

(b) t = 31.0 ms

(c) t = 31.5 ms

(d) t = 32.0 ms

(e) t = 32.5 ms

(f) t = 33.0 ms

(g) t = 33.5 ms

(h) t = 34.0 ms

Figure 117: Fluid pressure in the test region in simulation D6 S2 25 FP.

122

Friday 8th September, 2023 @ 14:00

Figure 118 shows the (symmetrized) mesh in the test region at various times.

(a) t = 30.5 ms

(b) t = 31.0 ms

(c) t = 31.5 ms

(d) t = 32.0 ms

(e) t = 32.5 ms

(f) t = 33.0 ms

(g) t = 33.5 ms

(h) t = 34.0 ms

Figure 118: Mesh in the test region in simulation D6 S2 25 FP.

123

Friday 8th September, 2023 @ 14:00

Figure 119 shows the (symmetrized) plate mesh at various times. The element outlines are included,
in order to appreciate the adaptive mesh reﬁnement taking place in the plate.

(a) t = 30.5 ms

(b) t = 31.0 ms

(c) t = 31.5 ms

(d) t = 32.0 ms

(e) t = 32.5 ms

(f) t = 33.0 ms

(g) t = 33.5 ms

(h) t = 34.0 ms

Figure 119: Plate mesh in simulation D6 S2 25 FP.

124

Friday 8th September, 2023 @ 14:00

Figure 120 shows the (symmetrized) plate mesh without element outlines at various times. The
geometry is mapped onto the initial conﬁguration, by using the DEFO AMPD 0.0 keywords. The ADAP
keyword of the TRAC directive is used to allow for correct visualization of free edges and sharp corners.
This allows to appreciate the progressive growth of the cracks.

(a) t = 30.5 ms

(b) t = 31.0 ms

(c) t = 31.5 ms

(d) t = 32.0 ms

(e) t = 32.5 ms

(f) t = 33.0 ms

(g) t = 33.5 ms

(h) t = 34.0 ms

Figure 120: Undeformed plate mesh (without element outlines) in simulation D6 S2 25 FP.

125

Friday 8th September, 2023 @ 14:00

Figure 121 shows the (symmetrized) plate mesh without element outlines at various times, from three
diﬀerent eye positions (right, front, left), in order to highlight the opening of the slits. The right and
left views show the deformed plate, while the central view shows the undeformed plate, like in the
previous Figure, in order to highlight the cracks.

(a) t = 31.5 ms

(b) Undeformed, t = 31.5 ms

(c) t = 31.5 ms

(d) t = 32.5 ms

(e) Undeformed, t = 32.5 ms

(f) t = 32.5 ms

(g) t = 33.5 ms

(h) Undeformed, t = 33.5 ms

(i) t = 33.5 ms

Figure 121: Plate mesh (without element outlines) in simulation D6 S2 25 FP.

126

Friday 8th September, 2023 @ 14:00

7.4 Case D6 S2 35 FPN

This test is similar to case D6 S2 10 FP and to preliminary FSI case D6 S2 35 FP C presented in
Section 6.5 but uses the 2021 map ﬁle D7735600map.map, instead of ST MAP3 35.map (also from
2021), for uniformity with the 15 bar and 25 bar cases. Some results are shown below.

Figure 122 shows the (symmetrized) ﬂuid pressure in the test region at various times.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 122: Fluid pressure in the test region in simulation D6 S2 35 FPN.

127

Friday 8th September, 2023 @ 14:00

Figure 123 shows the (symmetrized) mesh in the test region at various times.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 123: Mesh in the test region in simulation D6 S2 35 FPN.

128

Friday 8th September, 2023 @ 14:00

Figure 124 shows the (symmetrized) plate mesh at various times. The element outlines are included,
in order to appreciate the adaptive mesh reﬁnement taking place in the plate.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 124: Plate mesh in simulation D6 S2 35 FPN.

129

Friday 8th September, 2023 @ 14:00

Figure 125 shows the (symmetrized) plate mesh without element outlines at various times. The
geometry is mapped onto the initial conﬁguration, by using the DEFO AMPD 0.0 keywords. The ADAP
keyword of the TRAC directive is used to allow for correct visualization of free edges and sharp corners.
This allows to appreciate the progressive growth of the cracks.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 125: Undeformed plate mesh (without element outlines) in simulation D6 S2 35 FPN.

130

Friday 8th September, 2023 @ 14:00

Figure 126 shows the (symmetrized) plate mesh without element outlines at various times, from three
diﬀerent eye positions (right, front, left), in order to highlight the opening of the slits. The right and
left views show the deformed plate, while the central view shows the undeformed plate, like in the
previous Figure, in order to highlight the cracks.

(a) t = 30.0 ms

(b) Undeformed, t = 30.0 ms

(c) t = 30.0 ms

(d) t = 31.0 ms

(e) Undeformed, t = 31.0 ms

(f) t = 31.0 ms

(g) t = 32.0 ms

(h) Undeformed, t = 32.0 ms

(i) t = 32.0 ms

Figure 126: Plate mesh (without element outlines) in simulation D6 S2 35 FPN.

131

Friday 8th September, 2023 @ 14:00

7.5 Case D14 S2 10 FP

This test is identical to D6 S2 10 FP but the material of the plate is Docol-1400M. Some results are
shown below.

Figure 127 shows the (symmetrized) ﬂuid pressure in the test region at various times.

(a) t = 33.2 ms

(b) t = 33.7 ms

(c) t = 34.2 ms

(d) t = 34.7 ms

(e) t = 35.2 ms

(f) t = 35.7 ms

(g) t = 36.2 ms

(h) t = 37.2 ms

(i) t = 38.2 ms

Figure 127: Fluid pressure in the test region in simulation D14 S2 10 FP.

132

Friday 8th September, 2023 @ 14:00

Figure 128 shows the (symmetrized) mesh in the test region at various times.

(a) t = 33.2 ms

(b) t = 33.7 ms

(c) t = 34.2 ms

(d) t = 34.7 ms

(e) t = 35.2 ms

(f) t = 35.7 ms

(g) t = 36.2 ms

(h) t = 37.2 ms

(i) t = 38.2 ms

Figure 128: Mesh in the test region in simulation D14 S2 10 FP.

133

Friday 8th September, 2023 @ 14:00

Figure 129 shows the (symmetrized) plate mesh at various times. The element outlines are included,
in order to appreciate the adaptive mesh reﬁnement taking place in the plate.

(a) t = 33.2 ms

(b) t = 33.7 ms

(c) t = 34.2 ms

(d) t = 34.7 ms

(e) t = 35.2 ms

(f) t = 35.7 ms

(g) t = 36.2 ms

(h) t = 37.2 ms

(i) t = 38.2 ms

Figure 129: Plate mesh in simulation D14 S2 10 FP.

134

Friday 8th September, 2023 @ 14:00

Figure 130 shows the (symmetrized) plate mesh without element outlines at various times. The
geometry is mapped onto the initial conﬁguration, by using the DEFO AMPD 0.0 keywords. The ADAP
keyword of the TRAC directive is used to allow for correct visualization of free edges and sharp corners.
This allows to appreciate the progressive growth of the cracks.

(a) t = 33.2 ms

(b) t = 33.7 ms

(c) t = 34.2 ms

(d) t = 34.7 ms

(e) t = 35.2 ms

(f) t = 35.7 ms

(g) t = 36.2 ms

(h) t = 37.2 ms

(i) t = 38.2 ms

Figure 130: Undeformed plate mesh (without element outlines) in simulation D14 S2 10 FP.

135

Friday 8th September, 2023 @ 14:00

Figure 131 shows the (symmetrized) plate mesh without element outlines at various times, from three
diﬀerent eye positions (right, front, left), in order to highlight the opening of the slits. The right and
left views show the deformed plate, while the central view shows the undeformed plate, like in the
previous Figure, in order to highlight the cracks.

(a) t = 36.2 ms

(b) Undeformed, t = 36.2 ms

(c) t = 36.2 ms

(d) t = 372. ms

(e) Undeformed, t = 37.2 ms

(f) t = 37.2 ms

(g) t = 38.2 ms

(h) Undeformed, t = 38.2 ms

(i) t = 38.2 ms

Figure 131: Plate mesh (without element outlines) in simulation D14 S2 10 FP.

136

Friday 8th September, 2023 @ 14:00

7.6 Case D14 S2 15 FP

This test is identical to D6 S2 15 FPN but the material of the plate is Docol-1400M. Some results
are shown below.

Figure 132 shows the (symmetrized) ﬂuid pressure in the test region at various times.

(a) t = 32.5 ms

(b) t = 33.0 ms

(c) t = 33.5 ms

(d) t = 34.0 ms

(e) t = 34.5 ms

(f) t = 35.0 ms

(g) t = 35.5 ms

(h) t = 36.0 ms

Figure 132: Fluid pressure in the test region in simulation D14 S2 15 FP.

137

Friday 8th September, 2023 @ 14:00

Figure 133 shows the (symmetrized) mesh in the test region at various times.

(a) t = 32.5 ms

(b) t = 33.0 ms

(c) t = 33.5 ms

(d) t = 34.0 ms

(e) t = 34.5 ms

(f) t = 35.0 ms

(g) t = 35.5 ms

(h) t = 36.0 ms

Figure 133: Mesh in the test region in simulation D14 S2 15 FP.

138

Friday 8th September, 2023 @ 14:00

Figure 134 shows the (symmetrized) plate mesh at various times. The element outlines are included,
in order to appreciate the adaptive mesh reﬁnement taking place in the plate.

(a) t = 32.5 ms

(b) t = 33.0 ms

(c) t = 33.5 ms

(d) t = 34.0 ms

(e) t = 34.5 ms

(f) t = 35.0 ms

(g) t = 35.5 ms

(h) t = 36.0 ms

Figure 134: Plate mesh in simulation D14 S2 15 FP.

139

Friday 8th September, 2023 @ 14:00

Figure 135 shows the (symmetrized) plate mesh without element outlines at various times. The
geometry is mapped onto the initial conﬁguration, by using the DEFO AMPD 0.0 keywords. The ADAP
keyword of the TRAC directive is used to allow for correct visualization of free edges and sharp corners.
This allows to appreciate the progressive growth of the cracks.

(a) t = 32.5 ms

(b) t = 33.0 ms

(c) t = 33.5 ms

(d) t = 34.0 ms

(e) t = 34.5 ms

(f) t = 35.0 ms

(g) t = 35.5 ms

(h) t = 36.0 ms

Figure 135: Undeformed plate mesh (without element outlines) in simulation D14 S2 15 FP.

140

Friday 8th September, 2023 @ 14:00

Figure 136 shows the (symmetrized) plate mesh without element outlines at various times, from three
diﬀerent eye positions (right, front, left), in order to highlight the opening of the slits. The right and
left views show the deformed plate, while the central view shows the undeformed plate, like in the
previous Figure, in order to highlight the cracks.

(a) t = 34.0 ms

(b) Undeformed, t = 34.0 ms

(c) t = 34.0 ms

(d) t = 35.0 ms

(e) Undeformed, t = 35.0 ms

(f) t = 35.0 ms

(g) t = 36.0 ms

(h) Undeformed, t = 36.0 ms

(i) t = 36.0 ms

Figure 136: Plate mesh (without element outlines) in simulation D14 S2 15 FP.

141

Friday 8th September, 2023 @ 14:00

7.7 Case D14 S2 25 FP

This test is identical to D6 S2 25 FP but the material of the plate is Docol-1400M. Some results are
shown below.

Figure 137 shows the (symmetrized) ﬂuid pressure in the test region at various times.

(a) t = 30.5 ms

(b) t = 31.0 ms

(c) t = 31.5 ms

(d) t = 32.0 ms

(e) t = 32.5 ms

(f) t = 33.0 ms

(g) t = 33.5 ms

(h) t = 34.0 ms

Figure 137: Fluid pressure in the test region in simulation D14 S2 25 FP.

142

Friday 8th September, 2023 @ 14:00

Figure 138 shows the (symmetrized) mesh in the test region at various times.

(a) t = 30.5 ms

(b) t = 31.0 ms

(c) t = 31.5 ms

(d) t = 32.0 ms

(e) t = 32.5 ms

(f) t = 33.0 ms

(g) t = 33.5 ms

(h) t = 34.0 ms

Figure 138: Mesh in the test region in simulation D14 S2 25 FP.

143

Friday 8th September, 2023 @ 14:00

Figure 139 shows the (symmetrized) plate mesh at various times. The element outlines are included,
in order to appreciate the adaptive mesh reﬁnement taking place in the plate.

(a) t = 30.5 ms

(b) t = 31.0 ms

(c) t = 31.5 ms

(d) t = 32.0 ms

(e) t = 32.5 ms

(f) t = 33.0 ms

(g) t = 33.5 ms

(h) t = 34.0 ms

Figure 139: Plate mesh in simulation D14 S2 25 FP.

144

Friday 8th September, 2023 @ 14:00

Figure 140 shows the (symmetrized) plate mesh without element outlines at various times. The
geometry is mapped onto the initial conﬁguration, by using the DEFO AMPD 0.0 keywords. The ADAP
keyword of the TRAC directive is used to allow for correct visualization of free edges and sharp corners.
This allows to appreciate the progressive growth of the cracks.

(a) t = 30.5 ms

(b) t = 31.0 ms

(c) t = 31.5 ms

(d) t = 32.0 ms

(e) t = 32.5 ms

(f) t = 33.0 ms

(g) t = 33.5 ms

(h) t = 34.0 ms

Figure 140: Undeformed plate mesh (without element outlines) in simulation D14 S2 25 FP.

145

Friday 8th September, 2023 @ 14:00

Figure 141 shows the (symmetrized) plate mesh without element outlines at various times, from three
diﬀerent eye positions (right, front, left), in order to highlight the opening of the slits. The right and
left views show the deformed plate, while the central view shows the undeformed plate, like in the
previous Figure, in order to highlight the cracks.

(a) t = 31.5 ms

(b) Undeformed, t = 31.5 ms

(c) t = 31.5 ms

(d) t = 32.5 ms

(e) Undeformed, t = 32.5 ms

(f) t = 32.5 ms

(g) t = 33.5 ms

(h) Undeformed, t = 33.5 ms

(i) t = 33.5 ms

Figure 141: Plate mesh (without element outlines) in simulation D14 S2 25 FP.

146

Friday 8th September, 2023 @ 14:00

7.8 Case D14 S2 35 FPN

This test is identical to D6 S2 35 FP but the material of the plate is Docol-1400M. Some results are
shown below.

Figure 142 shows the (symmetrized) ﬂuid pressure in the test region at various times.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 142: Fluid pressure in the test region in simulation D14 S2 35 FPN.

147

Friday 8th September, 2023 @ 14:00

Figure 143 shows the (symmetrized) mesh in the test region at various times.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 143: Mesh in the test region in simulation D14 S2 35 FPN.

148

Friday 8th September, 2023 @ 14:00

Figure 144 shows the (symmetrized) plate mesh at various times. The element outlines are included,
in order to appreciate the adaptive mesh reﬁnement taking place in the plate.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 144: Plate mesh in simulation D14 S2 35 FPN.

149

Friday 8th September, 2023 @ 14:00

Figure 145 shows the (symmetrized) plate mesh without element outlines at various times. The
geometry is mapped onto the initial conﬁguration, by using the DEFO AMPD 0.0 keywords. The ADAP
keyword of the TRAC directive is used to allow for correct visualization of free edges and sharp corners.
This allows to appreciate the progressive growth of the cracks.

(a) t = 29.5 ms

(b) t = 30.0 ms

(c) t = 30.5 ms

(d) t = 31.0 ms

(e) t = 31.5 ms

(f) t = 32.0 ms

Figure 145: Undeformed plate mesh (without element outlines) in simulation D14 S2 35 FPN.

150

Friday 8th September, 2023 @ 14:00

Figure 146 shows the (symmetrized) plate mesh without element outlines at various times, from three
diﬀerent eye positions (right, front, left), in order to highlight the opening of the slits. The right and
left views show the deformed plate, while the central view shows the undeformed plate, like in the
previous Figure, in order to highlight the cracks.

(a) t = 30.0 ms

(b) Undeformed, t = 30.0 ms

(c) t = 30.0 ms

(d) t = 31.0 ms

(e) Undeformed, t = 31.0 ms

(f) t = 31.0 ms

(g) t = 32.0 ms

(h) Undeformed, t = 32.0 ms

(i) t = 32.0 ms

Figure 146: Plate mesh (without element outlines) in simulation D14 S2 35 FPN.

151

Friday 8th September, 2023 @ 14:00

Finally, Figure 147 summarizes and compares among them all the main results of the FSI calcula-
tions performed so far. For each case, the ﬁnal plate damage (cracks) in both the initial (un-deformed)
and the deformed geometry is shown. The ﬁnal time varies case by case, see Table 13.

(a) Docol-600DL @ 10 bar

(b) Docol-600DL @ 15 bar

(c) Docol-600DL @ 25 bar

(d) Docol-600DL @ 35 bar

(e) Docol-600DL @ 10 bar

(f) Docol-600DL @ 15 bar

(g) Docol-600DL @ 25 bar

(h) Docol-600DL @ 35 bar

(i) Docol-1400M @ 10 bar

(j) Docol-1400M @ 15 bar

(k) Docol-1400M @ 25 bar

(l) Docol-1400M @ 35 bar

(m) Docol-1400M @ 10 bar

(n) Docol-1400M @ 15 bar

(o) Docol-1400M @ 25 bar

(p) Docol-1400M @ 35 bar

Figure 147: Final damage in the FSI S2 plate, on the initial and on the deformed geometry.

152

Friday 8th September, 2023 @ 14:00

References

[1] EUROPLEXUS User’s Manual, on-line version: http://europlexus.jrc.ec.europa.eu.

[2] Cast3m Software: http://www-cast3m.cea.fr/.

[3] B.S. Elveli, M.D. Iddberg, T. Børvik, V. Aune. On the strength–ductility trade-oﬀ in thin blast-
loaded steel plates with and without initial defects – An experimental study. Thin-Walled Struc-
tures 171 (2022), 108787.

[4] V. Aune, G. Valsamos, F. Casadei, M. Larcher, M. Langseth, T. Børvik. Inelastic response of
thin aluminium plates exposed to blast loading. Extended abstract of oral presentation at the 1st
International Conference on Impact Loading of Structures and Materials, ICILSM 2016, Turin,
Italy, 22–26 May 2016.
345 -- Pdf/2016/ICILSM2016/As Published/Extended/011.pdf

[5] F. Casadei, V. Aune, F. Daude, P. Galon, G. Valsamos, M. Larcher. Shock tube tests with coupled
1D-3D models in EUROPLEXUS. JRC Technical Report, PUBSY No. JRC101011, EUR Report
27890 EN, 2016.
347 -- Pdf/2015/1D-3D/Report/Front/JRC101011 fullrep1d3d.pdf

[6] V. Aune, G. Valsamos, F. Casadei, M. Larcher, M. Langseth, T. Børvik. Numerical study on
the structural response of blast-loaded thin aluminium and steel plates. International Journal of
Impact Engineering 99 (2016), 131–144.
359 -- Pdf/2016/NTNU Paper AIRB/As Published/1-s2.0-S0734743X16302482-main.pdf

[7] V. Aune, G. Valsamos, F. Casadei, M. Langseth, T. Børvik. On the dynamic response of blast-
loaded steel plates with and without pre-formed holes. International Journal of Impact Engineering
108 (2017), 27–46.
360 -- Pdf/2016/NTNU Paper Special Issue/FSI SSTF Perforated plates/Paper/Part 1/Published/

1-s2.0-S0734743X1631082X-main.pdf

[8] F. Casadei, V. Aune, G. Valsamos, M. Larcher. Contact detection by pseudo-nodal pinballs with
mesh adaptivity in EUROPLEXUS. JRC Technical Report, PUBSY No. JRC112048, 2018.
372 -- Pdf/2017/Vegard Aune 2017/01 MirrorPlanes/Report/Front/Req JRC112048.pdf

[9] V. Aune, G. Valsamos, F. Casadei, M. Larcher, M. Langseth, T. Børvik. Use of damage-based
mesh adaptivity to predict ductile failure in blast-loaded aluminium plates. International Confer-
ence on Dynamic Fracture of Ductile Materials, Dynfrac 2017, DYMAT 23rd Technical Meeting,
12-14 September 2017, Trondheim, Norway. Also in Procedia Engineering 197 (2017) 3-12.
373 -- Pdf/2017/Dymat Trondheim/Procedia/Final/Aune et al DYMAT Procedia 2017c.pdf

[10] F. Casadei, G. Valsamos, M. Larcher, V. Aune. Characterization of a shock tube facility by

EUROPLEXUS. JRC Technical Report, PUBSY No. JRC112051, 2018.
379 -- Pdf/2017/Vegard JRC/ShockTube/Report/Front/Req JRC112051.pdf

[11] F. Casadei, M. Larcher, G. Valsamos, V. Aune. A solution mapping algorithm in EUROPLEXUS.

JRC Technical Report, PUBSY No. JRC112052, EUR Report 29259 EN, 2018.
380 -- Pdf/2018/NTNU Mapping 3D/Report/Front/Req JRC112052.pdf

[12] V. Aune, F. Casadei, G. Valsamos, M. Langseth, T. Børvik. A shock tube used to study the
dynamic response of blast-loaded plates. Presented at 18th International Conference on Ex-
perimental Mechanics (ICEM18), Brussels 1–5 July 2018. Also in Proceedings, 2 (2018) 503,
doi:10.3390/ICEM18-05395.
381 -- Pdf/2018/ICEM2018/Proceedings/proceedings-02-00503-v2.pdf

[13] V. Aune, G. Valsamos, F. Casadei, M. Langseth, T. Børvik. Fluid-structure interaction eﬀects
during the dynamic response of clamped thin steel plates exposed to blast loading. International

153

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Journal of Mechanical Sciences 106263, 2021.
406 -- Pdf/2020/NTNU Paper FSI/Online/Aune et al 2021 IJMS.pdf

[14] V. Aune, G. Valsamos, F. Casadei, M. Langseth, T. Børvik. Inﬂuence of ﬂuid-structure interac-
tion eﬀects on the ductile fracture of blast-loaded steel plates. Submitted to the 13th International
Conference on Mechanical and Physical Behaviour of Materials Under Dynamic Loading, Madrid,
20–24 September 2021.
409 -- Pdf/2021/DYMAT Madrid/As Accepted/epjconf210392 sub.pdf

[15] F. Casadei, G. Valsamos, M. Larcher, V. Aune. A database of EUROPLEXUS numerical models
for the simulation of the NTNU shock tube and other test facilities. JRC Technical Report,
PUBSY No. JRC124311, 2021.
419 -- Pdf/2021/NTNU Database/Report/Front/Req JRC124311.pdf

[16] V. Aune, G. Valsamos, F. Casadei. Coupled Simulations of Extreme Fluid-Structure Dynamics.
Proceedings of the X International Conference of Computational Methods for Coupled Problems
in Science and Engineering, COUPLED PROBLEMS 2023, M. Papadrakakis, B. Schreﬂer and
E. O˜nate (Eds), Chania, Crete, Greece, 5-7 June 2023.
424 -- Pdf/2023/COUPLED2023/Full Paper/As Submitted/

ECCOMAS PROCEEDINGS COUPLED2023 IS31 Aune Valsamos Casadei.pdf

[17] F. Casadei, G. Valsamos, M. Larcher, M. Kristoﬀersen. Numerical simulation of blasts in steel
and concrete pipes with EUROPLEXUS. JRC Technical Report, PUBSY No. JRC132490, 2023.
427 -- Pdf/2021/Martin Kristoffersen 2021/Report/Front/Req JRC132490.pdf

[18] M. Kristoﬀersen, F. Casadei, G. Valsamos, M. Larcher, K.O. Hauge, A. Minoretti, T. Børvik.
Conﬁned blast loading: Experiments and simulations of internal detonations. Paper submitted
to Computers and Structures, 2023.
430 -- Pdf/2022/MK 2022 Paper/As Submitted/Confined blast loading.pdf

[19] F. Casadei, G. Valsamos, M. Larcher, V. Aune. EUROPLEXUS simulations of steel plates witout
and with pre-formed holes tested in the NTNU SIMlab Shock Tube Facility. JRC Technical
Report, PUBSY No. JRCxxxxxx, in preparation.
704 -- Pdf/2021/DYMAT Madrid Evicom/Report/DYMAT Madrid.pdf

154

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List of Tables

4
Preliminary Lagrangian simulations (repetition of 2021 tests). . . . . . . . . . . . . . .
1
15
. . . . . . . . . . . . . . . . . .
Simulations of membrane bursts to generate map ﬁles.
2
15
Parameters used in the simulations to generate map ﬁles.
. . . . . . . . . . . . . . . .
3
25
Simulations to generate multiple map ﬁles. . . . . . . . . . . . . . . . . . . . . . . . . .
4
26
Simulations to trigger map ﬁle generation. . . . . . . . . . . . . . . . . . . . . . . . . .
5
36
Simulations to check displacement-driven erosion. . . . . . . . . . . . . . . . . . . . . .
6
43
Some stability-related data in test D7710600mapf.
. . . . . . . . . . . . . . . . . . . .
7
46
Simulations to check the use of CENE with 1D CCFV. . . . . . . . . . . . . . . . . . . .
8
53
9
. . . . . . . . .
Simulations to check the use of alternative reconstruction and limiter.
68
10 Eulerian simulations. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
71
. . . . . . . . . . . . . . . . .
11 Complete set of Lagrangian simulations of the S2 plate.
12 FSI (coupled) preliminary simulations of the S2 plates. . . . . . . . . . . . . . . . . . .
75
13 FSI (coupled) simulations of the S2 plates. . . . . . . . . . . . . . . . . . . . . . . . . . 111

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Friday 8th September, 2023 @ 14:00

List of Figures

5
Final damage in the S2 plate (mapped on the initial geometry). . . . . . . . . . . . . .
1
6
Geometry of the S2 plate at various times in case D6 S2 15. . . . . . . . . . . . . . . .
2
7
Geometry of the S2 plate at various times in case D6 S2 25. . . . . . . . . . . . . . . .
3
Geometry of the S2 plate at various times in case D6 S2 35. . . . . . . . . . . . . . . .
4
8
9
. . . . . . . . . . . . . .
Geometry of the S2 plate at various times in case D14 S2 15.
5
10
. . . . . . . . . . . . . .
Geometry of the S2 plate at various times in case D14 S2 25.
6
11
Geometry of the S2 plate at various times in case D14 S2 35.
. . . . . . . . . . . . . .
7
12
Base mesh of the S2 plate. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
8
13
9
Stability step (DTEL) in the plate. . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
14
10 Pressure time functions used in the Lagrangian simulations. . . . . . . . . . . . . . . .
16
Setup of membranes in the various experiments. . . . . . . . . . . . . . . . . . . . . . .
11
17
. . . . . . . . .
12 Comparison of map ﬁle curves between 2021 solution and current one.
17
. . . .
13
Inﬂation and progressive failure of the ﬁring membranes in test D7705600map.
18
14 Fluid mesh FSI-driven reﬁnement and the ﬂuid pressure in test D7705600map.
. . . .
18
. . . . . . . . . . . . .
15 Failure patterns of the ﬁring membranes in test D7705600map.
19
16
Inﬂation and progressive failure of the ﬁring membranes in test D7710600mapa. . . . .
20
17 Fluid mesh FSI-driven reﬁnement and the ﬂuid pressure in test D7710600mapa. . . . .
20
18 Failure patterns of the ﬁring membranes in test D7710600mapa. . . . . . . . . . . . . .
21
Inﬂation and progressive failure of the ﬁring membranes in test D7710600mapb. . . . .
19
22
20 Fluid mesh FSI-driven reﬁnement and the ﬂuid pressure in test D7710600mapb. . . . .
22
21 Failure patterns of the ﬁring membranes in test D7710600mapb.
. . . . . . . . . . . .
23
22 Comparison of map ﬁle curves between solutions D7710600mapa and D7710600mapb.
23 Comparison of curves at t = 31 ms between solutions D7710600mapa and D7710600mapb. 24
28
24
Inﬂation and progressive failure of the ﬁring membranes in test D7710600mapc. . . . .
29
25 Fluid mesh FSI-driven reﬁnement and the ﬂuid pressure in test D7710600mapc. . . . .
29
26 Failure patterns of the ﬁring membranes in test D7710600mapc. . . . . . . . . . . . . .
30
27 Comparison of map ﬁle curves at 31, 32 and 33 ms in test D7710600mapc. . . . . . . .
31
28 Map ﬁle curves at ttrig = 32.2 ms in test D7710600mapd. . . . . . . . . . . . . . . . . .
32
29
Inﬂation and progressive failure of the ﬁring membranes in test D7710600mape. . . . .
33
30 Fluid mesh FSI-driven reﬁnement and the ﬂuid pressure in test D7710600mape. . . . .
33
31 Failure patterns of the ﬁring membranes in test D7710600mape. . . . . . . . . . . . . .
34
. . . . . .
32 Comparison of map ﬁle curves in tests D7710600mapd and D7710600mape.
35
. . . . .
33 CPU time, stability time step and maximum velocity in test D7710600mape.
38
34
Inﬂation and progressive failure of the ﬁring membranes in test D7710600mapg. . . . .
38
35 Failure patterns of the ﬁring membranes in test D7710600mapg. . . . . . . . . . . . . .
39
36
. . . .
Inﬂation and progressive failure of the ﬁring membranes in test D7710600mapf.
40
37 Fluid mesh FSI-driven reﬁnement and the ﬂuid pressure in test D7710600mapf. . . . .
41
38 Failure patterns of the ﬁring membranes in test D7710600mapf. . . . . . . . . . . . . .
39 Fluid velocity in the 3D part of the ﬂuid model at t = 19 ms in test D7710600mapf.
41
.
40 CPU, stability step and maximum velocity in tests D7710600mape and D7710600mapf. 42
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
Some results of test 1D3D14.
46
41
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
Some results of test 1D3D24.
47
42
47
Some results of test 1D3D34.
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
43
49
Inﬂation and progressive failure of the ﬁring membranes in test D7710600mapj. . . . .
44
49
45 Fluid mesh FSI-driven reﬁnement and the ﬂuid pressure in test D7710600mapj. . . . .
46 Failure patterns of the ﬁring membranes in test D7710600mapj. . . . . . . . . . . . . .
50
47 Comparison of map ﬁle curves in tests D7710600mapd, D7710600mape and D7710600mapj. 51
52
48 CPU time, stability time step and maximum velocity in test D7710600mapj.
54
49
54
50
54
51
55
52 Comparison of ﬂuid pressures at 5 ms in tests D7710600mape and D7710600mapk.

. . . . .
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
. .

Some results of test 1D3D44.
Some results of test 1D3D54.
Some results of test 1D3D64.

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Friday 8th September, 2023 @ 14:00

Some results of test ST EUL 10.

55
53 Coupled ﬂuid and structural inﬂuence domain at 5 ms in test D7710600mapk. . . . . .
57
. .
54 Comparison of ﬂuid pressures at 8 ms in tests D7710600mape and D7710600mapl.
57
55 Comparison of membranes erosion at 8 ms in tests D7710600mape and D7710600mapl.
56 Comparison of ﬂuid pressures at 14 ms in tests D7710600mape and D7710600mapm.
58
.
57 Comparison of membranes erosion at 14 ms in tests D7710600mape and D7710600mapm. 59
60
Inﬂation and progressive failure of the ﬁring membranes in test D7710600mapn. . . . .
58
61
59 Fluid mesh FSI-driven reﬁnement and the ﬂuid pressure in test D7710600mapn. . . . .
61
. . . . . . . . . . . .
60 Failure patterns of the ﬁring membranes in test D7710600mapn.
62
. . . .
61 Comparison of map ﬁle curves in tests D7710600mapd, mape, mapj and mapn.
63
62 CPU time, stability time step and maximum velocity in test D7710600mapn.
. . . . .
65
63
Inﬂation and progressive failure of the ﬁring membranes in test D7710600mapo. . . . .
66
64 Fluid mesh FSI-driven reﬁnement and the ﬂuid pressure in test D7710600mapo. . . . .
66
. . . . . . . . . . . .
65 Failure patterns of the ﬁring membranes in test D7710600mapo.
67
66 CPU time, stability time step and maximum velocity in test D7710600mapo.
. . . . .
67
70
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
70
68 Pressure time functions to be used in the Lagrangian simulations. . . . . . . . . . . . .
71
. . . . . .
69 Final damage in the Lagrangian S2 plate (mapped on the initial geometry).
70 Geometry of the S2 plate at various times in case D6 S2 10. . . . . . . . . . . . . . . .
72
73
71 Geometry of the S2 plate at various times in case D14 S2 10.
. . . . . . . . . . . . . .
74
72 Final damage in the Lagrangian S2 plate, on the initial and on the deformed geometry.
75
. . . . . . . . . . . . . . . . . . . . . . . .
73 Mesh of the S2 plate and clamping system.
75
74 Mesh of the FSI model with embedded S2 plate and clamping system.
. . . . . . . . .
75 Fluid pressure in the test region in simulation D6 S2 35 FG. . . . . . . . . . . . . . . .
77
78
76 Mesh in the test region in simulation D6 S2 35 FG. . . . . . . . . . . . . . . . . . . . .
79
. . . . . . . . . . . . . . . . . . . . . . . . . .
77 Plate mesh in simulation D6 S2 35 FG.
80
78 Undeformed plate mesh (without element outlines) in simulation D6 S2 35 FG.
. . . .
79 Fluid pressure in the test region in simulation D6 S2 35 FP. . . . . . . . . . . . . . . .
81
82
80 Mesh in the test region in simulation D6 S2 35 FP. . . . . . . . . . . . . . . . . . . . .
83
81 Plate mesh in simulation D6 S2 35 FP. . . . . . . . . . . . . . . . . . . . . . . . . . . .
82 Undeformed plate mesh (without element outlines) in simulation D6 S2 35 FP.
84
. . . .
85
83 Fluid pressure in the test region in simulation D6 S2 35 FG2. . . . . . . . . . . . . . .
86
84 Mesh in the test region in simulation D6 S2 35 FG2.
. . . . . . . . . . . . . . . . . . .
87
85 Plate mesh in simulation D6 S2 35 FG2. . . . . . . . . . . . . . . . . . . . . . . . . . .
86 Undeformed plate mesh (without element outlines) in simulation D6 S2 35 FG2.
88
. . .
89
. . . . . . . . . . . . .
87 Fluid pressure in the test region in simulation D6 S2 35 FG C.
88 Mesh in the test region in simulation D6 S2 35 FG C.
90
. . . . . . . . . . . . . . . . . .
91
89 Plate mesh in simulation D6 S2 35 FG C.
. . . . . . . . . . . . . . . . . . . . . . . . .
90 Undeformed plate mesh (without element outlines) in simulation D6 S2 35 FG C. . . .
92
93
. . . . . . . . . . . . .
91 Fluid pressure in the test region in simulation D6 S2 35 FP C.
94
92 Mesh in the test region in simulation D6 S2 35 FP C.
. . . . . . . . . . . . . . . . . .
95
93 Plate mesh in simulation D6 S2 35 FP C.
. . . . . . . . . . . . . . . . . . . . . . . . .
96
94 Undeformed plate mesh (without element outlines) in simulation D6 S2 35 FP C. . . .
97
. . . . . . . . . . . .
95 Fluid pressure in the test region in simulation D6 S2 35 FG2 C.
98
96 Mesh in the test region in simulation D6 S2 35 FG2 C. . . . . . . . . . . . . . . . . . .
97 Plate mesh in simulation D6 S2 35 FG2 C.
99
. . . . . . . . . . . . . . . . . . . . . . . .
98 Undeformed plate mesh (without element outlines) in simulation D6 S2 35 FG2 C. . . 100
99 Fluid pressure in the test region in simulation D6 S2 35 FG CSVF. . . . . . . . . . . . 102
100 Mesh in the test region in simulation D6 S2 35 FG CSVF. . . . . . . . . . . . . . . . . 103
101 Plate mesh in simulation D6 S2 35 FG CSVF.
. . . . . . . . . . . . . . . . . . . . . . 104
102 Undeformed plate mesh (without element outlines) in simulation D6 S2 35 FG2 CSVF. 105
103 Final ﬂuid pressures in the test region in preliminary FSI simulations at 35 bar. . . . . 106
104 Final meshes in the test region in preliminary FSI simulations at 35 bar. . . . . . . . . 107
105 Final plate meshes in preliminary FSI simulations at 35 bar. . . . . . . . . . . . . . . . 108

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Friday 8th September, 2023 @ 14:00

106 Final undeformed plate meshes in preliminary FSI simulations at 35 bar. . . . . . . . . 109
. . . . . . . . . . . . . . 112
107 Fluid pressure in the test region in simulation D14 S2 10 FP.
108 Mesh in the test region in simulation D6 S2 10 FP. . . . . . . . . . . . . . . . . . . . . 113
109 Plate mesh in simulation D6 S2 10 FP. . . . . . . . . . . . . . . . . . . . . . . . . . . . 114
110 Undeformed plate mesh (without element outlines) in simulation D6 S2 10 FP.
. . . . 115
. . . . . . . . . . . 116
111 Plate mesh (without element outlines) in simulation D6 S2 10 FP.
112 Fluid pressure in the test region in simulation D6 S2 15 FP. . . . . . . . . . . . . . . . 117
113 Mesh in the test region in simulation D6 S2 15 FP. . . . . . . . . . . . . . . . . . . . . 118
114 Plate mesh in simulation D6 S2 15 FP. . . . . . . . . . . . . . . . . . . . . . . . . . . . 119
115 Undeformed plate mesh (without element outlines) in simulation D6 S2 15 FP.
. . . . 120
116 Plate mesh (without element outlines) in simulation D6 S2 15 FP.
. . . . . . . . . . . 121
117 Fluid pressure in the test region in simulation D6 S2 25 FP. . . . . . . . . . . . . . . . 122
118 Mesh in the test region in simulation D6 S2 25 FP. . . . . . . . . . . . . . . . . . . . . 123
119 Plate mesh in simulation D6 S2 25 FP. . . . . . . . . . . . . . . . . . . . . . . . . . . . 124
120 Undeformed plate mesh (without element outlines) in simulation D6 S2 25 FP.
. . . . 125
121 Plate mesh (without element outlines) in simulation D6 S2 25 FP.
. . . . . . . . . . . 126
122 Fluid pressure in the test region in simulation D6 S2 35 FPN. . . . . . . . . . . . . . . 127
123 Mesh in the test region in simulation D6 S2 35 FPN. . . . . . . . . . . . . . . . . . . . 128
. . . . . . . . . . . . . . . . . . . . . . . . . 129
124 Plate mesh in simulation D6 S2 35 FPN.
. . . 130
125 Undeformed plate mesh (without element outlines) in simulation D6 S2 35 FPN.
126 Plate mesh (without element outlines) in simulation D6 S2 35 FPN.
. . . . . . . . . . 131
. . . . . . . . . . . . . . 132
127 Fluid pressure in the test region in simulation D14 S2 10 FP.
128 Mesh in the test region in simulation D14 S2 10 FP.
. . . . . . . . . . . . . . . . . . . 133
. . . . . . . . . . . . . . . . . . . . . . . . . . 134
129 Plate mesh in simulation D14 S2 10 FP.
130 Undeformed plate mesh (without element outlines) in simulation D14 S2 10 FP.
. . . 135
131 Plate mesh (without element outlines) in simulation D14 S2 10 FP. . . . . . . . . . . . 136
132 Fluid pressure in the test region in simulation D14 S2 15 FP.
. . . . . . . . . . . . . . 137
. . . . . . . . . . . . . . . . . . . 138
133 Mesh in the test region in simulation D14 S2 15 FP.
. . . . . . . . . . . . . . . . . . . . . . . . . . 139
134 Plate mesh in simulation D14 S2 15 FP.
135 Undeformed plate mesh (without element outlines) in simulation D14 S2 15 FP.
. . . 140
136 Plate mesh (without element outlines) in simulation D14 S2 15 FP. . . . . . . . . . . . 141
. . . . . . . . . . . . . . 142
137 Fluid pressure in the test region in simulation D14 S2 25 FP.
138 Mesh in the test region in simulation D14 S2 25 FP.
. . . . . . . . . . . . . . . . . . . 143
139 Plate mesh in simulation D14 S2 25 FP.
. . . . . . . . . . . . . . . . . . . . . . . . . . 144
. . . 145
140 Undeformed plate mesh (without element outlines) in simulation D14 S2 25 FP.
141 Plate mesh (without element outlines) in simulation D14 S2 25 FP. . . . . . . . . . . . 146
142 Fluid pressure in the test region in simulation D14 S2 35 FPN.
. . . . . . . . . . . . . 147
143 Mesh in the test region in simulation D14 S2 35 FPN.
. . . . . . . . . . . . . . . . . . 148
144 Plate mesh in simulation D14 S2 35 FPN. . . . . . . . . . . . . . . . . . . . . . . . . . 149
145 Undeformed plate mesh (without element outlines) in simulation D14 S2 35 FPN.
. . 150
146 Plate mesh (without element outlines) in simulation D14 S2 35 FPN. . . . . . . . . . . 151
147 Final damage in the FSI S2 plate, on the initial and on the deformed geometry. . . . . 152

158

Friday 8th September, 2023 @ 14:00

List of abbreviations and deﬁnitions

Commissariat `a l’Energie Atomique
European Commission
EUROPLEXUS software [1]
Joint Research Centre

CEA
EC
EPX
JRC
NTNU Norwegian University of Science and Technology, Trondheim
SSTF

SIMLab Shock Tube Facility, Trondheim

159

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160

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Appendix I — Input ﬁles

All the input ﬁles used in the previous Sections are listed below.

1d3d14.dgibi

opti echo 1;
opti dime 3 elem cub8;
opti trac psc ftra ’1d3d14_mesh.ps’;
opti sauv form ’1d3d14.msh’;
*
lhp3d = 12.0;
lhp1d = 4.0;
llp1d = 6.0;
llp3d = 10.0;
nhp3d = 1200;
nhp1d = 400;
nlp1d = 600;
nlp3d = 1000;
h = lhp3d / nhp3d;
tol = h / 10;
*
p0 = 0 0 0;
p1 = 0 h 0;
p2 = 0 h h;
p3 = 0 0 h;
bashp3d = manu qua4 p0 p1 p2 p3;
hp3d = bashp3d volu tran nhp3d (lhp3d 0 0);
baslp3d = bashp3d plus ((lhp3d+lhp1d+llp1d) 0 0);
lp3d = baslp3d volu tran nlp3d (llp3d 0 0);
p1d1 = p0 plus (lhp3d 0 0);
p1d2 = p1d1 plus (lhp1d 0 0);
p1d3 = p1d2 plus (llp1d 0 0);
hp1d = p1d1 d nhp1d p1d2;
lp1d = p1d2 d nlp1d p1d3;
hp = hp3d et hp1d;
lp = lp3d et lp1d;
flui = hp et lp;
*
* raccords 3d-1d
*
facehp = bashp3d plus (lhp3d 0 0);
pfacehp = chan poi1 facehp;
elim tol (pfacehp et hp3d);
facelp = baslp3d;
pfacelp = chan poi1 facelp;
rachp = manu supe (p1d1 et facehp);
raclp = manu supe (p1d3 et facelp);
*
mesh = flui et facehp et facelp et rachp et raclp;
*
tass mesh noop;
sauv form mesh;
trac cach qual mesh;
*
fin;

1d3d14.epx

1D3D14
ECHO
!CONV win
CAST mesh
TRID EULE
DIME JONC 10 TERM ! Total n. of nodes in a TUBM juncton
GEOM CUVF hp3d lp3d TUVF hp1d lp1d CL3D facehp facelp

TUBM rachp raclp TERM

COMP DIAM DROI 0.011283792 LECT hp1d lp1d TERM

RACC TUBM LECT rachp

NTUB LECT p1d1
FACE LECT facehp TERM COEF 1.0

TERM
TERM DTUB 0.011283792

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT facelp TERM COEF 1.0

TERM
TERM DTUB 0.011283792

! Attention: the TUBM elements (rachp and raclp) are NOT included
! in the "mesh" object (although they ARE indeed passed in from Cast3m).
! For this reason we must add them explicitly in the GROU directive below
! if we want to have them in the extracted element groups.

GROU 2 ’nrachp’ LECT mesh rachp raclp TERM

COND XB GT 11.99 COND XB LT 12.01

’nraclp’ LECT mesh rachp raclp TERM

COND XB GT 21.99 COND XB LT 22.01

COUL ROUG LECT hp TERM

TURQ LECT lp TERM

VERT LECT rachp raclp TERM

MATE GAZP RO 14.4 GAMM 1.4 CV 720 PINI 12.E5 PREF 1.E5

LECT hp TERM

GAZP RO 1.20 GAMM 1.4 CV 720 PINI 1.0E5 PREF 1.E5

LECT lp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for rachp and raclp, but with the
! same characteristics as the materials used for hp and lp, respectively

GAZP RO 14.4 GAMM 1.4 CV 720 PINI 12.E5 PREF 1.E5

LECT rachp TERM

GAZP RO 1.20 GAMM 1.4 CV 720 PINI 1.0E5 PREF 1.E5

LECT raclp TERM
ECRI ECRO VFCC TFRE 1.E-3
!

NOPO NOEL

FICH ALIC TFRE 1.E-3

OPTI NOTE CSTA 0.75

LOG 1
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D in 2015

!
CALC TINI 0 TEND 20.E-3
FIN

1d3d14p.epx

Post-treatment (space curves from alice file)
ECHO
OPTI PRIN
RESU ALIC ’1d3d14.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui TERM

COND LINE X1 0 Y1 0 Z1 0 X2 32 Y2 0 Z2 0 TOL 0.0001

SORT GRAP
PERF ’1d3d14.pun’
AXTE 1.0 ’Time [s]’
SCOU 61 ’p_21’

NSTO 21 SAXE 1.0 ’curr_abscissa’ LECT xaxo TERM

ECRO COMP 1

SCOU 62 ’ro_21’ NSTO 21 SAXE 1.0 ’curr_abscissa’ LECT xaxo TERM

ECRO COMP 2

SCOU 65 ’vx_21’ NSTO 21 SAXE 1.0 ’curr_abscissa’ LECT xaxo TERM

DCOU 71 ’p_ana’ SHTU GAMM 1.4 ROM 14.4 ROP 1.2 EINT 2.08333E5

VCVI COMP 1

LENM 16 LENP 16
TIME 20.E-3 NRAR 30 VARI 1

DCOU 72 ’r_ana’ SHTU GAMM 1.4 ROM 14.4 ROP 1.2 EINT 2.08333E5

LENM 16 LENP 16
TIME 20.E-3 NRAR 30 VARI 2

DCOU 75 ’v_ana’ SHTU GAMM 1.4 ROM 14.4 ROP 1.2 EINT 2.08333E5

LENM 16 LENP 16
TIME 20.E-3 NRAR 30 VARI 5

TRAC 61 71 AXES 1.0 ’PRESS. [PA]’
COLO NOIR ROUG
LIST 61 AXES 1.0 ’PRESS. [PA]’
TRAC 62 72 AXES 1.0 ’DENS. [KG/M3]’
COLO NOIR ROUG
LIST 62 AXES 1.0 ’DENS. [KG/M3]’
TRAC 65 75 AXES 1.0 ’VELOC. [M/S]’
COLO NOIR ROUG
LIST 65 AXES 1.0 ’VELOC. [M/S]’
FIN

1d3d24.dgibi

opti echo 1;
opti dime 3 elem cub8;
opti trac psc ftra ’1d3d24_mesh.ps’;
opti sauv form ’1d3d24.msh’;
*
lhp3d = 12.0;
lhp1d = 4.0;
llp1d = 6.0;
llp3d = 10.0;
nhp3d = 1200;
nhp1d = 400;
nlp1d = 600;
nlp3d = 1000;
h = lhp3d / nhp3d;
tol = h / 10;
*
p0 = 0 0 0;
p1 = 0 h 0;
p2 = 0 h h;
p3 = 0 0 h;
bashp3d = manu qua4 p0 p1 p2 p3;
hp3d = bashp3d volu tran nhp3d (lhp3d 0 0);
baslp3d = bashp3d plus ((lhp3d+lhp1d+llp1d) 0 0);
lp3d = baslp3d volu tran nlp3d (llp3d 0 0);
p1d1 = p0 plus (lhp3d 0 0);
p1d2 = p1d1 plus (lhp1d 0 0);
p1d3 = p1d2 plus (llp1d 0 0);
hp1d = p1d1 d nhp1d p1d2;
lp1d = p1d2 d nlp1d p1d3;
hp = hp3d et hp1d;
lp = lp3d et lp1d;
flui = hp et lp;
*
* raccords 3d-1d
*
facehp = bashp3d plus (lhp3d 0 0);
pfacehp = chan poi1 facehp;
elim tol (pfacehp et hp3d);
facelp = baslp3d;
pfacelp = chan poi1 facelp;
rachp = manu supe (p1d1 et facehp);
raclp = manu supe (p1d3 et facelp);
*

161

Friday 8th September, 2023 @ 14:00

mesh = flui et facehp et facelp et rachp et raclp;
*
tass mesh noop;
sauv form mesh;
trac cach qual mesh;
*
fin;

1d3d24.epx

1D3D24
ECHO
!CONV win
CAST mesh
TRID EULE
DIME JONC 10 TERM ! Total n. of nodes in a TUBM juncton
GEOM CUVF hp3d lp3d TUVF hp1d lp1d CL3D facehp facelp

TUBM rachp raclp TERM

COMP DIAM DROI 0.011283792 LECT hp1d lp1d TERM

RACC TUBM LECT rachp

NTUB LECT p1d1
FACE LECT facehp TERM COEF 1.0

TERM
TERM DTUB 0.011283792

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT facelp TERM COEF 1.0

TERM
TERM DTUB 0.011283792

! Attention: the TUBM elements (rachp and raclp) are NOT included
! in the "mesh" object (although they ARE indeed passed in from Cast3m).
! For this reason we must add them explicitly in the GROU directive below
! if we want to have them in the extracted element groups.

GROU 2 ’nrachp’ LECT mesh rachp raclp TERM

COND XB GT 11.99 COND XB LT 12.01

’nraclp’ LECT mesh rachp raclp TERM

COND XB GT 21.99 COND XB LT 22.01

COUL ROUG LECT hp TERM

TURQ LECT lp TERM

VERT LECT rachp raclp TERM

MATE GAZP RO 14.4 GAMM 1.4 CV 720 PINI 12.E5 PREF 1.E5

LECT hp TERM

GAZP RO 1.20 GAMM 1.4 CV 720 PINI 1.0E5 PREF 1.E5

LECT lp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for rachp and raclp, but with the
! same characteristics as the materials used for hp and lp, respectively

GAZP RO 14.4 GAMM 1.4 CV 720 PINI 12.E5 PREF 1.E5

LECT rachp TERM

GAZP RO 1.20 GAMM 1.4 CV 720 PINI 1.0E5 PREF 1.E5

LECT raclp TERM
ECRI ECRO VFCC TFRE 1.E-3
!

NOPO NOEL
FICH ALIC TFRE 1.E-3

OPTI NOTE CSTA 0.75

LOG 1
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Reconstruction on the conserved variables

CALC TINI 0 TEND 20.E-3
FIN

1d3d24p.epx

Post-treatment (space curves from alice file)
ECHO
OPTI PRIN
RESU ALIC ’1d3d24.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui TERM

COND LINE X1 0 Y1 0 Z1 0 X2 32 Y2 0 Z2 0 TOL 0.0001

SORT GRAP
PERF ’1d3d24.pun’
AXTE 1.0 ’Time [s]’
SCOU 61 ’p_21’

NSTO 21 SAXE 1.0 ’curr_abscissa’ LECT xaxo TERM

ECRO COMP 1

SCOU 62 ’ro_21’ NSTO 21 SAXE 1.0 ’curr_abscissa’ LECT xaxo TERM

ECRO COMP 2

SCOU 65 ’vx_21’ NSTO 21 SAXE 1.0 ’curr_abscissa’ LECT xaxo TERM

DCOU 71 ’p_ana’ SHTU GAMM 1.4 ROM 14.4 ROP 1.2 EINT 2.08333E5

VCVI COMP 1

LENM 16 LENP 16
TIME 20.E-3 NRAR 30 VARI 1

DCOU 72 ’r_ana’ SHTU GAMM 1.4 ROM 14.4 ROP 1.2 EINT 2.08333E5

LENM 16 LENP 16
TIME 20.E-3 NRAR 30 VARI 2

DCOU 75 ’v_ana’ SHTU GAMM 1.4 ROM 14.4 ROP 1.2 EINT 2.08333E5

LENM 16 LENP 16
TIME 20.E-3 NRAR 30 VARI 5

TRAC 61 71 AXES 1.0 ’PRESS. [PA]’
COLO NOIR ROUG
LIST 61 AXES 1.0 ’PRESS. [PA]’
TRAC 62 72 AXES 1.0 ’DENS. [KG/M3]’
COLO NOIR ROUG
LIST 62 AXES 1.0 ’DENS. [KG/M3]’
TRAC 65 75 AXES 1.0 ’VELOC. [M/S]’
COLO NOIR ROUG
LIST 65 AXES 1.0 ’VELOC. [M/S]’
FIN

1d3d34.dgibi

opti echo 1;
opti dime 3 elem cub8;
opti trac psc ftra ’1d3d34_mesh.ps’;
opti sauv form ’1d3d34.msh’;
*
lhp3d = 12.0;
lhp1d = 4.0;
llp1d = 6.0;
llp3d = 10.0;
nhp3d = 1200;
nhp1d = 400;
nlp1d = 600;
nlp3d = 1000;
h = lhp3d / nhp3d;
tol = h / 10;
*
p0 = 0 0 0;
p1 = 0 h 0;
p2 = 0 h h;
p3 = 0 0 h;
bashp3d = manu qua4 p0 p1 p2 p3;
hp3d = bashp3d volu tran nhp3d (lhp3d 0 0);
baslp3d = bashp3d plus ((lhp3d+lhp1d+llp1d) 0 0);
lp3d = baslp3d volu tran nlp3d (llp3d 0 0);
p1d1 = p0 plus (lhp3d 0 0);
p1d2 = p1d1 plus (lhp1d 0 0);
p1d3 = p1d2 plus (llp1d 0 0);
hp1d = p1d1 d nhp1d p1d2;
lp1d = p1d2 d nlp1d p1d3;
hp = hp3d et hp1d;
lp = lp3d et lp1d;
flui = hp et lp;
*
* raccords 3d-1d
*
facehp = bashp3d plus (lhp3d 0 0);
pfacehp = chan poi1 facehp;
elim tol (pfacehp et hp3d);
facelp = baslp3d;
pfacelp = chan poi1 facelp;
rachp = manu supe (p1d1 et facehp);
raclp = manu supe (p1d3 et facelp);
*
mesh = flui et facehp et facelp et rachp et raclp;
*
tass mesh noop;
sauv form mesh;
trac cach qual mesh;
*
fin;

1d3d34.epx

1D3D34
ECHO
!CONV win
CAST mesh
TRID EULE
DIME JONC 10 TERM ! Total n. of nodes in a TUBM juncton
GEOM CUVF hp3d lp3d TUVF hp1d lp1d CL3D facehp facelp

TUBM rachp raclp TERM

COMP DIAM DROI 0.011283792 LECT hp1d lp1d TERM

RACC TUBM LECT rachp

NTUB LECT p1d1
FACE LECT facehp TERM COEF 1.0

TERM
TERM DTUB 0.011283792

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT facelp TERM COEF 1.0

TERM
TERM DTUB 0.011283792

! Attention: the TUBM elements (rachp and raclp) are NOT included
! in the "mesh" object (although they ARE indeed passed in from Cast3m).
! For this reason we must add them explicitly in the GROU directive below
! if we want to have them in the extracted element groups.

GROU 2 ’nrachp’ LECT mesh rachp raclp TERM

COND XB GT 11.99 COND XB LT 12.01

’nraclp’ LECT mesh rachp raclp TERM

COND XB GT 21.99 COND XB LT 22.01

COUL ROUG LECT hp TERM

TURQ LECT lp TERM

VERT LECT rachp raclp TERM

MATE GAZP RO 14.4 GAMM 1.4 CV 720 PINI 12.E5 PREF 1.E5

LECT hp TERM

GAZP RO 1.20 GAMM 1.4 CV 720 PINI 1.0E5 PREF 1.E5

LECT lp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for rachp and raclp, but with the
! same characteristics as the materials used for hp and lp, respectively

GAZP RO 14.4 GAMM 1.4 CV 720 PINI 12.E5 PREF 1.E5

LECT rachp TERM

GAZP RO 1.20 GAMM 1.4 CV 720 PINI 1.0E5 PREF 1.E5

LECT raclp TERM
ECRI ECRO VFCC TFRE 1.E-3
!

NOPO NOEL
FICH ALIC TFRE 1.E-3

OPTI NOTE CSTA 0.75

LOG 1
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Reconstruction on the conserved variables
CENE
CALC TINI 0 TEND 20.E-3
FIN

! Keep specific internal energy strictly positive

162

Friday 8th September, 2023 @ 14:00

1d3d34p.epx

Post-treatment (space curves from alice file)
ECHO
OPTI PRIN
RESU ALIC ’1d3d34.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui TERM

COND LINE X1 0 Y1 0 Z1 0 X2 32 Y2 0 Z2 0 TOL 0.0001

SORT GRAP
PERF ’1d3d34.pun’
AXTE 1.0 ’Time [s]’
SCOU 61 ’p_21’

NSTO 21 SAXE 1.0 ’curr_abscissa’ LECT xaxo TERM

SCOU 62 ’ro_21’ NSTO 21 SAXE 1.0 ’curr_abscissa’ LECT xaxo TERM

ECRO COMP 1

ECRO COMP 2

SCOU 65 ’vx_21’ NSTO 21 SAXE 1.0 ’curr_abscissa’ LECT xaxo TERM

DCOU 71 ’p_ana’ SHTU GAMM 1.4 ROM 14.4 ROP 1.2 EINT 2.08333E5

VCVI COMP 1

LENM 16 LENP 16
TIME 20.E-3 NRAR 30 VARI 1

DCOU 72 ’r_ana’ SHTU GAMM 1.4 ROM 14.4 ROP 1.2 EINT 2.08333E5

LENM 16 LENP 16
TIME 20.E-3 NRAR 30 VARI 2

DCOU 75 ’v_ana’ SHTU GAMM 1.4 ROM 14.4 ROP 1.2 EINT 2.08333E5

LENM 16 LENP 16
TIME 20.E-3 NRAR 30 VARI 5

TRAC 61 71 AXES 1.0 ’PRESS. [PA]’
COLO NOIR ROUG
LIST 61 AXES 1.0 ’PRESS. [PA]’
TRAC 62 72 AXES 1.0 ’DENS. [KG/M3]’
COLO NOIR ROUG
LIST 62 AXES 1.0 ’DENS. [KG/M3]’
TRAC 65 75 AXES 1.0 ’VELOC. [M/S]’
COLO NOIR ROUG
LIST 65 AXES 1.0 ’VELOC. [M/S]’
FIN

1d3d44.dgibi

opti echo 1;
opti dime 3 elem cub8;
opti trac psc ftra ’1d3d44_mesh.ps’;
opti sauv form ’1d3d44.msh’;
*
lhp3d = 12.0;
lhp1d = 4.0;
llp1d = 6.0;
llp3d = 10.0;
nhp3d = 1200;
nhp1d = 400;
nlp1d = 600;
nlp3d = 1000;
h = lhp3d / nhp3d;
tol = h / 10;
*
p0 = 0 0 0;
p1 = 0 h 0;
p2 = 0 h h;
p3 = 0 0 h;
bashp3d = manu qua4 p0 p1 p2 p3;
hp3d = bashp3d volu tran nhp3d (lhp3d 0 0);
baslp3d = bashp3d plus ((lhp3d+lhp1d+llp1d) 0 0);
lp3d = baslp3d volu tran nlp3d (llp3d 0 0);
p1d1 = p0 plus (lhp3d 0 0);
p1d2 = p1d1 plus (lhp1d 0 0);
p1d3 = p1d2 plus (llp1d 0 0);
hp1d = p1d1 d nhp1d p1d2;
lp1d = p1d2 d nlp1d p1d3;
hp = hp3d et hp1d;
lp = lp3d et lp1d;
flui = hp et lp;
*
* raccords 3d-1d
*
facehp = bashp3d plus (lhp3d 0 0);
pfacehp = chan poi1 facehp;
elim tol (pfacehp et hp3d);
facelp = baslp3d;
pfacelp = chan poi1 facelp;
rachp = manu supe (p1d1 et facehp);
raclp = manu supe (p1d3 et facelp);
*
mesh = flui et facehp et facelp et rachp et raclp;
*
tass mesh noop;
sauv form mesh;
trac cach qual mesh;
*
fin;

1d3d44.epx

1D3D44
ECHO
!CONV win

CAST mesh
TRID EULE
DIME JONC 10 TERM ! Total n. of nodes in a TUBM juncton
GEOM CUVF hp3d lp3d TUVF hp1d lp1d CL3D facehp facelp

TUBM rachp raclp TERM

COMP DIAM DROI 0.011283792 LECT hp1d lp1d TERM

RACC TUBM LECT rachp

NTUB LECT p1d1
FACE LECT facehp TERM COEF 1.0

TERM
TERM DTUB 0.011283792

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT facelp TERM COEF 1.0

TERM
TERM DTUB 0.011283792

! Attention: the TUBM elements (rachp and raclp) are NOT included
! in the "mesh" object (although they ARE indeed passed in from Cast3m).
! For this reason we must add them explicitly in the GROU directive below
! if we want to have them in the extracted element groups.

GROU 2 ’nrachp’ LECT mesh rachp raclp TERM

COND XB GT 11.99 COND XB LT 12.01

’nraclp’ LECT mesh rachp raclp TERM

COND XB GT 21.99 COND XB LT 22.01

COUL ROUG LECT hp TERM

TURQ LECT lp TERM

VERT LECT rachp raclp TERM

MATE GAZP RO 14.4 GAMM 1.4 CV 720 PINI 12.E5 PREF 1.E5

LECT hp TERM

GAZP RO 1.20 GAMM 1.4 CV 720 PINI 1.0E5 PREF 1.E5

LECT lp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for rachp and raclp, but with the
! same characteristics as the materials used for hp and lp, respectively

GAZP RO 14.4 GAMM 1.4 CV 720 PINI 12.E5 PREF 1.E5

LECT rachp TERM

GAZP RO 1.20 GAMM 1.4 CV 720 PINI 1.0E5 PREF 1.E5

LECT raclp TERM
ECRI ECRO VFCC TFRE 1.E-3
!

NOPO NOEL
FICH ALIC TFRE 1.E-3

OPTI NOTE CSTA 0.75

LOG 1
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 2 ! Reconstruction based on internal specific energy

CALC TINI 0 TEND 20.E-3
FIN

1d3d44p.epx

Post-treatment (space curves from alice file)
ECHO
OPTI PRIN
RESU ALIC ’1d3d44.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui TERM

COND LINE X1 0 Y1 0 Z1 0 X2 32 Y2 0 Z2 0 TOL 0.0001

SORT GRAP
PERF ’1d3d44.pun’
AXTE 1.0 ’Time [s]’
SCOU 61 ’p_21’

NSTO 21 SAXE 1.0 ’curr_abscissa’ LECT xaxo TERM

ECRO COMP 1

SCOU 62 ’ro_21’ NSTO 21 SAXE 1.0 ’curr_abscissa’ LECT xaxo TERM

ECRO COMP 2

SCOU 65 ’vx_21’ NSTO 21 SAXE 1.0 ’curr_abscissa’ LECT xaxo TERM

DCOU 71 ’p_ana’ SHTU GAMM 1.4 ROM 14.4 ROP 1.2 EINT 2.08333E5

VCVI COMP 1

LENM 16 LENP 16
TIME 20.E-3 NRAR 30 VARI 1

DCOU 72 ’r_ana’ SHTU GAMM 1.4 ROM 14.4 ROP 1.2 EINT 2.08333E5

LENM 16 LENP 16
TIME 20.E-3 NRAR 30 VARI 2

DCOU 75 ’v_ana’ SHTU GAMM 1.4 ROM 14.4 ROP 1.2 EINT 2.08333E5

LENM 16 LENP 16
TIME 20.E-3 NRAR 30 VARI 5

TRAC 61 71 AXES 1.0 ’PRESS. [PA]’
COLO NOIR ROUG
LIST 61 AXES 1.0 ’PRESS. [PA]’
TRAC 62 72 AXES 1.0 ’DENS. [KG/M3]’
COLO NOIR ROUG
LIST 62 AXES 1.0 ’DENS. [KG/M3]’
TRAC 65 75 AXES 1.0 ’VELOC. [M/S]’
COLO NOIR ROUG
LIST 65 AXES 1.0 ’VELOC. [M/S]’
FIN

1d3d54.dgibi

opti echo 1;
opti dime 3 elem cub8;
opti trac psc ftra ’1d3d54_mesh.ps’;
opti sauv form ’1d3d54.msh’;
*
lhp3d = 12.0;
lhp1d = 4.0;
llp1d = 6.0;
llp3d = 10.0;
nhp3d = 1200;
nhp1d = 400;
nlp1d = 600;
nlp3d = 1000;
h = lhp3d / nhp3d;
tol = h / 10;
*
p0 = 0 0 0;

163

Friday 8th September, 2023 @ 14:00

p1 = 0 h 0;
p2 = 0 h h;
p3 = 0 0 h;
bashp3d = manu qua4 p0 p1 p2 p3;
hp3d = bashp3d volu tran nhp3d (lhp3d 0 0);
baslp3d = bashp3d plus ((lhp3d+lhp1d+llp1d) 0 0);
lp3d = baslp3d volu tran nlp3d (llp3d 0 0);
p1d1 = p0 plus (lhp3d 0 0);
p1d2 = p1d1 plus (lhp1d 0 0);
p1d3 = p1d2 plus (llp1d 0 0);
hp1d = p1d1 d nhp1d p1d2;
lp1d = p1d2 d nlp1d p1d3;
hp = hp3d et hp1d;
lp = lp3d et lp1d;
flui = hp et lp;
*
* raccords 3d-1d
*
facehp = bashp3d plus (lhp3d 0 0);
pfacehp = chan poi1 facehp;
elim tol (pfacehp et hp3d);
facelp = baslp3d;
pfacelp = chan poi1 facelp;
rachp = manu supe (p1d1 et facehp);
raclp = manu supe (p1d3 et facelp);
*
mesh = flui et facehp et facelp et rachp et raclp;
*
tass mesh noop;
sauv form mesh;
trac cach qual mesh;
*
fin;

1d3d54.epx

1D3D54
ECHO
!CONV win
CAST mesh
TRID EULE
DIME JONC 10 TERM ! Total n. of nodes in a TUBM juncton
GEOM CUVF hp3d lp3d TUVF hp1d lp1d CL3D facehp facelp

TUBM rachp raclp TERM

COMP DIAM DROI 0.011283792 LECT hp1d lp1d TERM

RACC TUBM LECT rachp

NTUB LECT p1d1
FACE LECT facehp TERM COEF 1.0

TERM
TERM DTUB 0.011283792

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT facelp TERM COEF 1.0

TERM
TERM DTUB 0.011283792

! Attention: the TUBM elements (rachp and raclp) are NOT included
! in the "mesh" object (although they ARE indeed passed in from Cast3m).
! For this reason we must add them explicitly in the GROU directive below
! if we want to have them in the extracted element groups.

GROU 2 ’nrachp’ LECT mesh rachp raclp TERM

COND XB GT 11.99 COND XB LT 12.01

’nraclp’ LECT mesh rachp raclp TERM

COND XB GT 21.99 COND XB LT 22.01

COUL ROUG LECT hp TERM

TURQ LECT lp TERM

VERT LECT rachp raclp TERM

MATE GAZP RO 14.4 GAMM 1.4 CV 720 PINI 12.E5 PREF 1.E5

LECT hp TERM

GAZP RO 1.20 GAMM 1.4 CV 720 PINI 1.0E5 PREF 1.E5

LECT lp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for rachp and raclp, but with the
! same characteristics as the materials used for hp and lp, respectively

GAZP RO 14.4 GAMM 1.4 CV 720 PINI 12.E5 PREF 1.E5

LECT rachp TERM

GAZP RO 1.20 GAMM 1.4 CV 720 PINI 1.0E5 PREF 1.E5

LECT raclp TERM
ECRI ECRO VFCC TFRE 1.E-3
!

NOPO NOEL
FICH ALIC TFRE 1.E-3

OPTI NOTE CSTA 0.75

LOG 1
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Reconstruction on the conserved variables
LMAS 2 ! Barth-Jespersen limiter (not Dubois)
LQDM 2
LENE 2
LVEL 2
LPRE 2
KBAR 1 ! Use version of B-J best suited for shock waves

CALC TINI 0 TEND 20.E-3
FIN

1d3d54p.epx

Post-treatment (space curves from alice file)
ECHO
OPTI PRIN
RESU ALIC ’1d3d54.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui TERM

COND LINE X1 0 Y1 0 Z1 0 X2 32 Y2 0 Z2 0 TOL 0.0001

SORT GRAP
PERF ’1d3d54.pun’
AXTE 1.0 ’Time [s]’
SCOU 61 ’p_21’

NSTO 21 SAXE 1.0 ’curr_abscissa’ LECT xaxo TERM

ECRO COMP 1

SCOU 62 ’ro_21’ NSTO 21 SAXE 1.0 ’curr_abscissa’ LECT xaxo TERM

ECRO COMP 2

SCOU 65 ’vx_21’ NSTO 21 SAXE 1.0 ’curr_abscissa’ LECT xaxo TERM

DCOU 71 ’p_ana’ SHTU GAMM 1.4 ROM 14.4 ROP 1.2 EINT 2.08333E5

VCVI COMP 1

LENM 16 LENP 16
TIME 20.E-3 NRAR 30 VARI 1

DCOU 72 ’r_ana’ SHTU GAMM 1.4 ROM 14.4 ROP 1.2 EINT 2.08333E5

LENM 16 LENP 16
TIME 20.E-3 NRAR 30 VARI 2

DCOU 75 ’v_ana’ SHTU GAMM 1.4 ROM 14.4 ROP 1.2 EINT 2.08333E5

LENM 16 LENP 16
TIME 20.E-3 NRAR 30 VARI 5

TRAC 61 71 AXES 1.0 ’PRESS. [PA]’
COLO NOIR ROUG
LIST 61 AXES 1.0 ’PRESS. [PA]’
TRAC 62 72 AXES 1.0 ’DENS. [KG/M3]’
COLO NOIR ROUG
LIST 62 AXES 1.0 ’DENS. [KG/M3]’
TRAC 65 75 AXES 1.0 ’VELOC. [M/S]’
COLO NOIR ROUG
LIST 65 AXES 1.0 ’VELOC. [M/S]’
FIN

1d3d64.dgibi

opti echo 1;
opti dime 3 elem cub8;
opti trac psc ftra ’1d3d64_mesh.ps’;
opti sauv form ’1d3d64.msh’;
*
lhp3d = 12.0;
lhp1d = 4.0;
llp1d = 6.0;
llp3d = 10.0;
nhp3d = 1200;
nhp1d = 400;
nlp1d = 600;
nlp3d = 1000;
h = lhp3d / nhp3d;
tol = h / 10;
*
p0 = 0 0 0;
p1 = 0 h 0;
p2 = 0 h h;
p3 = 0 0 h;
bashp3d = manu qua4 p0 p1 p2 p3;
hp3d = bashp3d volu tran nhp3d (lhp3d 0 0);
baslp3d = bashp3d plus ((lhp3d+lhp1d+llp1d) 0 0);
lp3d = baslp3d volu tran nlp3d (llp3d 0 0);
p1d1 = p0 plus (lhp3d 0 0);
p1d2 = p1d1 plus (lhp1d 0 0);
p1d3 = p1d2 plus (llp1d 0 0);
hp1d = p1d1 d nhp1d p1d2;
lp1d = p1d2 d nlp1d p1d3;
hp = hp3d et hp1d;
lp = lp3d et lp1d;
flui = hp et lp;
*
* raccords 3d-1d
*
facehp = bashp3d plus (lhp3d 0 0);
pfacehp = chan poi1 facehp;
elim tol (pfacehp et hp3d);
facelp = baslp3d;
pfacelp = chan poi1 facelp;
rachp = manu supe (p1d1 et facehp);
raclp = manu supe (p1d3 et facelp);
*
mesh = flui et facehp et facelp et rachp et raclp;
*
tass mesh noop;
sauv form mesh;
trac cach qual mesh;
*
fin;

1d3d64.epx

1D3D64
ECHO
!CONV win
CAST mesh
TRID EULE
DIME JONC 10 TERM ! Total n. of nodes in a TUBM juncton
GEOM CUVF hp3d lp3d TUVF hp1d lp1d CL3D facehp facelp

TUBM rachp raclp TERM

COMP DIAM DROI 0.011283792 LECT hp1d lp1d TERM

RACC TUBM LECT rachp

NTUB LECT p1d1
FACE LECT facehp TERM COEF 1.0

TERM
TERM DTUB 0.011283792

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT facelp TERM COEF 1.0

TERM
TERM DTUB 0.011283792

! Attention: the TUBM elements (rachp and raclp) are NOT included
! in the "mesh" object (although they ARE indeed passed in from Cast3m).

164

Friday 8th September, 2023 @ 14:00

! For this reason we must add them explicitly in the GROU directive below
! if we want to have them in the extracted element groups.

GROU 2 ’nrachp’ LECT mesh rachp raclp TERM

COND XB GT 11.99 COND XB LT 12.01

’nraclp’ LECT mesh rachp raclp TERM

COND XB GT 21.99 COND XB LT 22.01

COUL ROUG LECT hp TERM

TURQ LECT lp TERM

VERT LECT rachp raclp TERM

MATE GAZP RO 14.4 GAMM 1.4 CV 720 PINI 12.E5 PREF 1.E5

LECT hp TERM

GAZP RO 1.20 GAMM 1.4 CV 720 PINI 1.0E5 PREF 1.E5

LECT lp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for rachp and raclp, but with the
! same characteristics as the materials used for hp and lp, respectively

GAZP RO 14.4 GAMM 1.4 CV 720 PINI 12.E5 PREF 1.E5

LECT rachp TERM

GAZP RO 1.20 GAMM 1.4 CV 720 PINI 1.0E5 PREF 1.E5

LECT raclp TERM
ECRI ECRO VFCC TFRE 1.E-3
!

NOPO NOEL
FICH ALIC TFRE 1.E-3

OPTI NOTE CSTA 0.75

LOG 1
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 2 ! Reconstruction based on internal specific energy
LMAS 2 ! Barth-Jespersen limiter (not Dubois)
LQDM 2
LENE 2
LVEL 2
LPRE 2
KBAR 1 ! Use version of B-J best suited for shock waves

CALC TINI 0 TEND 20.E-3
FIN

1d3d64p.epx

Post-treatment (space curves from alice file)
ECHO
OPTI PRIN
RESU ALIC ’1d3d64.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui TERM

COND LINE X1 0 Y1 0 Z1 0 X2 32 Y2 0 Z2 0 TOL 0.0001

SORT GRAP
PERF ’1d3d64.pun’
AXTE 1.0 ’Time [s]’
SCOU 61 ’p_21’

NSTO 21 SAXE 1.0 ’curr_abscissa’ LECT xaxo TERM

ECRO COMP 1

SCOU 62 ’ro_21’ NSTO 21 SAXE 1.0 ’curr_abscissa’ LECT xaxo TERM

ECRO COMP 2

SCOU 65 ’vx_21’ NSTO 21 SAXE 1.0 ’curr_abscissa’ LECT xaxo TERM

DCOU 71 ’p_ana’ SHTU GAMM 1.4 ROM 14.4 ROP 1.2 EINT 2.08333E5

VCVI COMP 1

DCOU 72 ’r_ana’ SHTU GAMM 1.4 ROM 14.4 ROP 1.2 EINT 2.08333E5

LENM 16 LENP 16
TIME 20.E-3 NRAR 30 VARI 1

DCOU 75 ’v_ana’ SHTU GAMM 1.4 ROM 14.4 ROP 1.2 EINT 2.08333E5

LENM 16 LENP 16
TIME 20.E-3 NRAR 30 VARI 2

LENM 16 LENP 16
TIME 20.E-3 NRAR 30 VARI 5

TRAC 61 71 AXES 1.0 ’PRESS. [PA]’
COLO NOIR ROUG
LIST 61 AXES 1.0 ’PRESS. [PA]’
TRAC 62 72 AXES 1.0 ’DENS. [KG/M3]’
COLO NOIR ROUG
LIST 62 AXES 1.0 ’DENS. [KG/M3]’
TRAC 65 75 AXES 1.0 ’VELOC. [M/S]’
COLO NOIR ROUG
LIST 65 AXES 1.0 ’VELOC. [M/S]’
FIN

D14 S2 10.epx

D14_S2_10
ECHO
!CONV win
CAST ’S2.msh’ spec
EROS 1.0 CROI
TRID LAGR
DIME ADAP NPOI 100000
Q4GS 100000
CL3D 100000
T3GS 20000
CL3T 20000
PMAT 50000
NPIN 50000

ENDA

TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4
T3GS etri3
PMAT nplate
CL3D presur ppqua4

CL3T pptri3

TERM
COMP EPAI 0.8E-3 LECT plate nplate TERM

GROU 5 ’pp1’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

’plaEdg’ LECT plate DIFF pp1 TERM
COND YB LT 0.16
COND ZB LT 0.16

’nplatmp’ LECT nplate TERM

COND YB LT 0.16
COND ZB LT 0.16

’nplalim’ LECT nplate DIFF nplatmp TERM
’prec’

LECT preplat TERM
COND NEAR POIN 0.0 0.0 0.0

NGRO 4 ’blox’ LECT lframeb TERM COND X GT 0.0253

’symy’ LECT spec TERM COND Y LT 0.0001
’symz’ LECT spec TERM COND Z LT 0.0001
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0

COUL TURQ LECT lframeb TERM

VERT LECT plate TERM
ROSE LECT plaEdg TERM
ROUG LECT nplalim TERM
BLEU LECT uframe pp1 TERM

ORIE INVE LECT preplat TERM

INCLUDE ’p77_10e.txt’
ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1

LECT plate TERM

MATE VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100
QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 11.50E8 MXIT 50 ! Docol 1400M

QR1 2.410E8 CR1 610.9 QR2 1.641E8 CR2 95.8
PDOT 5.E-4 C 4.E-3 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 741.0E6
RESI 1
LECT plate TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT nplate TERM

IMPE PIMP RO 7850.0 PRES 43.9e6 PREF 0.0

LECT presur TERM

IMPE PIMP RO 7850 PRES 1.0 PREF 0.0 FONC 1

LECT preplat TERM

OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT blox TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT symy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT symz TERM

LINK DECO

PINB PENA SFAC 1.0

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT lframeb TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT uframe TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DIAM 0.0004 ADNP

LECT nplate TERM

EXCL PAIR 1 2

ECRI DEPL VITE ECRO FAIL TFRE 0.2E-3

POIN LECT cen TERM
NOELEM

FICH ALIT TFRE 0.1E-4

POIN LECT cen symy TERM
ELEM LECT prec TERM

FICH PVTK TFRE
GROU AUTO
VARI ECRO CONT FAIL DEPL VITE FLIA

0.1e-3

FICH SPLI ALIC TFRE 2.0E-4

OPTI NOTE CSTA 0.7

LOG 1
JAUM
LMST
ADAP RCON WHAN
PINS GRID DPIN 1.01
QUASI STATIQUE 1000. 0.7 FROM 0.0 UPTO 0.5e-3

CALC TINI 0 TEND 5.0E-3 TFAI 2.0E-8
FIN

D14 S2 10 FP.epx

D14_S2_10_FP
ECHO
!CONV win
CAST ’S2_FSI.msh’ mesh
TRID ALE
EROS 1.0 CROI
DIME ADAP NPOI 200000
CUVF 200000
Q4GS 60000
T3GS 10000
NVFI 600000
PMAT 50000
NPIN 50000

165

Friday 8th September, 2023 @ 14:00

ENDA
JONC 475 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4 ! mems pinbcm
T3GS etri3
CUVF flui3d tubelp3 tank
TUVF tubelp1
PMAT nplate
CL3D face3d presur abso stub3d ! pre
TUBM rac3d1d raclp

TERM
COMP EPAI 0.8e-3 LECT plate nplate TERM

DIAM DROI 0.1692568 LECT tubelp1 TERM
RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

TERM

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT stub3d TERM COEF 1.0

TERM
TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 21 ’endtube’ LECT tube TERM COND XB GT -0.6

’trigger’ LECT tube TERM COND NEAR POIN -0.1501 0 0
’frefine’ LECT flui TERM COND XB GT -0.3
1.0

COND XB LT

’pp1’

’pp2’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

’fcoup’ LECT flui

DX 0.1 DY 0.165 DZ 0.165
TERM COND XB GT -0.05
COND XB LT 0.150
COND YB LT 0.150
COND ZB LT 0.150
’scoup’ LECT plate TERM COND YB LT 0.150
COND ZB LT 0.150

’lfrb2’ LECT lframeb TERM

LECT uframe DIFF presur TERM

COND XB LT -0.865E-2
’lfrb1’ LECT lframeb DIFF lfrb2 TERM
’uframe2’
’S1’ LECT tube TERM COND NEAR POIN -0.345 0.0 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.0 0.15
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

NGRO 13 ’blox’

LECT lframeb TERM COND !X LT -0.0253

X GT 0.0253

COND Y LT 0.0001
COND Z LT 0.0001

’symy’ LECT plate TERM
’symz’ LECT plate TERM
’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0
’axis1’
’axis2’
’csymy’ LECT uframe lframeb TERM COND Y LT 0.0001
’csymz’ LECT uframe lframeb TERM COND Z LT 0.0001
’elfb’ LECT lframeb TERM COND ENVE
’nlfb’ LECT elfb

LECT plate TERM COND Y LT 0.0001
LECT plate TERM COND Z LT 0.0001

TERM COND X GT -0.01
COND X LT

0.001

’nbad1’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0.260 Z1 0
X2 0.001 Y2 0.260 Z2 0
R1 0.009 R2 0.009

’nbad2’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0 Z1 0.260
X2 0.001 Y2 0 Z2 0.260
R1 0.009 R2 0.009

COUL TURQ LECT tube tra lp3xl TERM
VERT LECT plate fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM

ROSE LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1 ! NOUN

LECT plate TERM
!
LECT pp2 TERM
GRIL LAGR LECT spec TERM
MATE

!LOI 1

GAZP RO 20.310 GAMM 1.4 CV 719.286 PINI 17.16E5 PREF 100.8E3

LECT none TERM

!LOI 2

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT none TERM

!LOI 3
GAZP RO 6.720 GAMM 1.4 CV 719.286 PINI 5.677E5 PREF 100.8E3

LECT none TERM

!LOI 4

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT flui3d TERM ! _cuvf TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT epar1 epar2 TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT rac3d1d raclp tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 6 7 LECT tubelpp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT tubelp3 tank _cuvf TERM

CLVF ABSO RO 1.187

LECT abso TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 11.50E8 MXIT 50 ! Docol 1400M

QR1 2.410E8 CR1 610.9 QR2 1.641E8 CR2 95.8
PDOT 5.E-4 C 4.E-3 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 741.0E6
RESI 1
LECT plate TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT nplate TERM

IMPE PIMP RO 7850.0 PRES 44.0011e6 PREF 1.011E5 !fc To be checked

LECT presur TERM ! _cl3d TERM

OPTI PINS ASN
LINK COUP SPLT NONE

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3

! MAIT LECT lframeb TERM

MAIT NODE LECT nlfb DIFF nbad1 nbad2 TERM
PESC LECT plate TERM

BLOQ 123 LECT blox TERM
GLIS 2

!
!
!
!
!
!
*
!
!
!
!
LINK DECO BLOQ 246 LECT symy TERM
BLOQ 345 LECT symz TERM
BLOQ 2 LECT csymy TERM
BLOQ 3 LECT csymz TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

PINB PENA SFAC 1.0

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT lframeb TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT uframe TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DIAM 0.0004 ADNP

LECT nplate TERM

EXCL PAIR 1 2

! 0.014

FLSW STRU LECT scoup TERM
FLUI LECT fcoup TERM
R 0.0087
HGRI 0.00606 ! 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 2 SCAL 6

TBLO 123

TRIG LECT lframeb uframe TERM

123456 TRIG LECT plate TERM

INIT MAPP FORM ’D7710600mape_01.map’ MATC OBJE LECT flui3d tubelp1 TERM
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 TERM
FICH ALIT FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 22.D-3 PAS 0.01D-3 80.D-3
POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 40.D-3
PAS 1.D-3 50.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA

!
!
!
!
!

FICH SPLI ALIC TFRE 0.5E-3

OPTI NOTE CSTA 0.4

GLIS NORM ELEM
STEP IO
LOG 1
JAUM
LMST
PINS GRID DPIN 1.01
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1
NTIL
ADAP RCON WHAN
ADAP RCON TRIG ECRO 1 TVAL 1.05E5 LECT trigger TERM
NOCR TRIG LECT plate lframeb uframe TERM
FLS CUB8 2 ! For the inverse mapping
CALC TINI 0 TEND 40.0E-3 TFAI 1.143E-8 ! 2.0E-8
FIN

166

Friday 8th September, 2023 @ 14:00

D14 S2 10 FPw.epx

D14_S2_10_FPW
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_10_FP.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.001E5 PAS 0.5E5 7.501E5 TERM

SUPP LECT tubelp3 tank TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 16 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_10_FP.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 10 FPx.epx

D14_S2_10_FPX
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_10_FP.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 10 FPy.epx

D14_S2_10_FPY
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_10_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 1
GOTR LOOP 16 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_10_FP.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 10 FPyy.epx

D14_S2_10_FPYY
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_10_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

GOTR LOOP 16 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

SYXZ
TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_10_FP.ali’ GARD PSCR

FREQ 1
GOTR LOOP 16 OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_10_FP.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================

167

Friday 8th September, 2023 @ 14:00

PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 10 FPz1.epx

D14_S2_10_FPZ1
ECHO

CONV WIN

RESU SPLI ALIC ’D14_S2_10_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

0.00000E+00
1.78574E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 16 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_10_FP.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 10 FPz2.epx

D14_S2_10_FPZ2
ECHO

CONV WIN

RESU SPLI ALIC ’D14_S2_10_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

0.00000E+00
1.78574E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00

0.00000E+00

!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 2 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 16 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_10_FP.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 10 z1.epx

D14_S2_10_Z1
ECHO

CONV WIN

RESU SPLI ALIC ’D14_S2_10.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

1.78574E+00
0.00000E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
1.00000E+00 0.00000E+00
UP
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
: 2.78423E+00
!FAR
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 25 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_10.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 10 z2.epx

D14_S2_10_Z2
ECHO

CONV WIN

RESU SPLI ALIC ’D14_S2_10.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================

168

Friday 8th September, 2023 @ 14:00

PLAY
CAME
!

6.49959E-01

1.78574E+00
0.00000E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 2 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 25 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_10.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 10f.epx

D14_S2_10F
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_10.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.85740E+00 2.10571E-03 2.10571E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -2.25515E-03 2.10571E-03 2.10571E-03
!RSPHERE: 4.63787E-01
!RADIUS : 1.85515E+00
!ASPECT : 1.00000E+00
: 1.39136E+00
!NEAR
!FAR
: 2.78272E+00
SCEN GEOM NAVI FREE

LINE HEOU SFRE

SLER CAM1 1 NFRA 1
FREQ 1
TRAC DEFO AMPD 0.0 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM
SYXY SYXZ ! TOLS 1.E-2
NFAI ADAP REND

D14 S2 15.epx

D14_S2_15
ECHO
!CONV win
CAST ’S2.msh’ spec
EROS 1.0 CROI
TRID LAGR
DIME ADAP NPOI 100000
Q4GS 100000
CL3D 100000
T3GS 20000
CL3T 20000
PMAT 50000
NPIN 50000

ENDA

TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4
T3GS etri3
PMAT nplate
CL3D presur ppqua4
CL3T pptri3

TERM
COMP EPAI 0.8E-3 LECT plate nplate TERM

GROU 5 ’pp1’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

’plaEdg’ LECT plate DIFF pp1 TERM
COND YB LT 0.16
COND ZB LT 0.16

’nplatmp’ LECT nplate TERM

COND YB LT 0.16
COND ZB LT 0.16

’nplalim’ LECT nplate DIFF nplatmp TERM
’prec’

LECT preplat TERM
COND NEAR POIN 0.0 0.0 0.0

NGRO 4 ’blox’ LECT lframeb TERM COND X GT 0.0253

’symy’ LECT spec TERM COND Y LT 0.0001
’symz’ LECT spec TERM COND Z LT 0.0001
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0

COUL TURQ LECT lframeb TERM

VERT LECT plate TERM
ROSE LECT plaEdg TERM
ROUG LECT nplalim TERM
BLEU LECT uframe pp1 TERM

ORIE INVE LECT preplat TERM

INCLUDE ’p77_15e.txt’
ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1

LECT plate TERM

MATE VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100
QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 11.50E8 MXIT 50 ! Docol 1400M

QR1 2.410E8 CR1 610.9 QR2 1.641E8 CR2 95.8
PDOT 5.E-4 C 4.E-3 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 741.0E6
RESI 1
LECT plate TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT nplate TERM

IMPE PIMP RO 7850.0 PRES 43.9e6 PREF 0.0

LECT presur TERM

IMPE PIMP RO 7850 PRES 1.0 PREF 0.0 FONC 1

LECT preplat TERM

OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT blox TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT symy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT symz TERM

LINK DECO

PINB PENA SFAC 1.0

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT lframeb TERM

GOTR LOOP 25 DEFO AMPD 0.0 OFFS SIZE 1200 1200 FICH BMP

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

OBJE LECT plate TERM
SYXY SYXZ ! TOLS 1.E-2
NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_10.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

LECT uframe TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DIAM 0.0004 ADNP

LECT nplate TERM

EXCL PAIR 1 2

ECRI DEPL VITE ECRO FAIL TFRE 0.2E-3

POIN LECT cen TERM
NOELEM

FICH ALIT TFRE 0.1E-4

POIN LECT cen symy TERM
ELEM LECT prec TERM

FICH PVTK TFRE
GROU AUTO
VARI ECRO CONT FAIL DEPL VITE FLIA

0.1e-3

FICH SPLI ALIC TFRE 2.0E-4

OPTI NOTE CSTA 0.7

LOG 1
JAUM

169

Friday 8th September, 2023 @ 14:00

LMST
ADAP RCON WHAN
PINS GRID DPIN 1.01
QUASI STATIQUE 1000. 0.7 FROM 0.0 UPTO 0.5e-3

CALC TINI 0 TEND 5.0E-3 TFAI 2.0E-8
FIN

D14 S2 15 FP.epx

D14_S2_15_FP
ECHO
!CONV win
CAST ’S2_FSI.msh’ mesh
TRID ALE
EROS 1.0 CROI
DIME ADAP NPOI 200000
CUVF 200000
Q4GS 60000
T3GS 10000
NVFI 600000
PMAT 50000
NPIN 50000

ENDA
JONC 475 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4 ! mems pinbcm
T3GS etri3
CUVF flui3d tubelp3 tank
TUVF tubelp1
PMAT nplate
CL3D face3d presur abso stub3d ! pre
TUBM rac3d1d raclp

TERM
COMP EPAI 0.8e-3 LECT plate nplate TERM

DIAM DROI 0.1692568 LECT tubelp1 TERM
RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

TERM

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT stub3d TERM COEF 1.0

TERM
TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 21 ’endtube’ LECT tube TERM COND XB GT -0.6

’trigger’ LECT tube TERM COND NEAR POIN -0.1501 0 0
’frefine’ LECT flui TERM COND XB GT -0.3
1.0

COND XB LT

’pp1’

’pp2’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

’fcoup’ LECT flui

DX 0.1 DY 0.165 DZ 0.165
TERM COND XB GT -0.05
COND XB LT 0.150
COND YB LT 0.150
COND ZB LT 0.150
’scoup’ LECT plate TERM COND YB LT 0.150
COND ZB LT 0.150

’lfrb2’ LECT lframeb TERM

LECT uframe DIFF presur TERM

COND XB LT -0.865E-2
’lfrb1’ LECT lframeb DIFF lfrb2 TERM
’uframe2’
’S1’ LECT tube TERM COND NEAR POIN -0.345 0.0 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.0 0.15
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

NGRO 13 ’blox’

LECT lframeb TERM COND !X LT -0.0253

X GT 0.0253

COND Y LT 0.0001
COND Z LT 0.0001

’symy’ LECT plate TERM
’symz’ LECT plate TERM
’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0
’axis1’
’axis2’
’csymy’ LECT uframe lframeb TERM COND Y LT 0.0001
’csymz’ LECT uframe lframeb TERM COND Z LT 0.0001
’elfb’ LECT lframeb TERM COND ENVE
’nlfb’ LECT elfb

LECT plate TERM COND Y LT 0.0001
LECT plate TERM COND Z LT 0.0001

TERM COND X GT -0.01
COND X LT

0.001

’nbad1’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0.260 Z1 0
X2 0.001 Y2 0.260 Z2 0
R1 0.009 R2 0.009

’nbad2’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0 Z1 0.260
X2 0.001 Y2 0 Z2 0.260
R1 0.009 R2 0.009

COUL TURQ LECT tube tra lp3xl TERM
VERT LECT plate fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM

ROSE LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1 ! NOUN

LECT plate TERM
!
LECT pp2 TERM
GRIL LAGR LECT spec TERM
MATE

!LOI 1

GAZP RO 20.310 GAMM 1.4 CV 719.286 PINI 17.16E5 PREF 100.8E3

LECT none TERM

!LOI 2

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT none TERM

!LOI 3
GAZP RO 6.720 GAMM 1.4 CV 719.286 PINI 5.677E5 PREF 100.8E3

LECT none TERM

!LOI 4

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT flui3d TERM ! _cuvf TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT epar1 epar2 TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT rac3d1d raclp tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 6 7 LECT tubelpp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT tubelp3 tank _cuvf TERM

CLVF ABSO RO 1.187

LECT abso TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 11.50E8 MXIT 50 ! Docol 1400M

QR1 2.410E8 CR1 610.9 QR2 1.641E8 CR2 95.8
PDOT 5.E-4 C 4.E-3 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 741.0E6
RESI 1
LECT plate TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT nplate TERM

IMPE PIMP RO 7850.0 PRES 44.0011e6 PREF 1.011E5 !fc To be checked

LECT presur TERM ! _cl3d TERM

OPTI PINS ASN
LINK COUP SPLT NONE

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3

! MAIT LECT lframeb TERM

MAIT NODE LECT nlfb DIFF nbad1 nbad2 TERM
PESC LECT plate TERM

BLOQ 123 LECT blox TERM
GLIS 2

!
!
!
!
!
!
*
!
!
!
!
LINK DECO BLOQ 246 LECT symy TERM
BLOQ 345 LECT symz TERM
BLOQ 2 LECT csymy TERM
BLOQ 3 LECT csymz TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

PINB PENA SFAC 1.0

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT lframeb TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT uframe TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DIAM 0.0004 ADNP

LECT nplate TERM

EXCL PAIR 1 2

! 0.014

FLSW STRU LECT scoup TERM
FLUI LECT fcoup TERM
R 0.0087
HGRI 0.00606 ! 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 2 SCAL 6

TBLO 123

TRIG LECT lframeb uframe TERM

123456 TRIG LECT plate TERM

INIT MAPP FORM ’D7715600map.map’ MATC OBJE LECT flui3d tubelp1 TERM
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 TERM
FICH ALIT FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 22.D-3 PAS 0.01D-3 80.D-3
POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

170

Friday 8th September, 2023 @ 14:00

!
!
!
!
!

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 40.D-3
PAS 1.D-3 50.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA

FICH SPLI ALIC TFRE 0.5E-3

OPTI NOTE CSTA 0.4

GLIS NORM ELEM
STEP IO
LOG 1
JAUM
LMST
PINS GRID DPIN 1.01
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1
NTIL
ADAP RCON WHAN
ADAP RCON TRIG ECRO 1 TVAL 1.05E5 LECT trigger TERM
NOCR TRIG LECT plate lframeb uframe TERM
FLS CUB8 2 ! For the inverse mapping
CALC TINI 0 TEND 36.0E-3 TFAI 1.143E-8 ! 2.0E-8
FIN

D14 S2 15 FPw.epx

D14_S2_15_FPW
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_15_FP.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
4.10207E-10
UP
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.001E5 PAS 0.5E5 7.501E5 TERM

SUPP LECT tubelp3 tank TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 14 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

LINE HEOU SFRE SSHA

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
LIMA ON
!
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D14 S2 15 FPx.epx

D14_S2_15_FPX
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_15_FP.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 14 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

LINE HEOU SFRE SSHA

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
!
LIMA ON
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D14 S2 15 FPy.epx

D14_S2_15_FPY
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_15_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 1
GOTR LOOP 14 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D14 S2 15 FPyy.epx

D14_S2_15_FPYY
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_15_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
1.00000E+00 0.00000E+00
UP
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

171

Friday 8th September, 2023 @ 14:00

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 14 OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
FIN

D14 S2 15 FPz1.epx

D14_S2_15_FPZ1
ECHO

CONV WIN

RESU SPLI ALIC ’D14_S2_15_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

0.00000E+00
1.78574E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
1.00000E+00 0.00000E+00
UP
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 14 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_15_FP.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 15 FPz2.epx

D14_S2_15_FPZ2
ECHO

CONV WIN

RESU SPLI ALIC ’D14_S2_15_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

0.00000E+00
1.78574E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
1.00000E+00 0.00000E+00
UP

0.00000E+00

FOV

2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 2 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 14 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_15_FP.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 15 z1.epx

D14_S2_15_Z1
ECHO

CONV WIN

RESU SPLI ALIC ’D14_S2_15.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

1 EYE
1.78574E+00
0.00000E+00
-9.84808E-01 0.00000E+00 -1.73648E-01
Q
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 25 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_15.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 15 z2.epx

D14_S2_15_Z2
ECHO

CONV WIN

RESU SPLI ALIC ’D14_S2_15.ali’ GARD PSCR

172

Friday 8th September, 2023 @ 14:00

COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

0.00000E+00
1.78574E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
: 2.78423E+00
!FAR
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 2 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 25 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_15.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 15f.epx

D14_S2_15F
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_15.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.85740E+00 2.10571E-03 2.10571E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -2.25515E-03 2.10571E-03 2.10571E-03
!RSPHERE: 4.63787E-01
!RADIUS : 1.85515E+00
!ASPECT : 1.00000E+00
: 1.39136E+00
!NEAR
!FAR
: 2.78272E+00
SCEN GEOM NAVI FREE

LINE HEOU SFRE

SLER CAM1 1 NFRA 1
FREQ 1
TRAC DEFO AMPD 0.0 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM
SYXY SYXZ ! TOLS 1.E-2
NFAI ADAP REND

MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 25.epx

D14_S2_25
ECHO
!CONV win
CAST ’S2.msh’ spec
EROS 1.0 CROI
TRID LAGR
DIME ADAP NPOI 100000
Q4GS 100000
CL3D 100000
T3GS 20000
CL3T 20000
PMAT 50000
NPIN 50000

ENDA

TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4
T3GS etri3
PMAT nplate
CL3D presur ppqua4
CL3T pptri3

TERM
COMP EPAI 0.8E-3 LECT plate nplate TERM

GROU 5 ’pp1’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

’plaEdg’ LECT plate DIFF pp1 TERM
COND YB LT 0.16
COND ZB LT 0.16

’nplatmp’ LECT nplate TERM

COND YB LT 0.16
COND ZB LT 0.16

’nplalim’ LECT nplate DIFF nplatmp TERM
’prec’

LECT preplat TERM
COND NEAR POIN 0.0 0.0 0.0

NGRO 4 ’blox’ LECT lframeb TERM COND X GT 0.0253

’symy’ LECT spec TERM COND Y LT 0.0001
’symz’ LECT spec TERM COND Z LT 0.0001
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0

COUL TURQ LECT lframeb TERM

VERT LECT plate TERM
ROSE LECT plaEdg TERM
ROUG LECT nplalim TERM
BLEU LECT uframe pp1 TERM

ORIE INVE LECT preplat TERM

INCLUDE ’p77_25e.txt’
ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1

LECT plate TERM

MATE VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100
QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 11.50E8 MXIT 50 ! Docol 1400M

QR1 2.410E8 CR1 610.9 QR2 1.641E8 CR2 95.8
PDOT 5.E-4 C 4.E-3 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 741.0E6
RESI 1
LECT plate TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT nplate TERM

IMPE PIMP RO 7850.0 PRES 43.9e6 PREF 0.0

LECT presur TERM

IMPE PIMP RO 7850 PRES 1.0 PREF 0.0 FONC 1

LECT preplat TERM

OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT blox TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT symy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT symz TERM

LINK DECO

PINB PENA SFAC 1.0

GOTR LOOP 25 DEFO AMPD 0.0 OFFS SIZE 1200 1200 FICH BMP

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

OBJE LECT plate TERM
SYXY SYXZ ! TOLS 1.E-2
NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_15.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY

LECT lframeb TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT uframe TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DIAM 0.0004 ADNP

LECT nplate TERM

EXCL PAIR 1 2

ECRI DEPL VITE ECRO FAIL TFRE 0.2E-3

POIN LECT cen TERM
NOELEM

FICH ALIT TFRE 0.1E-4

POIN LECT cen symy TERM
ELEM LECT prec TERM

FICH PVTK TFRE

0.1e-3

173

Friday 8th September, 2023 @ 14:00

GROU AUTO
VARI ECRO CONT FAIL DEPL VITE FLIA

FICH SPLI ALIC TFRE 2.0E-4

OPTI NOTE CSTA 0.7

LOG 1
JAUM
LMST
ADAP RCON WHAN
PINS GRID DPIN 1.01
QUASI STATIQUE 1000. 0.7 FROM 0.0 UPTO 0.5e-3

CALC TINI 0 TEND 5.0E-3 TFAI 2.0E-8
FIN

D14 S2 25 FP.epx

D14_S2_25_FP
ECHO
!CONV win
CAST ’S2_FSI.msh’ mesh
TRID ALE
EROS 1.0 CROI
DIME ADAP NPOI 200000
CUVF 200000
Q4GS 60000
T3GS 10000
NVFI 600000
PMAT 50000
NPIN 50000

ENDA
JONC 475 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4 ! mems pinbcm
T3GS etri3
CUVF flui3d tubelp3 tank
TUVF tubelp1
PMAT nplate
CL3D face3d presur abso stub3d ! pre
TUBM rac3d1d raclp

TERM
COMP EPAI 0.8e-3 LECT plate nplate TERM

DIAM DROI 0.1692568 LECT tubelp1 TERM
RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

TERM

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT stub3d TERM COEF 1.0

TERM
TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 21 ’endtube’ LECT tube TERM COND XB GT -0.6

’trigger’ LECT tube TERM COND NEAR POIN -0.1501 0 0
’frefine’ LECT flui TERM COND XB GT -0.3
1.0

COND XB LT

’pp1’

’pp2’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

’fcoup’ LECT flui

DX 0.1 DY 0.165 DZ 0.165
TERM COND XB GT -0.05
COND XB LT 0.150
COND YB LT 0.150
COND ZB LT 0.150
’scoup’ LECT plate TERM COND YB LT 0.150
COND ZB LT 0.150

’lfrb2’ LECT lframeb TERM

LECT uframe DIFF presur TERM

COND XB LT -0.865E-2
’lfrb1’ LECT lframeb DIFF lfrb2 TERM
’uframe2’
’S1’ LECT tube TERM COND NEAR POIN -0.345 0.0 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.0 0.15
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

NGRO 13 ’blox’

LECT lframeb TERM COND !X LT -0.0253

X GT 0.0253

COND Y LT 0.0001
COND Z LT 0.0001

’symy’ LECT plate TERM
’symz’ LECT plate TERM
’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0
’axis1’
’axis2’
’csymy’ LECT uframe lframeb TERM COND Y LT 0.0001
’csymz’ LECT uframe lframeb TERM COND Z LT 0.0001
’elfb’ LECT lframeb TERM COND ENVE
’nlfb’ LECT elfb

LECT plate TERM COND Y LT 0.0001
LECT plate TERM COND Z LT 0.0001

TERM COND X GT -0.01
COND X LT

0.001

’nbad1’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0.260 Z1 0

X2 0.001 Y2 0.260 Z2 0
R1 0.009 R2 0.009

’nbad2’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0 Z1 0.260
X2 0.001 Y2 0 Z2 0.260
R1 0.009 R2 0.009

COUL TURQ LECT tube tra lp3xl TERM
VERT LECT plate fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM

ROSE LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1 ! NOUN

LECT plate TERM
!
LECT pp2 TERM
GRIL LAGR LECT spec TERM
MATE

!LOI 1

GAZP RO 20.310 GAMM 1.4 CV 719.286 PINI 17.16E5 PREF 100.8E3

LECT none TERM

!LOI 2

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT none TERM

!LOI 3
GAZP RO 6.720 GAMM 1.4 CV 719.286 PINI 5.677E5 PREF 100.8E3

LECT none TERM

!LOI 4

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT flui3d TERM ! _cuvf TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT epar1 epar2 TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT rac3d1d raclp tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 6 7 LECT tubelpp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT tubelp3 tank _cuvf TERM

CLVF ABSO RO 1.187

LECT abso TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 11.50E8 MXIT 50 ! Docol 1400M

QR1 2.410E8 CR1 610.9 QR2 1.641E8 CR2 95.8
PDOT 5.E-4 C 4.E-3 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 741.0E6
RESI 1
LECT plate TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT nplate TERM

IMPE PIMP RO 7850.0 PRES 44.0011e6 PREF 1.011E5 !fc To be checked

LECT presur TERM ! _cl3d TERM

OPTI PINS ASN
LINK COUP SPLT NONE

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3

! MAIT LECT lframeb TERM

MAIT NODE LECT nlfb DIFF nbad1 nbad2 TERM
PESC LECT plate TERM

BLOQ 123 LECT blox TERM
GLIS 2

!
!
!
!
!
!
*
!
!
!
!
LINK DECO BLOQ 246 LECT symy TERM
BLOQ 345 LECT symz TERM
BLOQ 2 LECT csymy TERM
BLOQ 3 LECT csymz TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

PINB PENA SFAC 1.0

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT lframeb TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT uframe TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DIAM 0.0004 ADNP

LECT nplate TERM

EXCL PAIR 1 2

! 0.014

FLSW STRU LECT scoup TERM
FLUI LECT fcoup TERM
R 0.0087
HGRI 0.00606 ! 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 2 SCAL 6

TBLO 123

TRIG LECT lframeb uframe TERM

123456 TRIG LECT plate TERM

INIT MAPP FORM ’D7725600map.map’ MATC OBJE LECT flui3d tubelp1 TERM
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

174

Friday 8th September, 2023 @ 14:00

POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 TERM
FICH ALIT FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 22.D-3 PAS 0.01D-3 80.D-3
POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 40.D-3
PAS 1.D-3 50.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA

!
!
!
!
!

FICH SPLI ALIC TFRE 0.5E-3

OPTI NOTE CSTA 0.4

GLIS NORM ELEM
STEP IO
LOG 1
JAUM
LMST
PINS GRID DPIN 1.01
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1
NTIL
ADAP RCON WHAN
ADAP RCON TRIG ECRO 1 TVAL 1.05E5 LECT trigger TERM
NOCR TRIG LECT plate lframeb uframe TERM
FLS CUB8 2 ! For the inverse mapping
CALC TINI 0 TEND 34.0E-3 TFAI 1.143E-8 ! 2.0E-8
FIN

D14 S2 25 FPw.epx

D14_S2_25_FPW
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_25_FP.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
: 2.04449E+00
!FAR
SCEN GEOM NAVI FREE

LINE SFRE SSHA

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.001E5 PAS 0.5E5 7.501E5 TERM

SUPP LECT tubelp3 tank TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 12 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D14 S2 25 FPx.epx

D14_S2_25_FPX
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_25_FP.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 12 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D14 S2 25 FPy.epx

D14_S2_25_FPY
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_25_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
1.00000E+00 0.00000E+00
UP
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
: 2.87454E+00
!FAR
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 1
GOTR LOOP 12 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D14 S2 25 FPyy.epx

D14_S2_25_FPYY
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_25_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 12 OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
FIN

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01

D14 S2 25 FPz1.epx

175

Friday 8th September, 2023 @ 14:00

D14_S2_25_FPZ1
ECHO

CONV WIN

RESU SPLI ALIC ’D14_S2_25_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

0.00000E+00
1.78574E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 12 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_25_FP.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 25 FPz2.epx

D14_S2_25_FPZ2
ECHO

CONV WIN

RESU SPLI ALIC ’D14_S2_25_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

0.00000E+00
1.78574E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC

LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 2 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 12 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_25_FP.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 25 z1.epx

D14_S2_25_Z1
ECHO

CONV WIN

RESU SPLI ALIC ’D14_S2_25.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

1.78574E+00
0.00000E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
1.00000E+00 0.00000E+00
UP
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
: 2.78423E+00
!FAR
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 25 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_25.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 25 z2.epx

D14_S2_25_Z2
ECHO

CONV WIN

RESU SPLI ALIC ’D14_S2_25.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

1.78574E+00
0.00000E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA

176

Friday 8th September, 2023 @ 14:00

0.00000E+00

!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 2 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 25 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_25.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 25f.epx

D14_S2_25F
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_25.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.85740E+00 2.10571E-03 2.10571E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -2.25515E-03 2.10571E-03 2.10571E-03
!RSPHERE: 4.63787E-01
!RADIUS : 1.85515E+00
!ASPECT : 1.00000E+00
: 1.39136E+00
!NEAR
!FAR
: 2.78272E+00
SCEN GEOM NAVI FREE

LINE HEOU SFRE

SLER CAM1 1 NFRA 1
FREQ 1
TRAC DEFO AMPD 0.0 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM
SYXY SYXZ ! TOLS 1.E-2
NFAI ADAP REND

GOTR LOOP 25 DEFO AMPD 0.0 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM
SYXY SYXZ ! TOLS 1.E-2
NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_25.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 35.epx

D14_S2_35
ECHO

!CONV win
CAST ’S2.msh’ spec
EROS 1.0 CROI
TRID LAGR
DIME ADAP NPOI 100000
Q4GS 100000
CL3D 100000
T3GS 20000
CL3T 20000
PMAT 50000
NPIN 50000

ENDA

TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4
T3GS etri3
PMAT nplate
CL3D presur ppqua4
CL3T pptri3

TERM
COMP EPAI 0.8E-3 LECT plate nplate TERM

GROU 5 ’pp1’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

’plaEdg’ LECT plate DIFF pp1 TERM
COND YB LT 0.16
COND ZB LT 0.16

’nplatmp’ LECT nplate TERM

COND YB LT 0.16
COND ZB LT 0.16

’nplalim’ LECT nplate DIFF nplatmp TERM
’prec’

LECT preplat TERM
COND NEAR POIN 0.0 0.0 0.0

NGRO 4 ’blox’ LECT lframeb TERM COND X GT 0.0253

’symy’ LECT spec TERM COND Y LT 0.0001
’symz’ LECT spec TERM COND Z LT 0.0001
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0

COUL TURQ LECT lframeb TERM

VERT LECT plate TERM
ROSE LECT plaEdg TERM
ROUG LECT nplalim TERM
BLEU LECT uframe pp1 TERM

ORIE INVE LECT preplat TERM

INCLUDE ’p77_35e.txt’
ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1

LECT plate TERM

MATE VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100
QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 11.50E8 MXIT 50 ! Docol 1400M

QR1 2.410E8 CR1 610.9 QR2 1.641E8 CR2 95.8
PDOT 5.E-4 C 4.E-3 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 741.0E6
RESI 1
LECT plate TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT nplate TERM

IMPE PIMP RO 7850.0 PRES 43.9e6 PREF 0.0

LECT presur TERM

IMPE PIMP RO 7850 PRES 1.0 PREF 0.0 FONC 1

LECT preplat TERM

OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT blox TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT symy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT symz TERM

LINK DECO

PINB PENA SFAC 1.0

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT lframeb TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT uframe TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DIAM 0.0004 ADNP

LECT nplate TERM

EXCL PAIR 1 2

ECRI DEPL VITE ECRO FAIL TFRE 0.2E-3

POIN LECT cen TERM
NOELEM

FICH ALIT TFRE 0.1E-4

POIN LECT cen symy TERM
ELEM LECT prec TERM

FICH PVTK TFRE
GROU AUTO
VARI ECRO CONT FAIL DEPL VITE FLIA

0.1e-3

FICH SPLI ALIC TFRE 2.0E-4

OPTI NOTE CSTA 0.7

LOG 1
JAUM
LMST
ADAP RCON WHAN
PINS GRID DPIN 1.01
QUASI STATIQUE 1000. 0.7 FROM 0.0 UPTO 0.5e-3

CALC TINI 0 TEND 5.0E-3 TFAI 2.0E-8

177

Friday 8th September, 2023 @ 14:00

FIN

D14 S2 35 FPN.epx

D14_S2_35_FPN
ECHO
!CONV win
CAST ’S2_FSI.msh’ mesh
TRID ALE
EROS 1.0 CROI
DIME ADAP NPOI 200000
CUVF 200000
Q4GS 60000
T3GS 10000
NVFI 600000
PMAT 50000
NPIN 50000

ENDA
JONC 475 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4 ! mems pinbcm
T3GS etri3
CUVF flui3d tubelp3 tank
TUVF tubelp1
PMAT nplate
CL3D face3d presur abso stub3d ! pre
TUBM rac3d1d raclp

TERM
COMP EPAI 0.8e-3 LECT plate nplate TERM

DIAM DROI 0.1692568 LECT tubelp1 TERM
RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

TERM

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT stub3d TERM COEF 1.0

TERM
TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 21 ’endtube’ LECT tube TERM COND XB GT -0.6

’trigger’ LECT tube TERM COND NEAR POIN -0.1501 0 0
’frefine’ LECT flui TERM COND XB GT -0.3
1.0

COND XB LT

’pp1’

’pp2’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

’fcoup’ LECT flui

DX 0.1 DY 0.165 DZ 0.165
TERM COND XB GT -0.05
COND XB LT 0.150
COND YB LT 0.150
COND ZB LT 0.150
’scoup’ LECT plate TERM COND YB LT 0.150
COND ZB LT 0.150

’lfrb2’ LECT lframeb TERM

LECT uframe DIFF presur TERM

COND XB LT -0.865E-2
’lfrb1’ LECT lframeb DIFF lfrb2 TERM
’uframe2’
’S1’ LECT tube TERM COND NEAR POIN -0.345 0.0 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.0 0.15
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

NGRO 13 ’blox’

LECT lframeb TERM COND !X LT -0.0253

X GT 0.0253

COND Y LT 0.0001
COND Z LT 0.0001

’symy’ LECT plate TERM
’symz’ LECT plate TERM
’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0
’axis1’
’axis2’
’csymy’ LECT uframe lframeb TERM COND Y LT 0.0001
’csymz’ LECT uframe lframeb TERM COND Z LT 0.0001
’elfb’ LECT lframeb TERM COND ENVE
’nlfb’ LECT elfb

LECT plate TERM COND Y LT 0.0001
LECT plate TERM COND Z LT 0.0001

TERM COND X GT -0.01
COND X LT

0.001

’nbad1’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0.260 Z1 0
X2 0.001 Y2 0.260 Z2 0
R1 0.009 R2 0.009

’nbad2’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0 Z1 0.260
X2 0.001 Y2 0 Z2 0.260
R1 0.009 R2 0.009

COUL TURQ LECT tube tra lp3xl TERM
VERT LECT plate fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM

ROSE LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1 ! NOUN

LECT plate TERM
LECT pp2 TERM
!
GRIL LAGR LECT spec TERM
MATE

!LOI 1

GAZP RO 20.310 GAMM 1.4 CV 719.286 PINI 17.16E5 PREF 100.8E3

LECT none TERM

!LOI 2

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT none TERM

!LOI 3
GAZP RO 6.720 GAMM 1.4 CV 719.286 PINI 5.677E5 PREF 100.8E3

LECT none TERM

!LOI 4

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT flui3d TERM ! _cuvf TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT epar1 epar2 TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT rac3d1d raclp tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 6 7 LECT tubelpp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT tubelp3 tank _cuvf TERM

CLVF ABSO RO 1.187

LECT abso TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 11.50E8 MXIT 50 ! Docol 1400M

QR1 2.410E8 CR1 610.9 QR2 1.641E8 CR2 95.8
PDOT 5.E-4 C 4.E-3 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 741.0E6
RESI 1
LECT plate TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT nplate TERM

IMPE PIMP RO 7850.0 PRES 44.0011e6 PREF 1.011E5 !fc To be checked

LECT presur TERM ! _cl3d TERM

OPTI PINS ASN
LINK COUP SPLT NONE

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3

! MAIT LECT lframeb TERM

MAIT NODE LECT nlfb DIFF nbad1 nbad2 TERM
PESC LECT plate TERM

BLOQ 123 LECT blox TERM
GLIS 2

!
!
!
!
!
!
*
!
!
!
!
LINK DECO BLOQ 246 LECT symy TERM
BLOQ 345 LECT symz TERM
BLOQ 2 LECT csymy TERM
BLOQ 3 LECT csymz TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

PINB PENA SFAC 1.0

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT lframeb TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT uframe TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DIAM 0.0004 ADNP

LECT nplate TERM

EXCL PAIR 1 2

! 0.014

FLSW STRU LECT scoup TERM
FLUI LECT fcoup TERM
R 0.0087
HGRI 0.00606 ! 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 2 SCAL 6

TBLO 123

TRIG LECT lframeb uframe TERM

123456 TRIG LECT plate TERM

INIT MAPP FORM ’D7735600map.map’ MATC OBJE LECT flui3d tubelp1 TERM
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 TERM
FICH ALIT FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 22.D-3 PAS 0.01D-3 80.D-3
POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 40.D-3
PAS 1.D-3 50.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA

!
!
!
!
!

178

Friday 8th September, 2023 @ 14:00

FICH SPLI ALIC TFRE 0.5E-3

OPTI NOTE CSTA 0.4

GLIS NORM ELEM
STEP IO
LOG 1
JAUM
LMST
PINS GRID DPIN 1.01
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1
NTIL
ADAP RCON WHAN
ADAP RCON TRIG ECRO 1 TVAL 1.05E5 LECT trigger TERM
NOCR TRIG LECT plate lframeb uframe TERM
FLS CUB8 2 ! For the inverse mapping
CALC TINI 0 TEND 32.0E-3 TFAI 1.143E-8 ! 2.0E-8
FIN

D14 S2 35 FPNw.epx

D14_S2_35_FPNW
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_35_FPN.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.001E5 PAS 0.5E5 7.501E5 TERM

SUPP LECT tubelp3 tank TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

LINE HEOU SFRE SSHA

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
!
LIMA ON
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D14 S2 35 FPNx.epx

D14_S2_35_FPNX
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_35_FPN.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00

!NEAR
!FAR
SCEN GEOM NAVI FREE

: 1.31529E+00
: 2.04449E+00

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

LINE HEOU SFRE SSHA

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
!
LIMA ON
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D14 S2 35 FPNy.epx

D14_S2_35_FPNY
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_35_FPN.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
1.00000E+00 0.00000E+00
UP
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D14 S2 35 FPNyy.epx

D14_S2_35_FPNYY
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_35_FPN.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

179

Friday 8th September, 2023 @ 14:00

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
FIN

D14 S2 35 FPNz1.epx

D14_S2_35_FPNZ1
ECHO

CONV WIN

RESU SPLI ALIC ’D14_S2_35_FPN.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

0.00000E+00
1.78574E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_35_FPN.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 35 FPNz2.epx

D14_S2_35_FPNZ2
ECHO

CONV WIN

RESU SPLI ALIC ’D14_S2_35_FPN.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

0.00000E+00
1.78574E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00

0.00000E+00

!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 2 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_35_FPN.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 35 z1.epx

D14_S2_35_Z1
ECHO

CONV WIN

RESU SPLI ALIC ’D14_S2_35.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

1.78574E+00
0.00000E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
1.00000E+00 0.00000E+00
UP
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
: 2.78423E+00
!FAR
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 25 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_35.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 35 z2.epx

D14_S2_35_Z2
ECHO

CONV WIN

RESU SPLI ALIC ’D14_S2_35.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1

180

Friday 8th September, 2023 @ 14:00

*=======================================================================
PLAY
CAME
!

0.00000E+00

6.49959E-01

0.00000E+00
1.78574E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 2 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 25 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_35.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D14 S2 35f.epx

D14_S2_35F
ECHO
!CONV WIN
RESU SPLI ALIC ’D14_S2_35.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.85740E+00 2.10571E-03 2.10571E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -2.25515E-03 2.10571E-03 2.10571E-03
!RSPHERE: 4.63787E-01
!RADIUS : 1.85515E+00
!ASPECT : 1.00000E+00
: 1.39136E+00
!NEAR
!FAR
: 2.78272E+00
SCEN GEOM NAVI FREE

LINE HEOU SFRE

SLER CAM1 1 NFRA 1
FREQ 1
TRAC DEFO AMPD 0.0 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM
SYXY SYXZ ! TOLS 1.E-2
NFAI ADAP REND

*=================================================================
FIN

D6 S2 10.epx

D6_S2_10
ECHO
!CONV win
CAST ’S2.msh’ spec
EROS 1.0 CROI
TRID LAGR
DIME ADAP NPOI 100000
Q4GS 100000
CL3D 100000
T3GS 20000
CL3T 20000
PMAT 50000
NPIN 50000

ENDA

TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4
T3GS etri3
PMAT nplate
CL3D presur ppqua4
CL3T pptri3

TERM
COMP EPAI 0.8E-3 LECT plate nplate TERM

GROU 5 ’pp1’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

’plaEdg’ LECT plate DIFF pp1 TERM
COND YB LT 0.16
COND ZB LT 0.16

’nplatmp’ LECT nplate TERM

COND YB LT 0.16
COND ZB LT 0.16

’nplalim’ LECT nplate DIFF nplatmp TERM
’prec’

LECT preplat TERM
COND NEAR POIN 0.0 0.0 0.0

NGRO 4 ’blox’ LECT lframeb TERM COND X GT 0.0253

’symy’ LECT spec TERM COND Y LT 0.0001
’symz’ LECT spec TERM COND Z LT 0.0001
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0

COUL TURQ LECT lframeb TERM

VERT LECT plate TERM
ROSE LECT plaEdg TERM
ROUG LECT nplalim TERM
BLEU LECT uframe pp1 TERM

ORIE INVE LECT preplat TERM

INCLUDE ’p77_10e.txt’
ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1

LECT plate TERM

MATE VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100
QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100 ! Docol 600

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT plate TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT nplate TERM

IMPE PIMP RO 7850.0 PRES 43.9e6 PREF 0.0

LECT presur TERM

IMPE PIMP RO 7850 PRES 1.0 PREF 0.0 FONC 1

LECT preplat TERM

OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT blox TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT symy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT symz TERM

LINK DECO

PINB PENA SFAC 1.0

GOTR LOOP 25 DEFO AMPD 0.0 OFFS SIZE 1200 1200 FICH BMP

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

OBJE LECT plate TERM
SYXY SYXZ ! TOLS 1.E-2
NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D14_S2_35.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY

LECT lframeb TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT uframe TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DIAM 0.0004 ADNP

LECT nplate TERM

EXCL PAIR 1 2

ECRI DEPL VITE ECRO FAIL TFRE 0.2E-3

POIN LECT cen TERM
NOELEM

FICH ALIT TFRE 0.1E-4

POIN LECT cen symy TERM
ELEM LECT prec TERM

FICH PVTK TFRE
GROU AUTO
VARI ECRO CONT FAIL DEPL VITE FLIA

0.1e-3

181

Friday 8th September, 2023 @ 14:00

FICH SPLI ALIC TFRE 2.0E-4

OPTI NOTE CSTA 0.7

LOG 1
JAUM
LMST
ADAP RCON WHAN
PINS GRID DPIN 1.01
QUASI STATIQUE 1000. 0.7 FROM 0.0 UPTO 0.5e-3

CALC TINI 0 TEND 5.0E-3 TFAI 2.0E-8
FIN

D6 S2 10 FP.epx

D6_S2_10_FP
ECHO
!CONV win
CAST ’S2_FSI.msh’ mesh
TRID ALE
EROS 1.0 CROI
DIME ADAP NPOI 200000
CUVF 200000
Q4GS 60000
T3GS 10000
NVFI 600000
PMAT 50000
NPIN 50000

ENDA
JONC 475 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4 ! mems pinbcm
T3GS etri3
CUVF flui3d tubelp3 tank
TUVF tubelp1
PMAT nplate
CL3D face3d presur abso stub3d ! pre
TUBM rac3d1d raclp

TERM
COMP EPAI 0.8e-3 LECT plate nplate TERM

DIAM DROI 0.1692568 LECT tubelp1 TERM
RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

TERM

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT stub3d TERM COEF 1.0

TERM
TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 21 ’endtube’ LECT tube TERM COND XB GT -0.6

’trigger’ LECT tube TERM COND NEAR POIN -0.1501 0 0
’frefine’ LECT flui TERM COND XB GT -0.3
1.0

COND XB LT

’pp1’

’pp2’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

’fcoup’ LECT flui

DX 0.1 DY 0.165 DZ 0.165
TERM COND XB GT -0.05
COND XB LT 0.150
COND YB LT 0.150
COND ZB LT 0.150
’scoup’ LECT plate TERM COND YB LT 0.150
COND ZB LT 0.150

’lfrb2’ LECT lframeb TERM

LECT uframe DIFF presur TERM

COND XB LT -0.865E-2
’lfrb1’ LECT lframeb DIFF lfrb2 TERM
’uframe2’
’S1’ LECT tube TERM COND NEAR POIN -0.345 0.0 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.0 0.15
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

NGRO 13 ’blox’

LECT lframeb TERM COND !X LT -0.0253

X GT 0.0253

COND Y LT 0.0001
COND Z LT 0.0001

’symy’ LECT plate TERM
’symz’ LECT plate TERM
’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0
’axis1’
’axis2’
’csymy’ LECT uframe lframeb TERM COND Y LT 0.0001
’csymz’ LECT uframe lframeb TERM COND Z LT 0.0001
’elfb’ LECT lframeb TERM COND ENVE
’nlfb’ LECT elfb

LECT plate TERM COND Y LT 0.0001
LECT plate TERM COND Z LT 0.0001

TERM COND X GT -0.01
COND X LT

0.001

’nbad1’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0.260 Z1 0
X2 0.001 Y2 0.260 Z2 0
R1 0.009 R2 0.009

’nbad2’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0 Z1 0.260
X2 0.001 Y2 0 Z2 0.260
R1 0.009 R2 0.009

COUL TURQ LECT tube tra lp3xl TERM
VERT LECT plate fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM

ROSE LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1 ! NOUN

LECT plate TERM
!
LECT pp2 TERM
GRIL LAGR LECT spec TERM
MATE

!LOI 1

GAZP RO 20.310 GAMM 1.4 CV 719.286 PINI 17.16E5 PREF 100.8E3

LECT none TERM

!LOI 2

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT none TERM

!LOI 3
GAZP RO 6.720 GAMM 1.4 CV 719.286 PINI 5.677E5 PREF 100.8E3

LECT none TERM

!LOI 4

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT flui3d TERM ! _cuvf TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT epar1 epar2 TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT rac3d1d raclp tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 6 7 LECT tubelpp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT tubelp3 tank _cuvf TERM

CLVF ABSO RO 1.187

LECT abso TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100 ! Docol 600

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT plate TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT nplate TERM

IMPE PIMP RO 7850.0 PRES 44.0011e6 PREF 1.011E5 !fc To be checked

LECT presur TERM ! _cl3d TERM

OPTI PINS ASN
LINK COUP SPLT NONE

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3

! MAIT LECT lframeb TERM

MAIT NODE LECT nlfb DIFF nbad1 nbad2 TERM
PESC LECT plate TERM

BLOQ 123 LECT blox TERM
GLIS 2

!
!
!
!
!
!
*
!
!
!
!
LINK DECO BLOQ 246 LECT symy TERM
BLOQ 345 LECT symz TERM
BLOQ 2 LECT csymy TERM
BLOQ 3 LECT csymz TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

PINB PENA SFAC 1.0

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT lframeb TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT uframe TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DIAM 0.0004 ADNP

LECT nplate TERM

EXCL PAIR 1 2

! 0.014

FLSW STRU LECT scoup TERM
FLUI LECT fcoup TERM
R 0.0087
HGRI 0.00606 ! 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 2 SCAL 6

TBLO 123

TRIG LECT lframeb uframe TERM

123456 TRIG LECT plate TERM

INIT MAPP FORM ’D7710600mape_01.map’ MATC OBJE LECT flui3d tubelp1 TERM
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 TERM

182

Friday 8th September, 2023 @ 14:00

FICH ALIT FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 22.D-3 PAS 0.01D-3 80.D-3
POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 40.D-3
PAS 1.D-3 50.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA

!
!
!
!
!

FICH SPLI ALIC TFRE 0.5E-3

OPTI NOTE CSTA 0.4

GLIS NORM ELEM
STEP IO
LOG 1
JAUM
LMST
PINS GRID DPIN 1.01
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1
NTIL
ADAP RCON WHAN
ADAP RCON TRIG ECRO 1 TVAL 1.05E5 LECT trigger TERM
NOCR TRIG LECT plate lframeb uframe TERM
FLS CUB8 2 ! For the inverse mapping
CALC TINI 0 TEND 40.0E-3 TFAI 1.143E-8 ! 2.0E-8
FIN

D6 S2 10 FPw.epx

D6_S2_10_FPW
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_10_FP.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.001E5 PAS 0.5E5 7.501E5 TERM

SUPP LECT tubelp3 tank TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 12 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_10_FP.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 10 FPx.epx

D6_S2_10_FPX
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_10_FP.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------

CAME
!

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 12 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_10_FP.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 10 FPy.epx

D6_S2_10_FPY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_10_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 1
GOTR LOOP 12 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_10_FP.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 10 FPyy.epx

D6_S2_10_FPYY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_10_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY

183

Friday 8th September, 2023 @ 14:00

CAME
!

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 12 OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_10_FP.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 10 FPz1.epx

D6_S2_10_FPZ1
ECHO

CONV WIN

RESU SPLI ALIC ’D6_S2_10_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

0.00000E+00
1.78574E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 12 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_10_FP.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 10 FPz2.epx

D6_S2_10_FPZ2
ECHO

CONV WIN

RESU SPLI ALIC ’D6_S2_10_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

1.78574E+00
0.00000E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 2 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 12 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_10_FP.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 10 z1.epx

D6_S2_10_Z1
ECHO

CONV WIN

RESU SPLI ALIC ’D6_S2_10.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

1.78574E+00
0.00000E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

184

Friday 8th September, 2023 @ 14:00

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 25 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_10.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 10 z2.epx

D6_S2_10_Z2
ECHO

CONV WIN

RESU SPLI ALIC ’D6_S2_10.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

0.00000E+00
1.78574E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
1.00000E+00 0.00000E+00
UP
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 2 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 25 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_10.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 10f.epx

D6_S2_10F
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_10.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
PLAY
CAME
!

1 EYE -1.85740E+00 2.10571E-03 2.10571E-03

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
1.00000E+00 0.00000E+00
UP

0.00000E+00

FOV

2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -2.25515E-03 2.10571E-03 2.10571E-03
!RSPHERE: 4.63787E-01
!RADIUS : 1.85515E+00
!ASPECT : 1.00000E+00
: 1.39136E+00
!NEAR
!FAR
: 2.78272E+00
SCEN GEOM NAVI FREE

LINE HEOU SFRE

SLER CAM1 1 NFRA 1
FREQ 1
TRAC DEFO AMPD 0.0 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM
SYXY SYXZ ! TOLS 1.E-2
NFAI ADAP REND

GOTR LOOP 25 DEFO AMPD 0.0 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM
SYXY SYXZ ! TOLS 1.E-2
NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_10.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 15.epx

D6_S2_15
ECHO
!CONV win
CAST ’S2.msh’ spec
EROS 1.0 CROI
TRID LAGR
DIME ADAP NPOI 100000
Q4GS 100000
CL3D 100000
T3GS 20000
CL3T 20000
PMAT 50000
NPIN 50000

ENDA

TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4
T3GS etri3
PMAT nplate
CL3D presur ppqua4
CL3T pptri3

TERM
COMP EPAI 0.8E-3 LECT plate nplate TERM

GROU 5 ’pp1’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

’plaEdg’ LECT plate DIFF pp1 TERM
COND YB LT 0.16
COND ZB LT 0.16

’nplatmp’ LECT nplate TERM

COND YB LT 0.16
COND ZB LT 0.16

’nplalim’ LECT nplate DIFF nplatmp TERM
’prec’

LECT preplat TERM
COND NEAR POIN 0.0 0.0 0.0

NGRO 4 ’blox’ LECT lframeb TERM COND X GT 0.0253

’symy’ LECT spec TERM COND Y LT 0.0001
’symz’ LECT spec TERM COND Z LT 0.0001
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0

COUL TURQ LECT lframeb TERM

VERT LECT plate TERM
ROSE LECT plaEdg TERM
ROUG LECT nplalim TERM
BLEU LECT uframe pp1 TERM

ORIE INVE LECT preplat TERM

INCLUDE ’p77_15e.txt’
ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1

LECT plate TERM

MATE VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100
QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100 ! Docol 600

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0

185

Friday 8th September, 2023 @ 14:00

TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT plate TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT nplate TERM

IMPE PIMP RO 7850.0 PRES 43.9e6 PREF 0.0

LECT presur TERM

IMPE PIMP RO 7850 PRES 1.0 PREF 0.0 FONC 1

LECT preplat TERM

OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT blox TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT symy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT symz TERM

LINK DECO

PINB PENA SFAC 1.0

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT lframeb TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT uframe TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DIAM 0.0004 ADNP

LECT nplate TERM

EXCL PAIR 1 2

ECRI DEPL VITE ECRO FAIL TFRE 0.2E-3

POIN LECT cen TERM
NOELEM

FICH ALIT TFRE 0.1E-4

POIN LECT cen symy TERM
ELEM LECT prec TERM

FICH PVTK TFRE
GROU AUTO
VARI ECRO CONT FAIL DEPL VITE FLIA

0.1e-3

FICH SPLI ALIC TFRE 2.0E-4

OPTI NOTE CSTA 0.7

LOG 1
JAUM
LMST
ADAP RCON WHAN
PINS GRID DPIN 1.01
QUASI STATIQUE 1000. 0.7 FROM 0.0 UPTO 0.5e-3

CALC TINI 0 TEND 5.0E-3 TFAI 2.0E-8
FIN

D6 S2 15 FP.epx

D6_S2_15_FP
ECHO
!CONV win
CAST ’S2_FSI.msh’ mesh
TRID ALE
EROS 1.0 CROI
DIME ADAP NPOI 200000
CUVF 200000
Q4GS 60000
T3GS 10000
NVFI 600000
PMAT 50000
NPIN 50000

ENDA
JONC 475 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4 ! mems pinbcm
T3GS etri3
CUVF flui3d tubelp3 tank
TUVF tubelp1
PMAT nplate
CL3D face3d presur abso stub3d ! pre
TUBM rac3d1d raclp

TERM
COMP EPAI 0.8e-3 LECT plate nplate TERM

DIAM DROI 0.1692568 LECT tubelp1 TERM
RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

TERM

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT stub3d TERM COEF 1.0

TERM
TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 21 ’endtube’ LECT tube TERM COND XB GT -0.6

’trigger’ LECT tube TERM COND NEAR POIN -0.1501 0 0
’frefine’ LECT flui TERM COND XB GT -0.3
1.0

COND XB LT

’pp1’

’pp2’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

’fcoup’ LECT flui

DX 0.1 DY 0.165 DZ 0.165
TERM COND XB GT -0.05
COND XB LT 0.150
COND YB LT 0.150
COND ZB LT 0.150
’scoup’ LECT plate TERM COND YB LT 0.150
COND ZB LT 0.150

’lfrb2’ LECT lframeb TERM

LECT uframe DIFF presur TERM

COND XB LT -0.865E-2
’lfrb1’ LECT lframeb DIFF lfrb2 TERM
’uframe2’
’S1’ LECT tube TERM COND NEAR POIN -0.345 0.0 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.0 0.15
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

NGRO 13 ’blox’

LECT lframeb TERM COND !X LT -0.0253

X GT 0.0253

COND Y LT 0.0001
COND Z LT 0.0001

’symy’ LECT plate TERM
’symz’ LECT plate TERM
’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0
’axis1’
’axis2’
’csymy’ LECT uframe lframeb TERM COND Y LT 0.0001
’csymz’ LECT uframe lframeb TERM COND Z LT 0.0001
’elfb’ LECT lframeb TERM COND ENVE
’nlfb’ LECT elfb

LECT plate TERM COND Y LT 0.0001
LECT plate TERM COND Z LT 0.0001

TERM COND X GT -0.01
COND X LT

0.001

’nbad1’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0.260 Z1 0
X2 0.001 Y2 0.260 Z2 0
R1 0.009 R2 0.009

’nbad2’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0 Z1 0.260
X2 0.001 Y2 0 Z2 0.260
R1 0.009 R2 0.009

COUL TURQ LECT tube tra lp3xl TERM
VERT LECT plate fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM

ROSE LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1 ! NOUN

LECT plate TERM
!
LECT pp2 TERM
GRIL LAGR LECT spec TERM
MATE

!LOI 1

GAZP RO 20.310 GAMM 1.4 CV 719.286 PINI 17.16E5 PREF 100.8E3

LECT none TERM

!LOI 2

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT none TERM

!LOI 3
GAZP RO 6.720 GAMM 1.4 CV 719.286 PINI 5.677E5 PREF 100.8E3

LECT none TERM

!LOI 4

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT flui3d TERM ! _cuvf TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT epar1 epar2 TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT rac3d1d raclp tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 6 7 LECT tubelpp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT tubelp3 tank _cuvf TERM

CLVF ABSO RO 1.187

LECT abso TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100 ! Docol 600

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT plate TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT nplate TERM

IMPE PIMP RO 7850.0 PRES 44.0011e6 PREF 1.011E5 !fc To be checked

LECT presur TERM ! _cl3d TERM

OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT blox TERM
GLIS 2

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3

! MAIT LECT lframeb TERM

MAIT NODE LECT nlfb DIFF nbad1 nbad2 TERM
PESC LECT plate TERM

!
!
!
!
!
!

186

Friday 8th September, 2023 @ 14:00

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

*
!
!
!
!
LINK DECO BLOQ 246 LECT symy TERM
BLOQ 345 LECT symz TERM
BLOQ 2 LECT csymy TERM
BLOQ 3 LECT csymz TERM

PINB PENA SFAC 1.0

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT lframeb TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT uframe TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DIAM 0.0004 ADNP

LECT nplate TERM

EXCL PAIR 1 2

! 0.014

FLSW STRU LECT scoup TERM
FLUI LECT fcoup TERM
R 0.0087
HGRI 0.00606 ! 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 2 SCAL 6

TBLO 123

TRIG LECT lframeb uframe TERM

123456 TRIG LECT plate TERM

INIT MAPP FORM ’D7715600map.map’ MATC OBJE LECT flui3d tubelp1 TERM
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 TERM
FICH ALIT FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 22.D-3 PAS 0.01D-3 80.D-3
POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 40.D-3
PAS 1.D-3 50.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA

!
!
!
!
!

FICH SPLI ALIC TFRE 0.5E-3

OPTI NOTE CSTA 0.4

GLIS NORM ELEM
STEP IO
LOG 1
JAUM
LMST
PINS GRID DPIN 1.01
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1
NTIL
ADAP RCON WHAN
ADAP RCON TRIG ECRO 1 TVAL 1.05E5 LECT trigger TERM
NOCR TRIG LECT plate lframeb uframe TERM
FLS CUB8 2 ! For the inverse mapping
CALC TINI 0 TEND 36.0E-3 TFAI 1.143E-8 ! 2.0E-8
FIN

D6 S2 15 FPw.epx

D6_S2_15_FPW
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_15_FP.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
4.10207E-10
UP
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.001E5 PAS 0.5E5 7.501E5 TERM

SUPP LECT tubelp3 tank TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 14 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

ENDPLAY
*=======================================================================
FIN

SYXZ
TOLS 1.E-3 NFAI REND

D6 S2 15 FPx.epx

D6_S2_15_FPX
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_15_FP.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 14 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D6 S2 15 FPy.epx

D6_S2_15_FPY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_15_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
1.00000E+00 0.00000E+00
UP
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 1
GOTR LOOP 14 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D6 S2 15 FPyy.epx

D6_S2_15_FPYY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_15_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

187

Friday 8th September, 2023 @ 14:00

!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 14 OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
FIN

D6 S2 15 FPz1.epx

D6_S2_15_FPZ1
ECHO

CONV WIN

RESU SPLI ALIC ’D6_S2_15_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

0.00000E+00
1.78574E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 14 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_15_FP.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 15 FPz2.epx

D6_S2_15_FPZ2
ECHO

CONV WIN

RESU SPLI ALIC ’D6_S2_15_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY

CAME
!

6.49959E-01

1.78574E+00
0.00000E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
1.00000E+00 0.00000E+00
UP
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 2 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 14 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_15_FP.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 15 z1.epx

D6_S2_15_Z1
ECHO

CONV WIN

RESU SPLI ALIC ’D6_S2_15.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

1.78574E+00
0.00000E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
1.00000E+00 0.00000E+00
UP
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 25 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================

188

Friday 8th September, 2023 @ 14:00

SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_15.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 15 z2.epx

D6_S2_15_Z2
ECHO

CONV WIN

RESU SPLI ALIC ’D6_S2_15.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

0.00000E+00
1.78574E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
: 2.78423E+00
!FAR
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 2 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 25 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_15.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 15f.epx

D6_S2_15F
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_15.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.85740E+00 2.10571E-03 2.10571E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -2.25515E-03 2.10571E-03 2.10571E-03
!RSPHERE: 4.63787E-01
!RADIUS : 1.85515E+00
!ASPECT : 1.00000E+00
: 1.39136E+00
!NEAR
!FAR
: 2.78272E+00
SCEN GEOM NAVI FREE

LINE HEOU SFRE

SLER CAM1 1 NFRA 1
FREQ 1
TRAC DEFO AMPD 0.0 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM
SYXY SYXZ ! TOLS 1.E-2
NFAI ADAP REND

GOTR LOOP 25 DEFO AMPD 0.0 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM
SYXY SYXZ ! TOLS 1.E-2
NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_15.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 25.epx

D6_S2_25
ECHO
!CONV win
CAST ’S2.msh’ spec
EROS 1.0 CROI
TRID LAGR
DIME ADAP NPOI 100000
Q4GS 100000
CL3D 100000
T3GS 20000
CL3T 20000
PMAT 50000
NPIN 50000

ENDA

TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4
T3GS etri3
PMAT nplate
CL3D presur ppqua4
CL3T pptri3

TERM
COMP EPAI 0.8E-3 LECT plate nplate TERM

GROU 5 ’pp1’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

’plaEdg’ LECT plate DIFF pp1 TERM
COND YB LT 0.16
COND ZB LT 0.16

’nplatmp’ LECT nplate TERM

COND YB LT 0.16
COND ZB LT 0.16

’nplalim’ LECT nplate DIFF nplatmp TERM
’prec’

LECT preplat TERM
COND NEAR POIN 0.0 0.0 0.0

NGRO 4 ’blox’ LECT lframeb TERM COND X GT 0.0253

’symy’ LECT spec TERM COND Y LT 0.0001
’symz’ LECT spec TERM COND Z LT 0.0001
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0

COUL TURQ LECT lframeb TERM

VERT LECT plate TERM
ROSE LECT plaEdg TERM
ROUG LECT nplalim TERM
BLEU LECT uframe pp1 TERM

ORIE INVE LECT preplat TERM

INCLUDE ’p77_25e.txt’
ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1

LECT plate TERM

MATE VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100
QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100 ! Docol 600

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT plate TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT nplate TERM

IMPE PIMP RO 7850.0 PRES 43.9e6 PREF 0.0

LECT presur TERM

IMPE PIMP RO 7850 PRES 1.0 PREF 0.0 FONC 1

LECT preplat TERM

OPTI PINS ASN
LINK COUP SPLT NONE

189

Friday 8th September, 2023 @ 14:00

BLOQ 123 LECT blox TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT symy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT symz TERM

LINK DECO

PINB PENA SFAC 1.0

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT lframeb TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT uframe TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DIAM 0.0004 ADNP

LECT nplate TERM

EXCL PAIR 1 2

ECRI DEPL VITE ECRO FAIL TFRE 0.2E-3

POIN LECT cen TERM
NOELEM

FICH ALIT TFRE 0.1E-4

POIN LECT cen symy TERM
ELEM LECT prec TERM

FICH PVTK TFRE
GROU AUTO
VARI ECRO CONT FAIL DEPL VITE FLIA

0.1e-3

FICH SPLI ALIC TFRE 2.0E-4

OPTI NOTE CSTA 0.7

LOG 1
JAUM
LMST
ADAP RCON WHAN
PINS GRID DPIN 1.01
QUASI STATIQUE 1000. 0.7 FROM 0.0 UPTO 0.5e-3

CALC TINI 0 TEND 5.0E-3 TFAI 2.0E-8
FIN

D6 S2 25 FP.epx

D6_S2_25_FP
ECHO
!CONV win
CAST ’S2_FSI.msh’ mesh
TRID ALE
EROS 1.0 CROI
DIME ADAP NPOI 200000
CUVF 200000
Q4GS 60000
T3GS 10000
NVFI 600000
PMAT 50000
NPIN 50000

ENDA
JONC 475 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4 ! mems pinbcm
T3GS etri3
CUVF flui3d tubelp3 tank
TUVF tubelp1
PMAT nplate
CL3D face3d presur abso stub3d ! pre
TUBM rac3d1d raclp

TERM
COMP EPAI 0.8e-3 LECT plate nplate TERM

DIAM DROI 0.1692568 LECT tubelp1 TERM
RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

TERM

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT stub3d TERM COEF 1.0

TERM
TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 21 ’endtube’ LECT tube TERM COND XB GT -0.6

’trigger’ LECT tube TERM COND NEAR POIN -0.1501 0 0
’frefine’ LECT flui TERM COND XB GT -0.3
1.0

COND XB LT

’pp1’

’pp2’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

’fcoup’ LECT flui

DX 0.1 DY 0.165 DZ 0.165
TERM COND XB GT -0.05
COND XB LT 0.150
COND YB LT 0.150
COND ZB LT 0.150
’scoup’ LECT plate TERM COND YB LT 0.150
COND ZB LT 0.150

’lfrb2’ LECT lframeb TERM

LECT uframe DIFF presur TERM

COND XB LT -0.865E-2
’lfrb1’ LECT lframeb DIFF lfrb2 TERM
’uframe2’
’S1’ LECT tube TERM COND NEAR POIN -0.345 0.0 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.0 0.15
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15

’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

NGRO 13 ’blox’

LECT lframeb TERM COND !X LT -0.0253

X GT 0.0253

COND Y LT 0.0001
COND Z LT 0.0001

’symy’ LECT plate TERM
’symz’ LECT plate TERM
’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0
’axis1’
’axis2’
’csymy’ LECT uframe lframeb TERM COND Y LT 0.0001
’csymz’ LECT uframe lframeb TERM COND Z LT 0.0001
’elfb’ LECT lframeb TERM COND ENVE
’nlfb’ LECT elfb

LECT plate TERM COND Y LT 0.0001
LECT plate TERM COND Z LT 0.0001

TERM COND X GT -0.01
COND X LT

0.001

’nbad1’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0.260 Z1 0
X2 0.001 Y2 0.260 Z2 0
R1 0.009 R2 0.009

’nbad2’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0 Z1 0.260
X2 0.001 Y2 0 Z2 0.260
R1 0.009 R2 0.009

COUL TURQ LECT tube tra lp3xl TERM
VERT LECT plate fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM

ROSE LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1 ! NOUN

LECT plate TERM
!
LECT pp2 TERM
GRIL LAGR LECT spec TERM
MATE

!LOI 1

GAZP RO 20.310 GAMM 1.4 CV 719.286 PINI 17.16E5 PREF 100.8E3

LECT none TERM

!LOI 2

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT none TERM

!LOI 3
GAZP RO 6.720 GAMM 1.4 CV 719.286 PINI 5.677E5 PREF 100.8E3

LECT none TERM

!LOI 4

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT flui3d TERM ! _cuvf TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT epar1 epar2 TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT rac3d1d raclp tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 6 7 LECT tubelpp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT tubelp3 tank _cuvf TERM

CLVF ABSO RO 1.187

LECT abso TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100 ! Docol 600

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT plate TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT nplate TERM

IMPE PIMP RO 7850.0 PRES 44.0011e6 PREF 1.011E5 !fc To be checked

LECT presur TERM ! _cl3d TERM

OPTI PINS ASN
LINK COUP SPLT NONE

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3

! MAIT LECT lframeb TERM

MAIT NODE LECT nlfb DIFF nbad1 nbad2 TERM
PESC LECT plate TERM

BLOQ 123 LECT blox TERM
GLIS 2

!
!
!
!
!
!
*
!
!
!
!
LINK DECO BLOQ 246 LECT symy TERM
BLOQ 345 LECT symz TERM
BLOQ 2 LECT csymy TERM
BLOQ 3 LECT csymz TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

PINB PENA SFAC 1.0

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

190

Friday 8th September, 2023 @ 14:00

LECT lframeb TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT uframe TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DIAM 0.0004 ADNP

LECT nplate TERM

EXCL PAIR 1 2

! 0.014

FLSW STRU LECT scoup TERM
FLUI LECT fcoup TERM
R 0.0087
HGRI 0.00606 ! 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 2 SCAL 6

TBLO 123

TRIG LECT lframeb uframe TERM

123456 TRIG LECT plate TERM

INIT MAPP FORM ’D7725600map.map’ MATC OBJE LECT flui3d tubelp1 TERM
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 TERM
FICH ALIT FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 22.D-3 PAS 0.01D-3 80.D-3
POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 40.D-3
PAS 1.D-3 50.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA

!
!
!
!
!

FICH SPLI ALIC TFRE 0.5E-3

OPTI NOTE CSTA 0.4

GLIS NORM ELEM
STEP IO
LOG 1
JAUM
LMST
PINS GRID DPIN 1.01
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1
NTIL
ADAP RCON WHAN
ADAP RCON TRIG ECRO 1 TVAL 1.05E5 LECT trigger TERM
NOCR TRIG LECT plate lframeb uframe TERM
FLS CUB8 2 ! For the inverse mapping
CALC TINI 0 TEND 34.0E-3 TFAI 1.143E-8 ! 2.0E-8
FIN

D6 S2 25 FPw.epx

D6_S2_25_FPW
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_25_FP.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.001E5 PAS 0.5E5 7.501E5 TERM

SUPP LECT tubelp3 tank TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 12 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D6 S2 25 FPx.epx

D6_S2_25_FPX
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_25_FP.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 12 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D6 S2 25 FPy.epx

D6_S2_25_FPY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_25_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 1
GOTR LOOP 12 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D6 S2 25 FPyy.epx

D6_S2_25_FPYY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_25_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
1.00000E+00 0.00000E+00
UP
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR

0.00000E+00

191

Friday 8th September, 2023 @ 14:00

: 2.87454E+00

!FAR
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

!NEAR
!FAR
CAME
!

LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 12 OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
FIN

D6 S2 25 FPz1.epx

D6_S2_25_FPZ1
ECHO

CONV WIN

RESU SPLI ALIC ’D6_S2_25_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

0.00000E+00
1.78574E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
1.00000E+00 0.00000E+00
UP
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 12 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_25_FP.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 25 FPz2.epx

D6_S2_25_FPZ2
ECHO

CONV WIN

RESU SPLI ALIC ’D6_S2_25_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

0.00000E+00
1.78574E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00

0.00000E+00

: 1.45841E+00
: 2.78423E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 2 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 12 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_25_FP.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 25 z1.epx

D6_S2_25_Z1
ECHO

CONV WIN

RESU SPLI ALIC ’D6_S2_25.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

1.78574E+00
0.00000E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 25 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_25.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

192

Friday 8th September, 2023 @ 14:00

D6 S2 25 z2.epx

D6_S2_25_Z2
ECHO

CONV WIN

RESU SPLI ALIC ’D6_S2_25.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

0.00000E+00
1.78574E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
1.00000E+00 0.00000E+00
UP
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 2 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 25 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_25.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 25f.epx

D6_S2_25F
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_25.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 26
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.85740E+00 2.10571E-03 2.10571E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
1.00000E+00 0.00000E+00
UP
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -2.25515E-03 2.10571E-03 2.10571E-03
!RSPHERE: 4.63787E-01
!RADIUS : 1.85515E+00
!ASPECT : 1.00000E+00
: 1.39136E+00
!NEAR
: 2.78272E+00
!FAR
SCEN GEOM NAVI FREE

LINE HEOU SFRE

SLER CAM1 1 NFRA 1
FREQ 1
TRAC DEFO AMPD 0.0 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM
SYXY SYXZ ! TOLS 1.E-2
NFAI ADAP REND

ENDPLAY
FIN

D6 S2 35.epx

D6_S2_35
ECHO
!CONV win
CAST ’S2.msh’ spec
EROS 1.0 CROI
TRID LAGR
DIME ADAP NPOI 100000
Q4GS 100000
CL3D 100000
T3GS 20000
CL3T 20000
PMAT 50000
NPIN 50000

ENDA

TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4
T3GS etri3
PMAT nplate
CL3D presur ppqua4
CL3T pptri3

TERM
COMP EPAI 0.8E-3 LECT plate nplate TERM

GROU 5 ’pp1’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

’plaEdg’ LECT plate DIFF pp1 TERM
COND YB LT 0.16
COND ZB LT 0.16

’nplatmp’ LECT nplate TERM

COND YB LT 0.16
COND ZB LT 0.16

’nplalim’ LECT nplate DIFF nplatmp TERM
’prec’

LECT preplat TERM
COND NEAR POIN 0.0 0.0 0.0

NGRO 4 ’blox’ LECT lframeb TERM COND X GT 0.0253

’symy’ LECT spec TERM COND Y LT 0.0001
’symz’ LECT spec TERM COND Z LT 0.0001
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0

COUL TURQ LECT lframeb TERM

VERT LECT plate TERM
ROSE LECT plaEdg TERM
ROUG LECT nplalim TERM
BLEU LECT uframe pp1 TERM

ORIE INVE LECT preplat TERM

INCLUDE ’p77_35e.txt’
ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1

LECT plate TERM

MATE VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100
QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100 ! Docol 600

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT plate TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT nplate TERM

IMPE PIMP RO 7850.0 PRES 43.9e6 PREF 0.0

LECT presur TERM

IMPE PIMP RO 7850 PRES 1.0 PREF 0.0 FONC 1

LECT preplat TERM

OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT blox TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT symy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT symz TERM

LINK DECO

PINB PENA SFAC 1.0

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT lframeb TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT uframe TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DIAM 0.0004 ADNP

LECT nplate TERM

EXCL PAIR 1 2

ECRI DEPL VITE ECRO FAIL TFRE 0.2E-3

POIN LECT cen TERM
NOELEM

FICH ALIT TFRE 0.1E-4

POIN LECT cen symy TERM
ELEM LECT prec TERM

FICH PVTK TFRE
GROU AUTO
VARI ECRO CONT FAIL DEPL VITE FLIA

0.1e-3

FICH SPLI ALIC TFRE 2.0E-4

OPTI NOTE CSTA 0.7

LOG 1
JAUM
LMST
ADAP RCON WHAN
PINS GRID DPIN 1.01

193

Friday 8th September, 2023 @ 14:00

QUASI STATIQUE 1000. 0.7 FROM 0.0 UPTO 0.5e-3

CALC TINI 0 TEND 5.0E-3 TFAI 2.0E-8
FIN

!
LECT pp2 TERM
GRIL LAGR LECT spec TERM
MATE

!LOI 1

D6 S2 35 FG.epx

D6_S2_35_FG
ECHO
!CONV win
CAST ’S2_FSI.msh’ mesh
TRID ALE
EROS 1.0 CROI
DIME ADAP NPOI 200000
CUVF 200000
Q4GS 60000
T3GS 10000
NVFI 600000

ENDA
JONC 475 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4 ! mems pinbcm
T3GS etri3
CUVF flui3d tubelp3 tank
TUVF tubelp1
CL3D face3d presur abso stub3d ! pre
TUBM rac3d1d raclp

TERM
COMP EPAI 0.8e-3 LECT plate TERM

DIAM DROI 0.1692568 LECT tubelp1 TERM
RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

TERM

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT stub3d TERM COEF 1.0

TERM
TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 21 ’endtube’ LECT tube TERM COND XB GT -0.6

’trigger’ LECT tube TERM COND NEAR POIN -0.1501 0 0
’frefine’ LECT flui TERM COND XB GT -0.3
1.0

COND XB LT

’pp1’

’pp2’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

’fcoup’ LECT flui

DX 0.1 DY 0.165 DZ 0.165
TERM COND XB GT -0.05
COND XB LT 0.150
COND YB LT 0.150
COND ZB LT 0.150
’scoup’ LECT plate TERM COND YB LT 0.150
COND ZB LT 0.150

’lfrb2’ LECT lframeb TERM

LECT uframe DIFF presur TERM

COND XB LT -0.865E-2
’lfrb1’ LECT lframeb DIFF lfrb2 TERM
’uframe2’
’S1’ LECT tube TERM COND NEAR POIN -0.345 0.0 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.0 0.15
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

NGRO 13 ’blox’

LECT lframeb TERM COND !X LT -0.0253

X GT 0.0253

COND Y LT 0.0001
COND Z LT 0.0001

’symy’ LECT plate TERM
’symz’ LECT plate TERM
’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0
’axis1’
’axis2’
’csymy’ LECT uframe lframeb TERM COND Y LT 0.0001
’csymz’ LECT uframe lframeb TERM COND Z LT 0.0001
’elfb’ LECT lframeb TERM COND ENVE
’nlfb’ LECT elfb

LECT plate TERM COND Y LT 0.0001
LECT plate TERM COND Z LT 0.0001

TERM COND X GT -0.01
COND X LT

0.001

’nbad1’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0.260 Z1 0
X2 0.001 Y2 0.260 Z2 0
R1 0.009 R2 0.009

’nbad2’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0 Z1 0.260
X2 0.001 Y2 0 Z2 0.260
R1 0.009 R2 0.009

COUL TURQ LECT tube tra lp3xl TERM
VERT LECT plate fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM

ROSE LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1 ! NOUN

LECT plate TERM

GAZP RO 20.310 GAMM 1.4 CV 719.286 PINI 17.16E5 PREF 100.8E3

LECT none TERM

!LOI 2

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT none TERM

!LOI 3
GAZP RO 6.720 GAMM 1.4 CV 719.286 PINI 5.677E5 PREF 100.8E3

LECT none TERM

!LOI 4

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT flui3d TERM ! _cuvf TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT epar1 epar2 TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT rac3d1d raclp tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 6 7 LECT tubelpp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT tubelp3 tank _cuvf TERM

CLVF ABSO RO 1.187

LECT abso TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100 ! Docol 600

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT plate TERM

IMPE PIMP RO 7850.0 PRES 44.0011e6 PREF 1.011E5

LECT presur TERM ! _cl3d TERM

LINK COUP SPLT NONE

BLOQ 123 LECT blox TERM
GLIS 2

*

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3

! MAIT LECT lframeb TERM

MAIT NODE LECT nlfb DIFF nbad1 nbad2 TERM
PESC LECT plate TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT lframeb TERM
PESC LECT plate TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

GLIS 2

!
!
!
!
!
!*
!
!
!
!
!*
LINK DECO BLOQ 246 LECT symy TERM
BLOQ 345 LECT symz TERM
BLOQ 2 LECT csymy TERM
BLOQ 3 LECT csymz TERM

! 0.014

FLSW STRU LECT scoup TERM
FLUI LECT fcoup TERM
R 0.0087
HGRI 0.00606 ! 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 2 SCAL 6

TBLO 123

TRIG LECT lframeb uframe TERM

123456 TRIG LECT plate TERM

INIT MAPP FORM ’ST_MAP3_35.map’ MATC OBJE LECT flui3d tubelp1 TERM
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 TERM
FICH ALIT FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 22.D-3 PAS 0.01D-3 80.D-3
POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 40.D-3
PAS 1.D-3 50.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA

!
!
!
!
!

FICH SPLI ALIC TFRE 0.5E-3

OPTI NOTE CSTA 0.4

194

Friday 8th September, 2023 @ 14:00

GLIS NORM ELEM
STEP IO
LOG 1
JAUM
LMST
PINS GRID DPIN 1.01
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
NTIL
ADAP RCON WHAN
ADAP RCON TRIG ECRO 1 TVAL 1.05E5 LECT trigger TERM
NOCR TRIG LECT plate lframeb uframe TERM
FLS CUB8 2 ! For the inverse mapping

CALC TINI 0 TEND 32.0E-3 TFAI 2.0E-8
FIN

D6 S2 35 FG2.epx

D6_S2_35_FG2
ECHO
!CONV win
CAST ’S2_FSI.msh’ mesh
TRID ALE
EROS 1.0 CROI
DIME ADAP NPOI 200000
CUVF 200000
Q4GS 60000
T3GS 10000
NVFI 600000

ENDA
JONC 475 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4 ! mems pinbcm
T3GS etri3
CUVF flui3d tubelp3 tank
TUVF tubelp1
CL3D face3d presur abso stub3d ! pre
TUBM rac3d1d raclp

TERM
COMP EPAI 0.8e-3 LECT plate TERM

DIAM DROI 0.1692568 LECT tubelp1 TERM
RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

TERM

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT stub3d TERM COEF 1.0

TERM
TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 21 ’endtube’ LECT tube TERM COND XB GT -0.6

’trigger’ LECT tube TERM COND NEAR POIN -0.1501 0 0
’frefine’ LECT flui TERM COND XB GT -0.3
1.0

COND XB LT

’pp1’

’pp2’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

’fcoup’ LECT flui

DX 0.1 DY 0.165 DZ 0.165
TERM COND XB GT -0.05
COND XB LT 0.150
COND YB LT 0.150
COND ZB LT 0.150
’scoup’ LECT plate TERM COND YB LT 0.150
COND ZB LT 0.150

’lfrb2’ LECT lframeb TERM

LECT uframe DIFF presur TERM

COND XB LT -0.865E-2
’lfrb1’ LECT lframeb DIFF lfrb2 TERM
’uframe2’
’S1’ LECT tube TERM COND NEAR POIN -0.345 0.0 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.0 0.15
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

NGRO 13 ’blox’

LECT lframeb TERM COND !X LT -0.0253

X GT 0.0253

COND Y LT 0.0001
COND Z LT 0.0001

’symy’ LECT plate TERM
’symz’ LECT plate TERM
’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0
’axis1’
’axis2’
’csymy’ LECT uframe lframeb TERM COND Y LT 0.0001
’csymz’ LECT uframe lframeb TERM COND Z LT 0.0001
’elfb’ LECT lframeb TERM COND ENVE
’nlfb’ LECT elfb

LECT plate TERM COND Y LT 0.0001
LECT plate TERM COND Z LT 0.0001

TERM COND X GT -0.01
COND X LT

0.001

’nbad1’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0.260 Z1 0
X2 0.001 Y2 0.260 Z2 0
R1 0.009 R2 0.009

’nbad2’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0 Z1 0.260
X2 0.001 Y2 0 Z2 0.260
R1 0.009 R2 0.009

COUL TURQ LECT tube tra lp3xl TERM
VERT LECT plate fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM

ROSE LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1 ! NOUN

LECT plate TERM
!
LECT pp2 TERM
GRIL LAGR LECT spec TERM
MATE

!LOI 1

GAZP RO 20.310 GAMM 1.4 CV 719.286 PINI 17.16E5 PREF 100.8E3

LECT none TERM

!LOI 2

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT none TERM

!LOI 3
GAZP RO 6.720 GAMM 1.4 CV 719.286 PINI 5.677E5 PREF 100.8E3

LECT none TERM

!LOI 4

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT flui3d TERM ! _cuvf TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT epar1 epar2 TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT rac3d1d raclp tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 6 7 LECT tubelpp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT tubelp3 tank _cuvf TERM

CLVF ABSO RO 1.187

LECT abso TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100 ! Docol 600

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT plate TERM

IMPE PIMP RO 7850.0 PRES 44.0011e6 PREF 1.011E5

LECT presur TERM ! _cl3d TERM

LINK COUP SPLT NONE

BLOQ 123 LECT blox TERM
GLIS 2

*

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3

! MAIT LECT lframeb TERM

MAIT NODE LECT nlfb DIFF nbad1 nbad2 TERM
PESC LECT plate TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT lframeb TERM
PESC LECT plate TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

GLIS 2

!
!
!
!
!
!*
!
!
!
!
!*
LINK DECO BLOQ 246 LECT symy TERM
BLOQ 345 LECT symz TERM
BLOQ 2 LECT csymy TERM
BLOQ 3 LECT csymz TERM

! 0.014

FLSW STRU LECT scoup TERM
FLUI LECT fcoup TERM
R 0.0087
HGRI 0.00606 ! 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 2 SCAL 6

TBLO 123

TRIG LECT lframeb uframe TERM

123456 TRIG LECT plate TERM

195

Friday 8th September, 2023 @ 14:00

INIT MAPP FORM ’ST_MAP3_35.map’ MATC OBJE LECT flui3d tubelp1 TERM
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 TERM
FICH ALIT FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 22.D-3 PAS 0.01D-3 80.D-3
POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 40.D-3
PAS 1.D-3 50.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA

!
!
!
!
!

FICH SPLI ALIC TFRE 0.5E-3

OPTI NOTE CSTA 0.4

GLIS NORM ELEM ADAP SYME
STEP IO
LOG 1
JAUM
LMST
PINS GRID DPIN 1.01
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
NTIL
ADAP RCON WHAN
ADAP RCON TRIG ECRO 1 TVAL 1.05E5 LECT trigger TERM
NOCR TRIG LECT plate lframeb uframe TERM
FLS CUB8 2 ! For the inverse mapping

CALC TINI 0 TEND 32.0E-3 TFAI 2.0E-8
FIN

D6 S2 35 FG2 C.epx

D6_S2_35_FG2_C
ECHO
!CONV win
CAST ’S2_FSI.msh’ mesh
TRID ALE
EROS 1.0 CROI
DIME ADAP NPOI 200000
CUVF 200000
Q4GS 60000
T3GS 10000
NVFI 600000

ENDA
JONC 475 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4 ! mems pinbcm
T3GS etri3
CUVF flui3d tubelp3 tank
TUVF tubelp1
CL3D face3d presur abso stub3d ! pre
TUBM rac3d1d raclp

TERM
COMP EPAI 0.8e-3 LECT plate TERM

DIAM DROI 0.1692568 LECT tubelp1 TERM
RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

TERM

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT stub3d TERM COEF 1.0

TERM
TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 21 ’endtube’ LECT tube TERM COND XB GT -0.6

’trigger’ LECT tube TERM COND NEAR POIN -0.1501 0 0
’frefine’ LECT flui TERM COND XB GT -0.3
1.0

COND XB LT

’pp1’

’pp2’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

’fcoup’ LECT flui

DX 0.1 DY 0.165 DZ 0.165
TERM COND XB GT -0.05
COND XB LT 0.150
COND YB LT 0.150
COND ZB LT 0.150
’scoup’ LECT plate TERM COND YB LT 0.150
COND ZB LT 0.150

’lfrb2’ LECT lframeb TERM

LECT uframe DIFF presur TERM

COND XB LT -0.865E-2
’lfrb1’ LECT lframeb DIFF lfrb2 TERM
’uframe2’
’S1’ LECT tube TERM COND NEAR POIN -0.345 0.0 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.0 0.15
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM

’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

NGRO 13 ’blox’

LECT lframeb TERM COND !X LT -0.0253

X GT 0.0253

COND Y LT 0.0001
COND Z LT 0.0001

’symy’ LECT plate TERM
’symz’ LECT plate TERM
’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0
’axis1’
’axis2’
’csymy’ LECT uframe lframeb TERM COND Y LT 0.0001
’csymz’ LECT uframe lframeb TERM COND Z LT 0.0001
’elfb’ LECT lframeb TERM COND ENVE
’nlfb’ LECT elfb

LECT plate TERM COND Y LT 0.0001
LECT plate TERM COND Z LT 0.0001

TERM COND X GT -0.01
COND X LT

0.001

’nbad1’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0.260 Z1 0
X2 0.001 Y2 0.260 Z2 0
R1 0.009 R2 0.009

’nbad2’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0 Z1 0.260
X2 0.001 Y2 0 Z2 0.260
R1 0.009 R2 0.009

COUL TURQ LECT tube tra lp3xl TERM
VERT LECT plate fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM

ROSE LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1 ! NOUN

LECT plate TERM
!
LECT pp2 TERM
GRIL LAGR LECT spec TERM
MATE

!LOI 1

GAZP RO 20.310 GAMM 1.4 CV 719.286 PINI 17.16E5 PREF 100.8E3

LECT none TERM

!LOI 2

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT none TERM

!LOI 3
GAZP RO 6.720 GAMM 1.4 CV 719.286 PINI 5.677E5 PREF 100.8E3

LECT none TERM

!LOI 4

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT flui3d TERM ! _cuvf TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT epar1 epar2 TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT rac3d1d raclp tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 6 7 LECT tubelpp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT tubelp3 tank _cuvf TERM

CLVF ABSO RO 1.187

LECT abso TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100 ! Docol 600

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT plate TERM

IMPE PIMP RO 7850.0 PRES 44.0011e6 PREF 1.011E5

LECT presur TERM ! _cl3d TERM

LINK COUP SPLT NONE

BLOQ 123 LECT blox TERM
GLIS 2

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3

! MAIT LECT lframeb TERM

MAIT NODE LECT nlfb DIFF nbad1 nbad2 TERM
PESC LECT plate TERM

GLIS 2

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT lframeb TERM
PESC LECT plate TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

*

!
!
!
!
!
!*
!
!
!
!
!*

196

Friday 8th September, 2023 @ 14:00

LINK DECO BLOQ 246 LECT symy TERM
BLOQ 345 LECT symz TERM
BLOQ 2 LECT csymy TERM
BLOQ 3 LECT csymz TERM

! 0.014

FLSW STRU LECT scoup TERM
FLUI LECT fcoup TERM
R 0.0087
HGRI 0.00606 ! 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 2 SCAL 6

TBLO 123

TRIG LECT lframeb uframe TERM

123456 TRIG LECT plate TERM

INIT MAPP FORM ’ST_MAP3_35.map’ MATC OBJE LECT flui3d tubelp1 TERM
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 TERM
FICH ALIT FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 22.D-3 PAS 0.01D-3 80.D-3
POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 40.D-3
PAS 1.D-3 50.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA

!
!
!
!
!

FICH SPLI ALIC TFRE 0.5E-3

OPTI NOTE CSTA 0.4

GLIS NORM ELEM ADAP SYME
STEP IO
LOG 1
JAUM
LMST
PINS GRID DPIN 1.01
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
NTIL
ADAP RCON WHAN
ADAP RCON TRIG ECRO 1 TVAL 1.05E5 LECT trigger TERM
NOCR TRIG LECT plate lframeb uframe TERM
FLS CUB8 2 ! For the inverse mapping

CALC TINI 0 TEND 32.0E-3 TFAI 1.143E-8 ! TFAI 2.0E-8
FIN

D6 S2 35 FG2 Cw.epx

D6_S2_35_FG2_CW
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG2_C.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.001E5 PAS 0.5E5 7.501E5 TERM

SUPP LECT tubelp3 tank TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

LINE HEOU SFRE SSHA

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
!
LIMA ON
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D6 S2 35 FG2 Cx.epx

D6_S2_35_FG2_CX
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG2_C.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

LINE HEOU SFRE SSHA

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
!
LIMA ON
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D6 S2 35 FG2 Cy.epx

D6_S2_35_FG2_CY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG2_C.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D6 S2 35 FG2 Cyy.epx

D6_S2_35_FG2_CYY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG2_C.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

197

Friday 8th September, 2023 @ 14:00

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
: 2.87454E+00
!FAR
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
FIN

D6 S2 35 FG2w.epx

D6_S2_35_FG2W
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG2.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.001E5 PAS 0.5E5 7.501E5 TERM

SUPP LECT tubelp3 tank TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

LINE HEOU SFRE SSHA

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
!
LIMA ON
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D6 S2 35 FG2x.epx

D6_S2_35_FG2X
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG2.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------

CAME
!

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

LINE HEOU SFRE SSHA

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
LIMA ON
!
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D6 S2 35 FG2y.epx

D6_S2_35_FG2Y
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG2.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D6 S2 35 FG2yy.epx

D6_S2_35_FG2YY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG2.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------

0.00000E+00

198

Friday 8th September, 2023 @ 14:00

SCEN GEOM NAVI FREE

LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
FIN

D6 S2 35 FG C.epx

D6_S2_35_FG_C
ECHO
!CONV win
CAST ’S2_FSI.msh’ mesh
TRID ALE
EROS 1.0 CROI
DIME ADAP NPOI 200000
CUVF 200000
Q4GS 60000
T3GS 10000
NVFI 600000

ENDA
JONC 475 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4 ! mems pinbcm
T3GS etri3
CUVF flui3d tubelp3 tank
TUVF tubelp1
CL3D face3d presur abso stub3d ! pre
TUBM rac3d1d raclp

TERM
COMP EPAI 0.8e-3 LECT plate TERM

DIAM DROI 0.1692568 LECT tubelp1 TERM
RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

TERM

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT stub3d TERM COEF 1.0

TERM
TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 21 ’endtube’ LECT tube TERM COND XB GT -0.6

’trigger’ LECT tube TERM COND NEAR POIN -0.1501 0 0
’frefine’ LECT flui TERM COND XB GT -0.3
1.0

COND XB LT

’pp1’

’pp2’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

’fcoup’ LECT flui

DX 0.1 DY 0.165 DZ 0.165
TERM COND XB GT -0.05
COND XB LT 0.150
COND YB LT 0.150
COND ZB LT 0.150
’scoup’ LECT plate TERM COND YB LT 0.150
COND ZB LT 0.150

’lfrb2’ LECT lframeb TERM

LECT uframe DIFF presur TERM

COND XB LT -0.865E-2
’lfrb1’ LECT lframeb DIFF lfrb2 TERM
’uframe2’
’S1’ LECT tube TERM COND NEAR POIN -0.345 0.0 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.0 0.15
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

NGRO 13 ’blox’

LECT lframeb TERM COND !X LT -0.0253

X GT 0.0253

COND Y LT 0.0001
COND Z LT 0.0001

’symy’ LECT plate TERM
’symz’ LECT plate TERM
’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0
’axis1’
’axis2’
’csymy’ LECT uframe lframeb TERM COND Y LT 0.0001
’csymz’ LECT uframe lframeb TERM COND Z LT 0.0001
’elfb’ LECT lframeb TERM COND ENVE
’nlfb’ LECT elfb

LECT plate TERM COND Y LT 0.0001
LECT plate TERM COND Z LT 0.0001

TERM COND X GT -0.01
COND X LT

0.001

’nbad1’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0.260 Z1 0
X2 0.001 Y2 0.260 Z2 0
R1 0.009 R2 0.009

’nbad2’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0 Z1 0.260
X2 0.001 Y2 0 Z2 0.260
R1 0.009 R2 0.009

COUL TURQ LECT tube tra lp3xl TERM
VERT LECT plate fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM

ROSE LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1 ! NOUN

LECT plate TERM
LECT pp2 TERM
!
GRIL LAGR LECT spec TERM
MATE

!LOI 1

GAZP RO 20.310 GAMM 1.4 CV 719.286 PINI 17.16E5 PREF 100.8E3

LECT none TERM

!LOI 2

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT none TERM

!LOI 3
GAZP RO 6.720 GAMM 1.4 CV 719.286 PINI 5.677E5 PREF 100.8E3

LECT none TERM

!LOI 4

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT flui3d TERM ! _cuvf TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT epar1 epar2 TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT rac3d1d raclp tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 6 7 LECT tubelpp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT tubelp3 tank _cuvf TERM

CLVF ABSO RO 1.187

LECT abso TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100 ! Docol 600

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT plate TERM

IMPE PIMP RO 7850.0 PRES 44.0011e6 PREF 1.011E5

LECT presur TERM ! _cl3d TERM

LINK COUP SPLT NONE

BLOQ 123 LECT blox TERM
GLIS 2

*

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3

! MAIT LECT lframeb TERM

MAIT NODE LECT nlfb DIFF nbad1 nbad2 TERM
PESC LECT plate TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT lframeb TERM
PESC LECT plate TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

GLIS 2

!
!
!
!
!
!*
!
!
!
!
!*
LINK DECO BLOQ 246 LECT symy TERM
BLOQ 345 LECT symz TERM
BLOQ 2 LECT csymy TERM
BLOQ 3 LECT csymz TERM

! 0.014

FLSW STRU LECT scoup TERM
FLUI LECT fcoup TERM
R 0.0087
HGRI 0.00606 ! 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 2 SCAL 6

TBLO 123

TRIG LECT lframeb uframe TERM

123456 TRIG LECT plate TERM

INIT MAPP FORM ’ST_MAP3_35.map’ MATC OBJE LECT flui3d tubelp1 TERM
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 TERM
FICH ALIT FREQ 0 TFRE 0.D0

199

Friday 8th September, 2023 @ 14:00

TIME PROG 0.D0 PAS 0.5D-3 22.D-3 PAS 0.01D-3 80.D-3
POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 40.D-3
PAS 1.D-3 50.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA

!
!
!
!
!

FICH SPLI ALIC TFRE 0.5E-3

OPTI NOTE CSTA 0.4

GLIS NORM ELEM
STEP IO
LOG 1
JAUM
LMST
PINS GRID DPIN 1.01
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
NTIL
ADAP RCON WHAN
ADAP RCON TRIG ECRO 1 TVAL 1.05E5 LECT trigger TERM
NOCR TRIG LECT plate lframeb uframe TERM
FLS CUB8 2 ! For the inverse mapping
CALC TINI 0 TEND 32.0E-3 TFAI 1.143E-8 ! 2.0E-8
FIN

D6 S2 35 FG CSVF.epx

D6_S2_35_FG_CSVF
ECHO
!CONV win
CAST ’S2_FSI.msh’ mesh
TRID ALE
EROS 1.0 CROI
DIME ADAP NPOI 200000
CUVF 200000
Q4GS 60000
T3GS 10000
NVFI 600000

ENDA
JONC 475 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4 ! mems pinbcm
T3GS etri3
CUVF flui3d tubelp3 tank
TUVF tubelp1
CL3D face3d presur abso stub3d ! pre
TUBM rac3d1d raclp

TERM
COMP EPAI 0.8e-3 LECT plate TERM

DIAM DROI 0.1692568 LECT tubelp1 TERM
RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

TERM

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT stub3d TERM COEF 1.0

TERM
TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 21 ’endtube’ LECT tube TERM COND XB GT -0.6

’trigger’ LECT tube TERM COND NEAR POIN -0.1501 0 0
’frefine’ LECT flui TERM COND XB GT -0.3
1.0

COND XB LT

’pp1’

’pp2’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

’fcoup’ LECT flui

DX 0.1 DY 0.165 DZ 0.165
TERM COND XB GT -0.05
COND XB LT 0.150
COND YB LT 0.150
COND ZB LT 0.150
’scoup’ LECT plate TERM COND YB LT 0.150
COND ZB LT 0.150

’lfrb2’ LECT lframeb TERM

LECT uframe DIFF presur TERM

COND XB LT -0.865E-2
’lfrb1’ LECT lframeb DIFF lfrb2 TERM
’uframe2’
’S1’ LECT tube TERM COND NEAR POIN -0.345 0.0 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.0 0.15
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

NGRO 13 ’blox’

LECT lframeb TERM COND !X LT -0.0253

’symy’ LECT plate TERM

COND Y LT 0.0001

X GT 0.0253

COND Z LT 0.0001

’symz’ LECT plate TERM
’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0
’axis1’
’axis2’
’csymy’ LECT uframe lframeb TERM COND Y LT 0.0001
’csymz’ LECT uframe lframeb TERM COND Z LT 0.0001
’elfb’ LECT lframeb TERM COND ENVE
’nlfb’ LECT elfb

LECT plate TERM COND Y LT 0.0001
LECT plate TERM COND Z LT 0.0001

TERM COND X GT -0.01
COND X LT

0.001

’nbad1’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0.260 Z1 0
X2 0.001 Y2 0.260 Z2 0
R1 0.009 R2 0.009

’nbad2’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0 Z1 0.260
X2 0.001 Y2 0 Z2 0.260
R1 0.009 R2 0.009

COUL TURQ LECT tube tra lp3xl TERM
VERT LECT plate fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM

ROSE LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1 ! NOUN

LECT plate TERM
!
LECT pp2 TERM
GRIL LAGR LECT spec TERM
MATE

!LOI 1

GAZP RO 20.310 GAMM 1.4 CV 719.286 PINI 17.16E5 PREF 100.8E3

LECT none TERM

!LOI 2

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT none TERM

!LOI 3
GAZP RO 6.720 GAMM 1.4 CV 719.286 PINI 5.677E5 PREF 100.8E3

LECT none TERM

!LOI 4

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT flui3d TERM ! _cuvf TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT epar1 epar2 TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT rac3d1d raclp tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 6 7 LECT tubelpp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT tubelp3 tank _cuvf TERM

CLVF ABSO RO 1.187

LECT abso TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100 ! Docol 600

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT plate TERM

IMPE PIMP RO 7850.0 PRES 44.0011e6 PREF 1.011E5

LECT presur TERM ! _cl3d TERM

LINK COUP SPLT NONE

BLOQ 123 LECT blox TERM
GLIS 2

*

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3

! MAIT LECT lframeb TERM

MAIT NODE LECT nlfb DIFF nbad1 nbad2 TERM
PESC LECT plate TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT lframeb TERM
PESC LECT plate TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

GLIS 2

!
!
!
!
!
!*
!
!
!
!
!*
LINK DECO BLOQ 246 LECT symy TERM
BLOQ 345 LECT symz TERM
BLOQ 2 LECT csymy TERM
BLOQ 3 LECT csymz TERM

FLSW STRU LECT scoup TERM

200

Friday 8th September, 2023 @ 14:00

! 0.014

FLUI LECT fcoup TERM
R 0.0087
HGRI 0.00606 ! 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 2 SCAL 6

TBLO 123

TRIG LECT lframeb uframe TERM

123456 TRIG LECT plate TERM

INIT MAPP FORM ’ST_MAP3_35.map’ MATC OBJE LECT flui3d tubelp1 TERM
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 TERM
FICH ALIT FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 22.D-3 PAS 0.01D-3 80.D-3
POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 40.D-3
PAS 1.D-3 50.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA

!
!
!
!
!

FICH SPLI ALIC TFRE 0.5E-3

OPTI NOTE CSTA 0.7 CSVF 0.571 ! (so that CSTA*CSVF=0.4 for the VFCC)

GLIS NORM ELEM
STEP IO
LOG 1
JAUM
LMST
PINS GRID DPIN 1.01
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
NTIL
ADAP RCON WHAN
ADAP RCON TRIG ECRO 1 TVAL 1.05E5 LECT trigger TERM
NOCR TRIG LECT plate lframeb uframe TERM
FLS CUB8 2 ! For the inverse mapping

CALC TINI 0 TEND 32.0E-3 TFAI 2.0E-8
FIN

D6 S2 35 FG CSVFw.epx

D6_S2_35_FG_CSVFW
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG_CSVF.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.001E5 PAS 0.5E5 7.501E5 TERM

SUPP LECT tubelp3 tank TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

LINE HEOU SFRE SSHA

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
!
LIMA ON
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D6_S2_35_FG_CSVFX
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG_CSVF.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

LINE HEOU SFRE SSHA

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
!
LIMA ON
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D6 S2 35 FG CSVFy.epx

D6_S2_35_FG_CSVFY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG_CSVF.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
: 2.87454E+00
!FAR
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

VISU NSTO 1

LINE HEOU SFRE SSHA

!*-----------------------------------------------------------------------
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
!
LIMA ON
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!FREQ 1
!GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D6 S2 35 FG CSVFx.epx

D6 S2 35 FG CSVFyy.epx

201

Friday 8th September, 2023 @ 14:00

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

D6_S2_35_FG_CSVFYY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG_CSVF.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
FIN

D6 S2 35 FG Cw.epx

D6_S2_35_FG_CW
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG_C.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.001E5 PAS 0.5E5 7.501E5 TERM

SUPP LECT tubelp3 tank TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

LINE HEOU SFRE SSHA

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
!
LIMA ON
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
4.10207E-10
UP
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

LINE HEOU SFRE SSHA

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
!
LIMA ON
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D6 S2 35 FG Cy.epx

D6_S2_35_FG_CY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG_C.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

VISU NSTO 1

LINE HEOU SFRE SSHA

!*-----------------------------------------------------------------------
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
!
LIMA ON
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!FREQ 1
!GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D6 S2 35 FG Cx.epx

D6_S2_35_FG_CX
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG_C.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

D6 S2 35 FG Cyy.epx

D6_S2_35_FG_CYY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG_C.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

202

Friday 8th September, 2023 @ 14:00

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
: 2.87454E+00
!FAR
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
FIN

D6 S2 35 FGw.epx

D6_S2_35_FGW
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.001E5 PAS 0.5E5 7.501E5 TERM

SUPP LECT tubelp3 tank TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

LINE HEOU SFRE SSHA

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
!
LIMA ON
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D6 S2 35 FGx.epx

D6_S2_35_FGX
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------

CAME
!

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

LINE HEOU SFRE SSHA

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
LIMA ON
!
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D6 S2 35 FGy.epx

D6_S2_35_FGY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

VISU NSTO 1

LINE HEOU SFRE SSHA

!*-----------------------------------------------------------------------
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
!
LIMA ON
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!FREQ 1
!GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D6 S2 35 FGyy.epx

D6_S2_35_FGYY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FG.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q

203

Friday 8th September, 2023 @ 14:00

VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
1.00000E+00 0.00000E+00
UP
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
FIN

D6 S2 35 FP.epx

D6_S2_35_FP
ECHO
!CONV win
CAST ’S2_FSI.msh’ mesh
TRID ALE
EROS 1.0 CROI
DIME ADAP NPOI 200000
CUVF 200000
Q4GS 60000
T3GS 10000
NVFI 600000
PMAT 50000
NPIN 50000

ENDA
JONC 475 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4 ! mems pinbcm
T3GS etri3
CUVF flui3d tubelp3 tank
TUVF tubelp1
PMAT nplate
CL3D face3d presur abso stub3d ! pre
TUBM rac3d1d raclp

TERM
COMP EPAI 0.8e-3 LECT plate nplate TERM

DIAM DROI 0.1692568 LECT tubelp1 TERM
RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

TERM

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT stub3d TERM COEF 1.0

TERM
TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 21 ’endtube’ LECT tube TERM COND XB GT -0.6

’trigger’ LECT tube TERM COND NEAR POIN -0.1501 0 0
’frefine’ LECT flui TERM COND XB GT -0.3
1.0

COND XB LT

’pp1’

’pp2’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

’fcoup’ LECT flui

DX 0.1 DY 0.165 DZ 0.165
TERM COND XB GT -0.05
COND XB LT 0.150
COND YB LT 0.150
COND ZB LT 0.150
’scoup’ LECT plate TERM COND YB LT 0.150
COND ZB LT 0.150

’lfrb2’ LECT lframeb TERM

LECT uframe DIFF presur TERM

COND XB LT -0.865E-2
’lfrb1’ LECT lframeb DIFF lfrb2 TERM
’uframe2’
’S1’ LECT tube TERM COND NEAR POIN -0.345 0.0 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.0 0.15
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

NGRO 13 ’blox’

LECT lframeb TERM COND !X LT -0.0253

’symy’ LECT plate TERM
’symz’ LECT plate TERM

X GT 0.0253

COND Y LT 0.0001
COND Z LT 0.0001

LECT plate TERM COND Y LT 0.0001
LECT plate TERM COND Z LT 0.0001

’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0
’axis1’
’axis2’
’csymy’ LECT uframe lframeb TERM COND Y LT 0.0001
’csymz’ LECT uframe lframeb TERM COND Z LT 0.0001
’elfb’ LECT lframeb TERM COND ENVE
’nlfb’ LECT elfb

TERM COND X GT -0.01
COND X LT

0.001

’nbad1’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0.260 Z1 0
X2 0.001 Y2 0.260 Z2 0
R1 0.009 R2 0.009

’nbad2’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0 Z1 0.260
X2 0.001 Y2 0 Z2 0.260
R1 0.009 R2 0.009

COUL TURQ LECT tube tra lp3xl TERM
VERT LECT plate fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM

ROSE LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1 ! NOUN

LECT plate TERM
LECT pp2 TERM
!
GRIL LAGR LECT spec TERM
MATE

!LOI 1

GAZP RO 20.310 GAMM 1.4 CV 719.286 PINI 17.16E5 PREF 100.8E3

LECT none TERM

!LOI 2

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT none TERM

!LOI 3
GAZP RO 6.720 GAMM 1.4 CV 719.286 PINI 5.677E5 PREF 100.8E3

LECT none TERM

!LOI 4

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT flui3d TERM ! _cuvf TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT epar1 epar2 TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT rac3d1d raclp tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 6 7 LECT tubelpp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT tubelp3 tank _cuvf TERM

CLVF ABSO RO 1.187

LECT abso TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100 ! Docol 600

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT plate TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT nplate TERM

IMPE PIMP RO 7850.0 PRES 44.0011e6 PREF 1.011E5 !fc To be checked

LECT presur TERM ! _cl3d TERM

OPTI PINS ASN
LINK COUP SPLT NONE

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3

! MAIT LECT lframeb TERM

MAIT NODE LECT nlfb DIFF nbad1 nbad2 TERM
PESC LECT plate TERM

BLOQ 123 LECT blox TERM
GLIS 2

!
!
!
!
!
!
*
!
!
!
!
LINK DECO BLOQ 246 LECT symy TERM
BLOQ 345 LECT symz TERM
BLOQ 2 LECT csymy TERM
BLOQ 3 LECT csymz TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

PINB PENA SFAC 1.0

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT lframeb TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT uframe TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DIAM 0.0004 ADNP

LECT nplate TERM

EXCL PAIR 1 2

FLSW STRU LECT scoup TERM
FLUI LECT fcoup TERM

204

Friday 8th September, 2023 @ 14:00

! 0.014

R 0.0087
HGRI 0.00606 ! 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 2 SCAL 6

TBLO 123

TRIG LECT lframeb uframe TERM

123456 TRIG LECT plate TERM

INIT MAPP FORM ’ST_MAP3_35.map’ MATC OBJE LECT flui3d tubelp1 TERM
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 TERM
FICH ALIT FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 22.D-3 PAS 0.01D-3 80.D-3
POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 40.D-3
PAS 1.D-3 50.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA

!
!
!
!
!

FICH SPLI ALIC TFRE 0.5E-3

OPTI NOTE CSTA 0.4

GLIS NORM ELEM
STEP IO
LOG 1
JAUM
LMST
PINS GRID DPIN 1.01
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
NTIL
ADAP RCON WHAN
ADAP RCON TRIG ECRO 1 TVAL 1.05E5 LECT trigger TERM
NOCR TRIG LECT plate lframeb uframe TERM
FLS CUB8 2 ! For the inverse mapping

CALC TINI 0 TEND 32.0E-3 TFAI 2.0E-8
FIN

D6 S2 35 FP C.epx

D6_S2_35_FP_C
ECHO
!CONV win
CAST ’S2_FSI.msh’ mesh
TRID ALE
EROS 1.0 CROI
DIME ADAP NPOI 200000
CUVF 200000
Q4GS 60000
T3GS 10000
NVFI 600000
PMAT 50000
NPIN 50000

ENDA
JONC 475 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4 ! mems pinbcm
T3GS etri3
CUVF flui3d tubelp3 tank
TUVF tubelp1
PMAT nplate
CL3D face3d presur abso stub3d ! pre
TUBM rac3d1d raclp

TERM
COMP EPAI 0.8e-3 LECT plate nplate TERM

DIAM DROI 0.1692568 LECT tubelp1 TERM
RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

TERM

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT stub3d TERM COEF 1.0

TERM
TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 21 ’endtube’ LECT tube TERM COND XB GT -0.6

’trigger’ LECT tube TERM COND NEAR POIN -0.1501 0 0
’frefine’ LECT flui TERM COND XB GT -0.3
1.0

COND XB LT

’pp1’

’pp2’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

’fcoup’ LECT flui

DX 0.1 DY 0.165 DZ 0.165
TERM COND XB GT -0.05
COND XB LT 0.150
COND YB LT 0.150
COND ZB LT 0.150
’scoup’ LECT plate TERM COND YB LT 0.150
COND ZB LT 0.150

’lfrb2’ LECT lframeb TERM

LECT uframe DIFF presur TERM

COND XB LT -0.865E-2
’lfrb1’ LECT lframeb DIFF lfrb2 TERM
’uframe2’
’S1’ LECT tube TERM COND NEAR POIN -0.345 0.0 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.0 0.15
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

NGRO 13 ’blox’

LECT lframeb TERM COND !X LT -0.0253

X GT 0.0253

COND Y LT 0.0001
COND Z LT 0.0001

’symy’ LECT plate TERM
’symz’ LECT plate TERM
’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0
’axis1’
’axis2’
’csymy’ LECT uframe lframeb TERM COND Y LT 0.0001
’csymz’ LECT uframe lframeb TERM COND Z LT 0.0001
’elfb’ LECT lframeb TERM COND ENVE
’nlfb’ LECT elfb

LECT plate TERM COND Y LT 0.0001
LECT plate TERM COND Z LT 0.0001

TERM COND X GT -0.01
COND X LT

0.001

’nbad1’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0.260 Z1 0
X2 0.001 Y2 0.260 Z2 0
R1 0.009 R2 0.009

’nbad2’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0 Z1 0.260
X2 0.001 Y2 0 Z2 0.260
R1 0.009 R2 0.009

COUL TURQ LECT tube tra lp3xl TERM
VERT LECT plate fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM

ROSE LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1 ! NOUN

LECT plate TERM
!
LECT pp2 TERM
GRIL LAGR LECT spec TERM
MATE

!LOI 1

GAZP RO 20.310 GAMM 1.4 CV 719.286 PINI 17.16E5 PREF 100.8E3

LECT none TERM

!LOI 2

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT none TERM

!LOI 3
GAZP RO 6.720 GAMM 1.4 CV 719.286 PINI 5.677E5 PREF 100.8E3

LECT none TERM

!LOI 4

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT flui3d TERM ! _cuvf TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT epar1 epar2 TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT rac3d1d raclp tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 6 7 LECT tubelpp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT tubelp3 tank _cuvf TERM

CLVF ABSO RO 1.187

LECT abso TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100 ! Docol 600

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT plate TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT nplate TERM

IMPE PIMP RO 7850.0 PRES 44.0011e6 PREF 1.011E5 !fc To be checked

LECT presur TERM ! _cl3d TERM

OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT blox TERM
GLIS 2

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3

! MAIT LECT lframeb TERM

MAIT NODE LECT nlfb DIFF nbad1 nbad2 TERM
PESC LECT plate TERM

!
!
!
!
!
!
*

205

Friday 8th September, 2023 @ 14:00

TOLS 1.E-3 NFAI REND

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

!
!
!
!
LINK DECO BLOQ 246 LECT symy TERM
BLOQ 345 LECT symz TERM
BLOQ 2 LECT csymy TERM
BLOQ 3 LECT csymz TERM

PINB PENA SFAC 1.0

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT lframeb TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT uframe TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DIAM 0.0004 ADNP

LECT nplate TERM

EXCL PAIR 1 2

! 0.014

FLSW STRU LECT scoup TERM
FLUI LECT fcoup TERM
R 0.0087
HGRI 0.00606 ! 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 2 SCAL 6

TBLO 123

TRIG LECT lframeb uframe TERM

123456 TRIG LECT plate TERM

INIT MAPP FORM ’ST_MAP3_35.map’ MATC OBJE LECT flui3d tubelp1 TERM
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 TERM
FICH ALIT FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 22.D-3 PAS 0.01D-3 80.D-3
POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 40.D-3
PAS 1.D-3 50.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA

!
!
!
!
!

FICH SPLI ALIC TFRE 0.5E-3

OPTI NOTE CSTA 0.4

GLIS NORM ELEM
STEP IO
LOG 1
JAUM
LMST
PINS GRID DPIN 1.01
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
NTIL
ADAP RCON WHAN
ADAP RCON TRIG ECRO 1 TVAL 1.05E5 LECT trigger TERM
NOCR TRIG LECT plate lframeb uframe TERM
FLS CUB8 2 ! For the inverse mapping
CALC TINI 0 TEND 32.0E-3 TFAI 1.143E-8 ! 2.0E-8
FIN

D6 S2 35 FP Cw.epx

D6_S2_35_FP_CW
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FP_C.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
: 2.04449E+00
!FAR
SCEN GEOM NAVI FREE

LINE SFRE SSHA

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.001E5 PAS 0.5E5 7.501E5 TERM

SUPP LECT tubelp3 tank TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

LINE HEOU SFRE SSHA

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
!
LIMA ON
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D6 S2 35 FP Cx.epx

D6_S2_35_FP_CX
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FP_C.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

LINE HEOU SFRE SSHA

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
!
LIMA ON
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D6 S2 35 FP Cy.epx

D6_S2_35_FP_CY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FP_C.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

206

Friday 8th September, 2023 @ 14:00

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D6 S2 35 FP Cyy.epx

D6_S2_35_FP_CYY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FP_C.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
FIN

D6 S2 35 FPN.epx

D6_S2_35_FPN
ECHO
!CONV win
CAST ’S2_FSI.msh’ mesh
TRID ALE
EROS 1.0 CROI
DIME ADAP NPOI 200000
CUVF 200000
Q4GS 60000
T3GS 10000
NVFI 600000
PMAT 50000
NPIN 50000

ENDA
JONC 475 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM
GEOM CUB8 ecub8
PR6 epri6
Q4GS equa4 ! mems pinbcm
T3GS etri3
CUVF flui3d tubelp3 tank
TUVF tubelp1
PMAT nplate
CL3D face3d presur abso stub3d ! pre
TUBM rac3d1d raclp

TERM
COMP EPAI 0.8e-3 LECT plate nplate TERM

DIAM DROI 0.1692568 LECT tubelp1 TERM
RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

TERM

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT stub3d TERM COEF 1.0

TERM
TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 21 ’endtube’ LECT tube TERM COND XB GT -0.6

’trigger’ LECT tube TERM COND NEAR POIN -0.1501 0 0
’frefine’ LECT flui TERM COND XB GT -0.3
1.0

COND XB LT

’pp1’

’pp2’

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

DX 0.1 DY 0.15 DZ 0.15

LECT plate TERM
COND BOX X0 0.0 Y0 0.0 Z0 0.0

’fcoup’ LECT flui

DX 0.1 DY 0.165 DZ 0.165
TERM COND XB GT -0.05
COND XB LT 0.150
COND YB LT 0.150
COND ZB LT 0.150
’scoup’ LECT plate TERM COND YB LT 0.150

COND ZB LT 0.150

’lfrb2’ LECT lframeb TERM

LECT uframe DIFF presur TERM

COND XB LT -0.865E-2
’lfrb1’ LECT lframeb DIFF lfrb2 TERM
’uframe2’
’S1’ LECT tube TERM COND NEAR POIN -0.345 0.0 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.0 0.15
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

NGRO 13 ’blox’

LECT lframeb TERM COND !X LT -0.0253

X GT 0.0253

COND Y LT 0.0001
COND Z LT 0.0001

’symy’ LECT plate TERM
’symz’ LECT plate TERM
’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0
’cen’ LECT plate TERM COND NEAR POIN 0.0 0.0 0.0
’axis1’
’axis2’
’csymy’ LECT uframe lframeb TERM COND Y LT 0.0001
’csymz’ LECT uframe lframeb TERM COND Z LT 0.0001
’elfb’ LECT lframeb TERM COND ENVE
’nlfb’ LECT elfb

LECT plate TERM COND Y LT 0.0001
LECT plate TERM COND Z LT 0.0001

TERM COND X GT -0.01
COND X LT

0.001

’nbad1’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0.260 Z1 0
X2 0.001 Y2 0.260 Z2 0
R1 0.009 R2 0.009

’nbad2’ LECT nlfb TERM

COND CONE X1 -0.009 Y1 0 Z1 0.260
X2 0.001 Y2 0 Z2 0.260
R1 0.009 R2 0.009

COUL TURQ LECT tube tra lp3xl TERM
VERT LECT plate fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM

ROSE LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

ADAP THRS ECRO 11 TMIN 0.01 TMAX 0.02 MAXL 4 CRIT 1 ! NOUN

LECT plate TERM
!
LECT pp2 TERM
GRIL LAGR LECT spec TERM
MATE

!LOI 1

GAZP RO 20.310 GAMM 1.4 CV 719.286 PINI 17.16E5 PREF 100.8E3

LECT none TERM

!LOI 2

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT none TERM

!LOI 3
GAZP RO 6.720 GAMM 1.4 CV 719.286 PINI 5.677E5 PREF 100.8E3

LECT none TERM

!LOI 4

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT flui3d TERM ! _cuvf TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT epar1 epar2 TERM

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT rac3d1d raclp tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 6 7 LECT tubelpp TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1

GAZP RO 1.193 GAMM 1.4 CV 719.286 PINI 100.8E3 PREF 100.8E3

LECT tubelp3 tank _cuvf TERM

CLVF ABSO RO 1.187

LECT abso TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT lframeb TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT uframe TERM

VPJC RO 7850.0 YOUN 2.1E11 NU 0.33 ELAS 3.257E8 MXIT 100 ! Docol 600

QR1 2.348E8 CR1 56.2 QR2 4.457E8 CR2 4.7
PDOT 5.E-4 C 1.E-2 TQ 0.9 CP 452.0
TM 1800.0 M 1.0 DC 1.0 WC 555.0E6
RESI 1
LECT plate TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT nplate TERM

IMPE PIMP RO 7850.0 PRES 44.0011e6 PREF 1.011E5 !fc To be checked

LECT presur TERM ! _cl3d TERM

OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT blox TERM
GLIS 2

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3

! MAIT LECT lframeb TERM

MAIT NODE LECT nlfb DIFF nbad1 nbad2 TERM

!
!
!
!
!

207

Friday 8th September, 2023 @ 14:00

PESC LECT plate TERM

!
*
!
!
!
!
LINK DECO BLOQ 246 LECT symy TERM
BLOQ 345 LECT symz TERM
BLOQ 2 LECT csymy TERM
BLOQ 3 LECT csymz TERM

FROT MUST 0.5 MUDY 0.5 GAMM 0
PGAP 0.4E-3
MAIT LECT uframe TERM
PESC LECT plate TERM

PINB PENA SFAC 1.0

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT lframeb TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DMIN 0.0004

LECT uframe TERM

BODY FROT MUST 0.5 MUDY 0.5 GAMM 0 DIAM 0.0004 ADNP

LECT nplate TERM

EXCL PAIR 1 2

! 0.014

FLSW STRU LECT scoup TERM
FLUI LECT fcoup TERM
R 0.0087
HGRI 0.00606 ! 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 2 SCAL 6

TBLO 123

TRIG LECT lframeb uframe TERM

123456 TRIG LECT plate TERM

INIT MAPP FORM ’D7735600map.map’ MATC OBJE LECT flui3d tubelp1 TERM
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 TERM
FICH ALIT FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 22.D-3 PAS 0.01D-3 80.D-3
POIN LECT cen axis1 axis2 TERM
ELEM LECT S1 S2 S5 S6 S11 S12 S15 S16 TERM

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 40.D-3
PAS 1.D-3 50.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA

!
!
!
!
!

FICH SPLI ALIC TFRE 0.5E-3

OPTI NOTE CSTA 0.4

GLIS NORM ELEM
STEP IO
LOG 1
JAUM
LMST
PINS GRID DPIN 1.01
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1
NTIL
ADAP RCON WHAN
ADAP RCON TRIG ECRO 1 TVAL 1.05E5 LECT trigger TERM
NOCR TRIG LECT plate lframeb uframe TERM
FLS CUB8 2 ! For the inverse mapping
CALC TINI 0 TEND 32.0E-3 TFAI 1.143E-8 ! 2.0E-8
FIN

D6 S2 35 FPNw.epx

D6_S2_35_FPNW
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FPN.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.001E5 PAS 0.5E5 7.501E5 TERM

SUPP LECT tubelp3 tank TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D6 S2 35 FPNx.epx

D6_S2_35_FPNX
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FPN.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D6 S2 35 FPNy.epx

D6_S2_35_FPNY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FPN.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D6 S2 35 FPNyy.epx

D6_S2_35_FPNYY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FPN.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY

208

Friday 8th September, 2023 @ 14:00

CAME
!

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
FIN

D6 S2 35 FPNz1.epx

D6_S2_35_FPNZ1
ECHO

CONV WIN

RESU SPLI ALIC ’D6_S2_35_FPN.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

0.00000E+00
1.78574E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
: 2.78423E+00
!FAR
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_35_FPN.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 35 FPNz2.epx

D6_S2_35_FPNZ2
ECHO

CONV WIN

RESU SPLI ALIC ’D6_S2_35_FPN.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================

PLAY
CAME
!

6.49959E-01

1.78574E+00
0.00000E+00
1 EYE
-9.84808E-01 0.00000E+00 -1.73648E-01
Q
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 2 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_35_FPN.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 35 FPw.epx

D6_S2_35_FPW
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FP.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.001E5 PAS 0.5E5 7.501E5 TERM

SUPP LECT tubelp3 tank TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
!
LIMA ON
!SLER CAM1 1 NFRA 1

LINE HEOU SFRE SSHA

209

Friday 8th September, 2023 @ 14:00

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!TRAC OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

D6_S2_35_FPYY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

D6 S2 35 FPx.epx

D6_S2_35_FPX
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FP.ali’ GARD PSCR
COMP COUL VERT LECT plate TERM

GR50 LECT lframeb uframe TERM
TURQ LECT tubelp3 tank TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
*-----------------------------------------------------------------------
CAME
!

-2.05103E-10 -1.00000E+00 -6.46235E-26 2.77556E-16

1 EYE -4.60000E-03 -7.47801E-10 -1.66049E+00

Q
VIEW 5.55112E-16 4.10207E-10 1.00000E+00
RIGH 1.00000E+00 1.53918E-26 -5.55112E-16
UP
4.10207E-10
FOV

2.43102E-25 -1.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -4.60000E-03 0.00000E+00 1.62500E-01
!RSPHERE: 3.64597E-01
!RADIUS : 1.82299E+00
!ASPECT : 1.00000E+00
: 1.31529E+00
!NEAR
!FAR
: 2.04449E+00
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb uframe tubelp3 tank TERM ! SYXY

SYXZ
TOLS 1.E-3 NFAI REND

LINE HEOU SFRE SSHA

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!TRAC OFFS SIZE 1200 1200 FICH BMP
!
!*-----------------------------------------------------------------------
!SCEN GEOM NAVI FREE
!
LIMA ON
!
!SLER CAM1 1 NFRA 1
!TRAC OFFS SIZE 1200 1200 FICH BMP
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D6 S2 35 FPy.epx

D6_S2_35_FPY
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35_FP.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM

GR50 LECT lframeb uframe TERM

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate lframeb TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.97046E+00 0.00000E+00 -4.08169E-10

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 1.96000E-02 0.00000E+00
!RSPHERE: 4.42236E-01
!RADIUS : 1.99006E+00
!ASPECT : 1.00000E+00
: 1.54783E+00
!NEAR
!FAR
: 2.87454E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE

LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 10 OFFS SIZE 1200 1200 FICH BMP DEFO AMPD 0.0

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
FIN

D6 S2 35 z1.epx

D6_S2_35_Z1
ECHO

CONV WIN

RESU SPLI ALIC ’D6_S2_35.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

0.00000E+00

6.49959E-01

1.78574E+00
0.00000E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
1.00000E+00 0.00000E+00
UP
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 1 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 25 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_35.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 35 FPyy.epx

D6 S2 35 z2.epx

210

Friday 8th September, 2023 @ 14:00

D6_S2_35_Z2
ECHO

CONV WIN

RESU SPLI ALIC ’D6_S2_35.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.49959E-01

0.00000E+00

0.00000E+00
1.78574E+00
1 EYE
Q
-9.84808E-01 0.00000E+00 -1.73648E-01
VIEW -3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 -3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
CAME
!

-9.84808E-01 0.00000E+00 1.73648E-01 0.00000E+00

2 EYE -6.49959E-01 0.00000E+00 1.78574E+00

Q
VIEW 3.42021E-01 0.00000E+00 -9.39692E-01
RIGH 9.39692E-01 0.00000E+00 3.42021E-01
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : 9.56724E-18 0.00000E+00
!RSPHERE: 4.41942E-01
!RADIUS : 1.90035E+00
!ASPECT : 1.00000E+00
: 1.45841E+00
!NEAR
!FAR
: 2.78423E+00
*-----------------------------------------------------------------------
SCEN GEOM NAVI FREE
FACE SBAC
LINE HEOU SFRE SSHA

LIMA ON
SLER CAM1 2 NFRA 1
TRAC OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

FREQ 1
GOTR LOOP 25 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM SYXY SYXZ TOLS 1.E-3 NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D6_S2_35.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D6 S2 35f.epx

D6_S2_35F
ECHO
!CONV WIN
RESU SPLI ALIC ’D6_S2_35.ali’ GARD PSCR
COMP COUL GR80 LECT plate TERM
SORT VISU NSTO 1
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.85740E+00 2.10571E-03 2.10571E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -2.25515E-03 2.10571E-03 2.10571E-03
!RSPHERE: 4.63787E-01
!RADIUS : 1.85515E+00
!ASPECT : 1.00000E+00
: 1.39136E+00
!NEAR
!FAR
: 2.78272E+00
SCEN GEOM NAVI FREE

LINE HEOU SFRE

SLER CAM1 1 NFRA 1
FREQ 1
TRAC DEFO AMPD 0.0 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM
SYXY SYXZ ! TOLS 1.E-2
NFAI ADAP REND

GOTR LOOP 25 DEFO AMPD 0.0 OFFS SIZE 1200 1200 FICH BMP

OBJE LECT plate TERM
SYXY SYXZ ! TOLS 1.E-2
NFAI ADAP REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO

RESU SPLI ALIC ’D6_S2_35.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D7705600map.dgibi

opti echo 0;
*opti donn ’px4cir3d.proc’;
*$$$$ PX4CIR3D
*
* Pour generer le maillage 3D (plan) d’un quart de cercle
* avec seulement des quadrilateres a 4 noeuds.
* Le quart de cercle est defini par les deux extremes
* d’un arc (de 90 degrees), par le centre du cercle
* et par un autre point qui definit l’axe de rotation
* (axe perpendiculaire au plan du cercle, passant pour son centre).
*
* Input:
* =====
* P1 = premiere extremite de l’arc
* P2 = deuxieme extremite de l’arc
* PC = centre de l’arc
* PZ = autre point de l’axe
* N
* TOL= tolerance pour l’elimination des noeuds doubles
*
* Output:
* ======
* SUR = objet MAILLAGE d’elements de type QUA4
* IER = 0: pas d’erreur, .NE.0: erreur dans la generation de SUR
*
’DEBPROC’ PX4CIR3D P1*’POINT’ P2*’POINT’ PC*’POINT’ PZ*’POINT’

= nombre de mailles a generer sur chaque cote (doit etre pair)

N*’ENTIER’ TOL*’FLOTTANT’;

*------------------------------------------------------------------
*
ier=0;
n2 = n / 2;
p0 = 0 0 0;
pm1 = p1 plus p0;
depl pm1 tour 45 pc pz;
pm2 = 0.5*(pc plus p2);
pm3 = 0.5*(pc plus p1);
pm = 0.5*(pc plus pm1);
c1a = cerc n2 p1 pc pm1;
c1b = cerc n2 pm1 pc p2;
c2a = droi n2 p2 pm2;
c2b = droi n2 pm2 pc;
c3a = droi n2 pc pm3;
c3b = droi n2 pm3 p1;
c4a = droi n2 pm pm1;
c4b = droi n2 pm pm2;
c4c = droi n2 pm pm3;
sur1 = dall plan c4c c3b c1a (inve c4a);
sur2 = dall plan c4a c1b c2a (inve c4b);
sur3 = dall plan c2b c3a (inve c4c) c4b;
sur = sur1 et sur2 et sur3;
*
elim tol sur;
*
’FINPROC’ sur ier;
************************************************************************
************************************************************************
’DEBPROC’ pxextr3d m*’MAILLAGE’ x1*’FLOTTANT’ x2*’FLOTTANT’

y1*’FLOTTANT’ y2*’FLOTTANT’
z1*’FLOTTANT’ z2*’FLOTTANT’;

: 3D mesh

box : mesh contained in the box

*
*--------------------------------------------------
* Extracts from the 3D mesh m the elements whose nodes are
* located in the box [x1-x2,y1-y2,z1-z2].
*
* Input :
* -----
m
*
x1, x2, y1, y2, z1, z2 : extremes of the box
*
* Output :
* ------
*
*--------------------------------------------------
*
x = coor 1 m;
sx = x POIN COMP x1 x2;
y = coor 2 sx;
sy = y POIN COMP y1 y2;
z = coor 3 sy;
sz = z POIN COMP z1 z2;
box = m ELEM APPU STRI sz NOVE;
*
finproc box;
************************************************************************
*
*opti donn ’px4car3d.proc’;
*$$$$ PX4CAR3D
*
* This procedure is similar to PX4CIR3D but instead of a fourth
* of a circle it generates a (fourth of a) square, homeomorphic

211

Friday 8th September, 2023 @ 14:00

vol = cir VOLU n squ;

* to the fourth of a circle that would be generated by PX4CIR3D
* by using the same input parameters (except for PZ which is
* unused in this case).
* In this way the two surfaces (the circle and the square)
* can be connected volumetrically by the VOLU operator:
*
*
* Input:
* =====
* P1 = premiere extremite de l’arc (cote du quadrangle, ici)
* P2 = deuxieme extremite de l’arc (cote du quadrangle, ici)
* PC = centre de l’arc (quadrangle, ici)
* N
* TOL= tolerance pour l’elimination des noeuds doubles
*
* Output:
* ======
* SUR = objet MAILLAGE d’elements de type QUA4
* IER = 0: pas d’erreur, .NE.0: erreur dans la generation de SUR
*
’DEBPROC’ PX4CAR3D P1*’POINT’ P2*’POINT’ PC*’POINT’

= nombre de mailles a generer sur chaque cote (doit etre pair)

N*’ENTIER’ TOL*’FLOTTANT’;

*------------------------------------------------------------------
*
ier=0;
n2 = n / 2;
p0 = 0 0 0;
pm1 = p1 plus (p2 moin pc);
pm2 = 0.5*(pc plus p2);
pm3 = 0.5*(pc plus p1);
pm = 0.5*(pc plus pm1);
c1a = droi n2 p1 pm1;
c1b = droi n2 pm1 p2;
c2a = droi n2 p2 pm2;
c2b = droi n2 pm2 pc;
c3a = droi n2 pc pm3;
c3b = droi n2 pm3 p1;
c4a = droi n2 pm pm1;
c4b = droi n2 pm pm2;
c4c = droi n2 pm pm3;
sur1 = dall plan c4c c3b c1a (inve c4a);
sur2 = dall plan c4a c1b c2a (inve c4b);
sur3 = dall plan c2b c3a (inve c4c) c4b;
sur = sur1 et sur2 et sur3;
*
elim tol sur;
*
’FINPROC’ sur ier;
************************************************************************
opti echo 1;
*
opti dime 3 elem cub8;
opti sauv form ’D7705600map.msh’;
opti trac psc ftra ’D7705600map_mesh.ps’;
*
tol = 1.E-5;
dia = 0.331E0;
rad = 0.5D0*dia;
cot = 0.300E0;
co2 = 0.5D0*cot;
ldr = 0.77E0;
lf1 = 0.07E0;
lf2 = 0.07E0;
ltublp = 16.195;
ltra = 0.60E0;
lp3xd = 3.5E0;
lp3x= lp3xd - ltra;
*lext= ltublp - ltra;
lext = ltublp - lp3xd;
X0 = 0.0 - (ltublp + lf1 + lf2 + ldr);
p0 = X0 0 0;
py = X0 rad 0;
pz = X0 0 rad;
p0b = X0 0 0;
pyb = X0 co2 0;
pzb = X0 0 co2;
px = ldr 0 0;
nr = 16;
h = 0.01E0;
ndr = enti ((ldr+tol) / h);
nf1 = enti ((lf1+tol) / h);
nf2 = enti ((lf2+tol) / h);
ntra = enti ((ltra+tol) / h);
n3x = enti ((lp3x+tol) / h);
fond ier = PX4CIR3D py pz p0 px nr tol;
bout ier = PX4CAR3D pyb pzb p0b nr tol;
bout = bout plus ((ldr + lf1 + lf2 + ltra) 0 0);
driver = fond volu tran ndr (ldr 0 0);
fir1 = (fond plus (ldr 0 0)) volu tran nf1 (lf1 0 0);
fir1 = coul vert (fir1);
fir2 = (fond plus ((ldr + lf1) 0 0)) volu tran nf2 (lf2 0 0);
fir2 = coul bleu (fir2);
tra = (fond plus ((ldr + lf1 + lf2) 0 0)) volu ntra bout;
trac cach qual (tra et fir1 et fir2 et driver);
*
************************************************************************
* Spurious contact surface/tube/trans for membranes
************************************************************************
*
ddr = 0.0025;
rsh = ddr;
pst1 = p0 PLUS (0 0 0);

pst2 = py PLUS (0 rsh 0);
pst3 = pz PLUS (0 0 rsh);
pst4 = px PLUS (0 0 0);
*
fondd ier = PX4CIR3D pst2 pst3 pst1 pst4 (nr) tol;
*
pst5 = p0b PLUS (0 0 0);
pst6 = pyb PLUS (0 rsh 0);
pst7 = pzb PLUS (0 0 rsh);
*
boutd ier = PX4CAR3D pst6 pst7 pst5 (nr) tol;
boutd = boutd plus ((ldr + lf1 + lf2 + ltra) 0 0);
*
tradd = (fondd plus ((ldr + lf1 + lf2) 0 0)) volu (ntra) boutd;
ndum = nf1;
fird1 = (fondd plus ((ldr-0.01) 0 0)) volu tran (ndum+1)
((lf1+0.01) 0 0);
fird2 = (fondd plus ((ldr + lf1) 0 0)) volu tran (nf2) (lf2 0 0);
*
trad = tradd et fird1 et fird2;
elim tol trad;
*
tras = enve trad;
trac cach qual trad;
*trac cach qual tras;
trac cach qual (fondd et boutd);
trac cach qual (fondd et boutd et tras);
*
************************************************************************
* Extract non-outward-directed walls from tras
************************************************************************
*
nout1 = (pxextr3d tras -16.347 -16.343 -0.001 0.175 -0.001 0.175)

COUL VERT;

nout2 = (pxextr3d tras -15.597 -15.593 -0.001 0.175 -0.001 0.175)

COUL VERT;

nout3 = (pxextr3d tras -16.347 -15.593 -0.001 0.175 -0.001 0.001)

COUL VERT;

nout4 = (pxextr3d tras -16.347 -15.593 -0.001 0.001 -0.001 0.175)

COUL VERT;

nout = nout1 et nout2 et nout3 et nout4;
pinbcm = (tras DIFF nout) COUL ROUG;
npincm = chan poi1 pinbcm;
trac cach qual (nout1 et nout2 et nout3);
trac cach qual nout;
trac cach qual pinbcm;
trac cach qual (fondd et boutd et pinbcm);
trac cach qual (tra et pinbcm);
trac cach qual (tra et npincm);
*
************************************************************************
*
boutx = bout plus ((lp3x) 0 0);
lp3xl = bout volu n3x boutx;
*
flui3d = driver et fir1 et fir2 et tra et lp3xl;
elim tol flui3d;
trac cach qual flui3d;
trac cach qual (flui3d et pinbcm);
list (nbel flui3d);
list (nbel (flui3d elem cub8));
mem1 = fond plus (ldr 0 0);
mem2 = mem1 plus (lf1 0 0);
*mem3 = mem2 plus (lf2 0 0);
*mems = mem1 et mem2 et mem3;
mems = mem1 et mem2;
pre1 = mem1 coul jaun;
pre2 = mem2 coul jaun;
*pre3 = mem3 coul jaun;
*pre = pre1 et pre2 et pre3;
pre = pre1 et pre2;
*
*face3d = bout PLUS (0 0 0);
face3d = boutx PLUS (0 0 0);
pface3d = chan poi1 face3d;
elim tol (pface3d et flui3d);
p1a = (0 - lext) 0 0;
trac cach qual (p1a et face3d et pinbcm);
rac3d1d = manu supe (p1a et face3d);
list (nbno rac3d1d);
list (nbno face3d);
mesh1 = mems et flui3d et pre et face3d et rac3d1d;
*
p1d1 = (0 - lext) 0 0;
*p1d3 = 0 0 0;
lenlp3d = 0.6;
p1d3 = (0 - lenlp3d) 0 0;
tubelp1 = p1d1 d p1d3 dini h dfin h;
*
trac cach qual (p1a et face3d et pinbcm et tubelp1);
*
tube = tubelp1;
*
trac cach qual (tubelp1 ET p1d1 ET p1d3);
trac cach qual (tubelp1 ET p1d1 ET p1d3 et pinbcm);
*
elim tol (p1a et tubelp1);
*
oubl ltubhp;
oubl ltube;
oubl tol;
oubl p0;
oubl d1;

212

Friday 8th September, 2023 @ 14:00

oubl d2;
oubl p1d1;
*
* we add a fake triangle to host a fake pinball which is never eroded
* (to avoid a bug in the code)
pfake1 = -16.300 0 0;
pfake2 = -16.297 0 0;
pfake3 = -16.2985 0.003 0;
fake = manu tri3 pfake1 pfake2 pfake3;
*
mesh = tube et mesh1 et fake et pinbcm et npincm;
trac cach qual mesh;
tass mesh noop;
sauv form mesh;
list;
*
fin;

D7705600map.epx

D7705600map
ECHO
!CONV win
CAST mesh
TRID ALE
EROS 1.0
DIME ADAP NPOI 300000
CUVF 300000
NVFI 800000
Q4GS 10000
CL3D 10000
NPIN 10000

ENDA
JONC 218 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM

GEOM

Q4GS mems pinbcm
PMAT npincm
CUVF flui3d
T3GS fake
TUVF tubelp1
CL3D pre face3d
TUBM rac3d1d

TERM
COMP DIAM DROI 0.1692568 LECT tubelp1 TERM

RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM

TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 17 ’nrac3d1d’ LECT mesh1 rac3d1d TERM

COND XB GT -12.6952 COND XB LT -12.6948

’fcoup1’ LECT flui3d TERM

COND XB GT -16.405
COND XB LT -15.105

’S1’ LECT tube TERM COND NEAR POIN -0.345 0.15 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.15 0.15
’S3’ LECT tube TERM COND NEAR POIN 0.0 0.0 0.0
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

!

’tubelpp’ LECT tubelp1 DIFF epar1 TERM ! epar2 TERM

’memc1’ LECT mem1 TERM COND NEAR POIN -16.435 0 0
’memc1d’ LECT mem1 TERM COND CYLI X1 -16.505 Y1 0 Z1 0

X2 -16.305 Y2 0 Z2 0 R .15

’memc1b’ LECT mem1 DIFF memc1d TERM

NGRO 7 ’nmemi’ LECT mems TERM

COND CYLI X1 -20 Y1 0 Z1 0 X2 20 Y2 0 Z2 0 R 0.1650

’nmemo’ LECT mems DIFF nmemi TERM
’nsymy’ LECT mems TERM COND Y LT 0.001
’nsymz’ LECT mems TERM COND Z LT 0.001
’m1c’
’m2c’

LECT mem1 TERM COND NEAR POIN -16.335 0 0
LECT mem2 TERM COND NEAR POIN -16.265 0 0

!

’m3c’

LECT mem3 TERM COND NEAR POIN -16.195 0 0

’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0

EPAI 0.25E-3 LECT mems DIFF memc1 memc1b TERM

0.22E-3 LECT memc1 TERM
0.29E-3 LECT memc1b TERM
3.00E-3 LECT fake TERM
1.00E-3 LECT pinbcm TERM
5.00E-3 LECT npincm TERM ! Only for visualization

COUL TURQ LECT tube tra lp3xl TERM

VERT LECT fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM
GR50 LECT mems TERM
ROUG LECT fake TERM
JAUN LECT pre TERM
GR50 LECT pinbcm TERM
ROSE LECT S3 S1 S2 S5 S6 S11 S12 S15 S16 TERM

!

DIAM DROI 0.1692568 LECT tubelp1 TERM

ADAP THRS ECRO 3 TMIN 0.01 TMAX 0.4 MAXL 3

LECT mems TERM

GRIL LAGR LECT mems fake TERM
FONC 1 TABL 5 0.0

0.0
5.0E-3
1.0
6.999E-3 1.0
7.0E-3
0.0
100.0E-3 0.0

MATE

!LOI 1

VM23 RO 1380 YOUN 2757.9E6 NU 0.495 ELAS 160.E6 ! "Melinex/Mylar/

! PET" EPAI<0.5
! = Material 7

FAIL PEPR LIMI 1.2
TRAC 3 160.E6 0.058015156
180.E6 1.5
207.E6 3.5

LECT mems _q4gs TERM

!LOI 2

GAZP RO 7.5326 GAMM 1.4 CV 719.286 PINI 6.376E5 PREF 100.5E3

LECT none TERM

!LOI 3

GAZP RO 1.187 GAMM 1.4 CV 719.286 PINI 100.5E3 PREF 100.5E3

LECT none TERM

!LOI 4

GAZP RO 1.187 GAMM 1.4 CV 719.286 PINI 100.5E3 PREF 100.5E3

LECT none TERM

!LOI 5

GAZP RO 1.187 GAMM 1.4 CV 719.286 PINI 100.5E3 PREF 100.5E3

LECT flui3d _cuvf TERM

!LOI 6

!
!

IMPE PIMP PRES 13.723E5 PREF 1.011E5 FONC 1
IMPE PIMP PRES 12.98E5 PREF 0 FONC 1

IMPE PIMP PRES 2.25E5 PREF 0 FONC 1

LECT pre _cl3d TERM

GAZP RO 1.187 GAMM 1.4 CV 719.286 PINI 100.5E3 PREF 100.5E3

LECT epar1 epar2 TERM

GAZP RO 1.187 GAMM 1.4 CV 719.286 PINI 100.5E3 PREF 100.5E3

LECT rac3d1d tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 8 9 LECT tubelpp TERM
GAZP RO 1.187 GAMM 1.4 CV 719.286 PINI 100.5E3 PREF 100.5E3

LECT _cuvf TERM

FANT 0.0

LECT fake TERM

VM23 RO 7850 YOUNG 2.1E11 NU 0.3 ELAS 1000E6 ! Elastic steel

TRAC 2 1000E6 0.0047619048

1100E6 5.1

LECT pinbcm TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT npincm TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1
!OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT nmemo TERM
BLOQ 123 LECT pinbcm TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT nsymy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT nsymz TERM

LINK DECO

PINB PENA SFAC 1.0

BODY

BODY

BODY

BODY

BODY

LECT mem1 TERM

LECT mem2 TERM

LECT mem3 TERM

LECT fake TERM

LECT npincm TERM

EXCL PAIR 1 3
EXCL PAIR 2 3

EXCL PAIR 3 4

EXCL PAIR 3 4
FLSW STRU LECT mems TERM

!
!

!

DMIN 0.003 ! #6

DMIN 0.003 ! #7

DMIN 0.003

! #8

MLEV 0

! #8

DIAM 5.E-3

FLUI LECT fcoup1 TERM
R 0.025 ! 0.014
HGRI 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 3 SCAL 2

INIT SKIP UPTO 7.E-3 VFCC
ADAP IMAT TIME 7.E-3

2 MATE 2 OBJE LECT flui3d TERM

INSI SURF LECT mem1 TERM

MATE 3 OBJE LECT flui3d TERM

OUTS SURF LECT mem1 TERM
INSI SURF LECT mem2 TERM

MATE 4 OBJE LECT flui3d TERM

!
!
!
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

OUTS SURF LECT mem2 TERM
INSI SURF LECT mem3 TERM

NOPO !POIN LECT cen TERM
ELEM LECT S1 TERM
FICH ALIC TEMP TFRE 10.e-6
! FICH ALIT FREQ 0 TFRE 0.D0

! TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.01D-3 110.D-3

!POIN LECT cen TERM

213

Friday 8th September, 2023 @ 14:00

ELEM LECT S1 S2 S3 S5 S6 S11 S12 S15 S16 TERM

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 110.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA DTST

FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

TIME PROG 38.0E-3 TERM

TIME PROG 31.0E-3 TERM

!
!
!
!
!

!

FICH SPLI ALIC FREQ 0 TFRE 1.D-3 ! 0.D0
!
!

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 80.D-3

OPTI NOTE CSTA 0.25

STEP IO
LOG 1
JAUM
LMST
FANT 10.0E-3 LECT mems TERM !_q4gs TERM ! Corresponds to FANT 6E-3

! in other analyses

VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
NTIL

ADAP RCON !TRIG ECRO 1 TVAL 1.02E5 LECT trigger TERM
PINS GRID DPIN 1.01
FLS CUB8 2 ! For the inverse mapping
QUAS STAT 2000 0.1 UPTO 5.0E-3

CALC TINI 0 TEND 44.0E-3
FIN

D7705600mapw.epx

D7705600MAPW
ECHO

CONV WIN

RESU SPLI ALIC ’D7705600map.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM
TURQ LECT flui3d TERM

!

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
UP
1.00000E+00
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00
!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
!FAR
: 1.21900E+00
SCEN GEOM NAVI FREE
FACE SBAC
LINE SFRE

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.E5 PAS 0.5E5 7.5E5 TERM

SUPP LECT flui3d TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D7705600mapx.epx

D7705600mapx
ECHO
!CONV WIN
RESU SPLI ALIC ’D7705600map.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui3d tubelp1 TERM

COND LINE X1 -17.105 Y1 0 Z1 0

X2 -0.6

Y2 0 Z2 0 TOL 1.E-3

SORT GRAP
AXTE 1.0 ’Time [s]’
SCOU 1 ’p_38’ T 38.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

SCOU 2 ’r_38’ T 38.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

SCOU 3 ’v_38’ T 38.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

RCOU 11 ’p_38’ FICH ’D7705600mapx_old.pun’ RENA ’p_38_2021’
RCOU 12 ’r_38’ FICH ’D7705600mapx_old.pun’ RENA ’r_38_2021’
RCOU 13 ’v_38’ FICH ’D7705600mapx_old.pun’ RENA ’v_38_2021’

TRAC 1 11 AXES 1.0 ’PRESS. [Pa]’
COLO NOIR ROUG
TRAC 2 12 AXES 1.0 ’DENS. [kg/m3]’
COLO NOIR ROUG
TRAC 3 13 AXES 1.0 ’VELO. [m/s]’
COLO NOIR ROUG
LIST 1 AXES 1.0 ’PRESS. [Pa]’
LIST 2 AXES 1.0 ’DENS. [kg/m3]’
LIST 3 AXES 1.0 ’VELO. [m/s]’
FIN

D7705600mapy.epx

D7705600MAPY
ECHO

CONV WIN

RESU SPLI ALIC ’D7705600map.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 10
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.72612E+01 2.81122E-03 2.81116E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -1.62964E+01 2.81122E-03 2.81116E-03
!RSPHERE: 2.41195E-01
!RADIUS : 9.64780E-01
!ASPECT : 1.00000E+00
: 7.23585E-01
!NEAR
: 1.44717E+00
!FAR
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

OFFS SIZE 600 600 FICH BMP

!TRAC DEFO AMPD 0.0
!
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT mem3 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D7710600mapa.dgibi

opti echo 0;
*opti donn ’px4cir3d.proc’;
*$$$$ PX4CIR3D
*
* Pour generer le maillage 3D (plan) d’un quart de cercle
* avec seulement des quadrilateres a 4 noeuds.
* Le quart de cercle est defini par les deux extremes
* d’un arc (de 90 degrees), par le centre du cercle
* et par un autre point qui definit l’axe de rotation
* (axe perpendiculaire au plan du cercle, passant pour son centre).
*
* Input:
* =====
* P1 = premiere extremite de l’arc
* P2 = deuxieme extremite de l’arc
* PC = centre de l’arc
* PZ = autre point de l’axe
* N
* TOL= tolerance pour l’elimination des noeuds doubles
*
* Output:
* ======
* SUR = objet MAILLAGE d’elements de type QUA4
* IER = 0: pas d’erreur, .NE.0: erreur dans la generation de SUR
*
’DEBPROC’ PX4CIR3D P1*’POINT’ P2*’POINT’ PC*’POINT’ PZ*’POINT’

= nombre de mailles a generer sur chaque cote (doit etre pair)

N*’ENTIER’ TOL*’FLOTTANT’;

*------------------------------------------------------------------
*
ier=0;
n2 = n / 2;
p0 = 0 0 0;
pm1 = p1 plus p0;
depl pm1 tour 45 pc pz;
pm2 = 0.5*(pc plus p2);
pm3 = 0.5*(pc plus p1);
pm = 0.5*(pc plus pm1);
c1a = cerc n2 p1 pc pm1;
c1b = cerc n2 pm1 pc p2;
c2a = droi n2 p2 pm2;
c2b = droi n2 pm2 pc;
c3a = droi n2 pc pm3;
c3b = droi n2 pm3 p1;

214

Friday 8th September, 2023 @ 14:00

c4a = droi n2 pm pm1;
c4b = droi n2 pm pm2;
c4c = droi n2 pm pm3;
sur1 = dall plan c4c c3b c1a (inve c4a);
sur2 = dall plan c4a c1b c2a (inve c4b);
sur3 = dall plan c2b c3a (inve c4c) c4b;
sur = sur1 et sur2 et sur3;
*
elim tol sur;
*
’FINPROC’ sur ier;
************************************************************************
************************************************************************
’DEBPROC’ pxextr3d m*’MAILLAGE’ x1*’FLOTTANT’ x2*’FLOTTANT’

y1*’FLOTTANT’ y2*’FLOTTANT’
z1*’FLOTTANT’ z2*’FLOTTANT’;

: 3D mesh

box : mesh contained in the box

*
*--------------------------------------------------
* Extracts from the 3D mesh m the elements whose nodes are
* located in the box [x1-x2,y1-y2,z1-z2].
*
* Input :
* -----
m
*
*
x1, x2, y1, y2, z1, z2 : extremes of the box
* Output :
* ------
*
*--------------------------------------------------
*
x = coor 1 m;
sx = x POIN COMP x1 x2;
y = coor 2 sx;
sy = y POIN COMP y1 y2;
z = coor 3 sy;
sz = z POIN COMP z1 z2;
box = m ELEM APPU STRI sz NOVE;
*
finproc box;
************************************************************************
*
*opti donn ’px4car3d.proc’;
*$$$$ PX4CAR3D
*
* This procedure is similar to PX4CIR3D but instead of a fourth
* of a circle it generates a (fourth of a) square, homeomorphic
* to the fourth of a circle that would be generated by PX4CIR3D
* by using the same input parameters (except for PZ which is
* unused in this case).
* In this way the two surfaces (the circle and the square)
* can be connected volumetrically by the VOLU operator:
*
*
* Input:
* =====
* P1 = premiere extremite de l’arc (cote du quadrangle, ici)
* P2 = deuxieme extremite de l’arc (cote du quadrangle, ici)
* PC = centre de l’arc (quadrangle, ici)
* N
* TOL= tolerance pour l’elimination des noeuds doubles
*
* Output:
* ======
* SUR = objet MAILLAGE d’elements de type QUA4
* IER = 0: pas d’erreur, .NE.0: erreur dans la generation de SUR
*
’DEBPROC’ PX4CAR3D P1*’POINT’ P2*’POINT’ PC*’POINT’

= nombre de mailles a generer sur chaque cote (doit etre pair)

vol = cir VOLU n squ;

N*’ENTIER’ TOL*’FLOTTANT’;

*------------------------------------------------------------------
*
ier=0;
n2 = n / 2;
p0 = 0 0 0;
pm1 = p1 plus (p2 moin pc);
pm2 = 0.5*(pc plus p2);
pm3 = 0.5*(pc plus p1);
pm = 0.5*(pc plus pm1);
c1a = droi n2 p1 pm1;
c1b = droi n2 pm1 p2;
c2a = droi n2 p2 pm2;
c2b = droi n2 pm2 pc;
c3a = droi n2 pc pm3;
c3b = droi n2 pm3 p1;
c4a = droi n2 pm pm1;
c4b = droi n2 pm pm2;
c4c = droi n2 pm pm3;
sur1 = dall plan c4c c3b c1a (inve c4a);
sur2 = dall plan c4a c1b c2a (inve c4b);
sur3 = dall plan c2b c3a (inve c4c) c4b;
sur = sur1 et sur2 et sur3;
*
elim tol sur;
*
’FINPROC’ sur ier;
************************************************************************
opti echo 1;
*
opti dime 3 elem cub8;
opti sauv form ’D7710600mapa.msh’;
opti trac psc ftra ’D7710600mapa_mesh.ps’;
*
tol = 1.E-5;

dia = 0.331E0;
rad = 0.5D0*dia;
cot = 0.300E0;
co2 = 0.5D0*cot;
ldr = 0.77E0;
lf1 = 0.07E0;
lf2 = 0.07E0;
ltublp = 16.195;
ltra = 0.60E0;
lp3xd = 3.5E0;
lp3x= lp3xd - ltra;
*lext= ltublp - ltra;
lext = ltublp - lp3xd;
X0 = 0.0 - (ltublp + lf1 + lf2 + ldr);
p0 = X0 0 0;
py = X0 rad 0;
pz = X0 0 rad;
p0b = X0 0 0;
pyb = X0 co2 0;
pzb = X0 0 co2;
px = ldr 0 0;
nr = 16;
h = 0.01E0;
ndr = enti ((ldr+tol) / h);
nf1 = enti ((lf1+tol) / h);
nf2 = enti ((lf2+tol) / h);
ntra = enti ((ltra+tol) / h);
n3x = enti ((lp3x+tol) / h);
fond ier = PX4CIR3D py pz p0 px nr tol;
bout ier = PX4CAR3D pyb pzb p0b nr tol;
bout = bout plus ((ldr + lf1 + lf2 + ltra) 0 0);
driver = fond volu tran ndr (ldr 0 0);
fir1 = (fond plus (ldr 0 0)) volu tran nf1 (lf1 0 0);
fir1 = coul vert (fir1);
fir2 = (fond plus ((ldr + lf1) 0 0)) volu tran nf2 (lf2 0 0);
fir2 = coul bleu (fir2);
tra = (fond plus ((ldr + lf1 + lf2) 0 0)) volu ntra bout;
trac cach qual (tra et fir1 et fir2 et driver);
*
************************************************************************
* Spurious contact surface/tube/trans for membranes
************************************************************************
*
ddr = 0.0025;
rsh = ddr;
pst1 = p0 PLUS (0 0 0);
pst2 = py PLUS (0 rsh 0);
pst3 = pz PLUS (0 0 rsh);
pst4 = px PLUS (0 0 0);
*
fondd ier = PX4CIR3D pst2 pst3 pst1 pst4 (nr) tol;
*
pst5 = p0b PLUS (0 0 0);
pst6 = pyb PLUS (0 rsh 0);
pst7 = pzb PLUS (0 0 rsh);
*
boutd ier = PX4CAR3D pst6 pst7 pst5 (nr) tol;
boutd = boutd plus ((ldr + lf1 + lf2 + ltra) 0 0);
*
tradd = (fondd plus ((ldr + lf1 + lf2) 0 0)) volu (ntra) boutd;
ndum = nf1;
fird1 = (fondd plus ((ldr-0.01) 0 0)) volu tran (ndum+1)
((lf1+0.01) 0 0);
fird2 = (fondd plus ((ldr + lf1) 0 0)) volu tran (nf2) (lf2 0 0);
*
trad = tradd et fird1 et fird2;
elim tol trad;
*
tras = enve trad;
trac cach qual trad;
*trac cach qual tras;
trac cach qual (fondd et boutd);
trac cach qual (fondd et boutd et tras);
*
************************************************************************
* Extract non-outward-directed walls from tras
************************************************************************
*
nout1 = (pxextr3d tras -16.347 -16.343 -0.001 0.175 -0.001 0.175)

COUL VERT;

nout2 = (pxextr3d tras -15.597 -15.593 -0.001 0.175 -0.001 0.175)

COUL VERT;

nout3 = (pxextr3d tras -16.347 -15.593 -0.001 0.175 -0.001 0.001)

COUL VERT;

nout4 = (pxextr3d tras -16.347 -15.593 -0.001 0.001 -0.001 0.175)

COUL VERT;

nout = nout1 et nout2 et nout3 et nout4;
pinbcm = (tras DIFF nout) COUL ROUG;
npincm = chan poi1 pinbcm;
trac cach qual (nout1 et nout2 et nout3);
trac cach qual nout;
trac cach qual pinbcm;
trac cach qual (fondd et boutd et pinbcm);
trac cach qual (tra et pinbcm);
trac cach qual (tra et npincm);
*
************************************************************************
*
boutx = bout plus ((lp3x) 0 0);
lp3xl = bout volu n3x boutx;
*
flui3d = driver et fir1 et fir2 et tra et lp3xl;
elim tol flui3d;

215

Friday 8th September, 2023 @ 14:00

trac cach qual flui3d;
trac cach qual (flui3d et pinbcm);
list (nbel flui3d);
list (nbel (flui3d elem cub8));
mem1 = fond plus (ldr 0 0);
mem2 = mem1 plus (lf1 0 0);
*mem3 = mem2 plus (lf2 0 0);
*mems = mem1 et mem2 et mem3;
mems = mem1 et mem2;
pre1 = mem1 coul jaun;
pre2 = mem2 coul jaun;
*pre3 = mem3 coul jaun;
*pre = pre1 et pre2 et pre3;
pre = pre1 et pre2;
*
*face3d = bout PLUS (0 0 0);
face3d = boutx PLUS (0 0 0);
pface3d = chan poi1 face3d;
elim tol (pface3d et flui3d);
p1a = (0 - lext) 0 0;
trac cach qual (p1a et face3d et pinbcm);
rac3d1d = manu supe (p1a et face3d);
list (nbno rac3d1d);
list (nbno face3d);
mesh1 = mems et flui3d et pre et face3d et rac3d1d;
*
p1d1 = (0 - lext) 0 0;
*p1d3 = 0 0 0;
lenlp3d = 0.6;
p1d3 = (0 - lenlp3d) 0 0;
tubelp1 = p1d1 d p1d3 dini h dfin h;
*
trac cach qual (p1a et face3d et pinbcm et tubelp1);
*
tube = tubelp1;
*
trac cach qual (tubelp1 ET p1d1 ET p1d3);
trac cach qual (tubelp1 ET p1d1 ET p1d3 et pinbcm);
*
elim tol (p1a et tubelp1);
*
oubl ltubhp;
oubl ltube;
oubl tol;
oubl p0;
oubl d1;
oubl d2;
oubl p1d1;
*
* we add a fake triangle to host a fake pinball which is never eroded
* (to avoid a bug in the code)
pfake1 = -16.300 0 0;
pfake2 = -16.297 0 0;
pfake3 = -16.2985 0.003 0;
fake = manu tri3 pfake1 pfake2 pfake3;
*
mesh = tube et mesh1 et fake et pinbcm et npincm;
trac cach qual mesh;
tass mesh noop;
sauv form mesh;
list;
*
fin;

D7710600mapa.epx

D7710600mapa
ECHO
!CONV win
CAST mesh
TRID ALE
EROS 1.0
DIME ADAP NPOI 300000
CUVF 300000
NVFI 800000
Q4GS 10000
CL3D 10000
NPIN 10000

ENDA
JONC 218 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM

GEOM

Q4GS mems pinbcm
PMAT npincm
CUVF flui3d
T3GS fake
TUVF tubelp1
CL3D pre face3d
TUBM rac3d1d

TERM
COMP DIAM DROI 0.1692568 LECT tubelp1 TERM

RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM

TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 17 ’nrac3d1d’ LECT mesh1 rac3d1d TERM

COND XB GT -12.6952 COND XB LT -12.6948

’fcoup1’ LECT flui3d TERM

COND XB GT -16.405
COND XB LT -15.105

’S1’ LECT tube TERM COND NEAR POIN -0.345 0.15 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.15 0.15
’S3’ LECT tube TERM COND NEAR POIN 0.0 0.0 0.0
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

!

’tubelpp’ LECT tubelp1 DIFF epar1 TERM ! epar2 TERM

’memc1’ LECT mem1 TERM COND NEAR POIN -16.435 0 0
’memc1d’ LECT mem1 TERM COND CYLI X1 -16.505 Y1 0 Z1 0

X2 -16.305 Y2 0 Z2 0 R .15

’memc1b’ LECT mem1 DIFF memc1d TERM

NGRO 7 ’nmemi’ LECT mems TERM

COND CYLI X1 -20 Y1 0 Z1 0 X2 20 Y2 0 Z2 0 R 0.1650

’nmemo’ LECT mems DIFF nmemi TERM
’nsymy’ LECT mems TERM COND Y LT 0.001
’nsymz’ LECT mems TERM COND Z LT 0.001
’m1c’
’m2c’

LECT mem1 TERM COND NEAR POIN -16.335 0 0
LECT mem2 TERM COND NEAR POIN -16.265 0 0

!

’m3c’

LECT mem3 TERM COND NEAR POIN -16.195 0 0

’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0

EPAI 0.50E-3 LECT mems TERM
3.00E-3 LECT fake TERM
1.00E-3 LECT pinbcm TERM
5.00E-3 LECT npincm TERM ! Only for visualization

COUL TURQ LECT tube tra lp3xl TERM

VERT LECT fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM
GR50 LECT mems TERM
ROUG LECT fake TERM
JAUN LECT pre TERM
GR50 LECT pinbcm TERM
ROSE LECT S3 S1 S2 S5 S6 S11 S12 S15 S16 TERM

!
ADAP THRS ECRO 3 TMIN 0.01 TMAX 0.4 MAXL 3

DIAM DROI 0.1692568 LECT tubelp1 TERM

LECT mems TERM

GRIL LAGR LECT mems fake TERM
FONC 1 TABL 5 0.0

0.0
5.0E-3
1.0
6.999E-3 1.0
7.0E-3
0.0
100.0E-3 0.0

MATE

!LOI 1

VM23 RO 1380 YOUN 2757.9E6 NU 0.495 ELAS 100.E6 ! "Melinex/Mylar/

! PET" EPAI=0.5
! = Material 2

FAIL PEPR LIMI 1.0
TRAC 3 100.E6 0.03626

180.E6 1.5
230.E6 3.5

LECT mems _q4gs TERM

!LOI 2

GAZP RO 13.445 GAMM 1.4 CV 719.286 PINI 11.36E5 PREF 9.968E4

LECT none TERM

!LOI 3

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 4

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 5

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT flui3d _cuvf TERM

!LOI 6

!
!

IMPE PIMP PRES 13.723E5 PREF 1.011E5 FONC 1
IMPE PIMP PRES 12.98E5 PREF 0 FONC 1

IMPE PIMP PRES 4.20E5 PREF 0 FONC 1

LECT pre _cl3d TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT epar1 epar2 TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT rac3d1d tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 8 9 LECT tubelpp TERM
GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT _cuvf TERM

FANT 0.0

LECT fake TERM

VM23 RO 7850 YOUNG 2.1E11 NU 0.3 ELAS 1000E6 ! Elastic steel

TRAC 2 1000E6 0.0047619048

1100E6 5.1

LECT pinbcm TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT npincm TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1
!OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT nmemo TERM
BLOQ 123 LECT pinbcm TERM

216

Friday 8th September, 2023 @ 14:00

CONT SPLA NX 0 NY 1 NZ 0 LECT nsymy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT nsymz TERM

LINK DECO

PINB PENA SFAC 1.0

BODY

BODY

BODY

BODY

BODY

LECT mem1 TERM

LECT mem2 TERM

LECT mem3 TERM

LECT fake TERM

LECT npincm TERM

EXCL PAIR 1 3
EXCL PAIR 2 3

EXCL PAIR 3 4

EXCL PAIR 3 4
FLSW STRU LECT mems TERM

!
!

!

DMIN 0.003 ! #6

DMIN 0.003 ! #7

DMIN 0.003

! #8

MLEV 0

! #8

DIAM 5.E-3

FLUI LECT fcoup1 TERM
R 0.025 ! 0.014
HGRI 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 3 SCAL 2

INIT SKIP UPTO 7.E-3 VFCC
ADAP IMAT TIME 7.E-3

2 MATE 2 OBJE LECT flui3d TERM

INSI SURF LECT mem1 TERM

MATE 3 OBJE LECT flui3d TERM

OUTS SURF LECT mem1 TERM
INSI SURF LECT mem2 TERM

MATE 4 OBJE LECT flui3d TERM

!
!
!
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

OUTS SURF LECT mem2 TERM
INSI SURF LECT mem3 TERM

NOPO !POIN LECT cen TERM
ELEM LECT S1 TERM
FICH ALIC TEMP TFRE 10.e-6
! FICH ALIT FREQ 0 TFRE 0.D0

! TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.01D-3 110.D-3

!POIN LECT cen TERM
ELEM LECT S1 S2 S3 S5 S6 S11 S12 S15 S16 TERM

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 110.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA DTST

FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

TIME PROG 38.0E-3 TERM
TIME PROG 31.0E-3 TERM
TIME PROG 31.0E-3 TERM !fc is this OK?

!
!
!
!
!

!
!

FICH SPLI ALIC FREQ 0 TFRE 1.D-3 ! 0.D0
!
!

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 80.D-3

OPTI NOTE CSTA 0.25

STEP IO
LOG 1
JAUM
LMST
FANT 8.0E-3 LECT mems TERM !_q4gs TERM !fc is this OK?
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
NTIL

ADAP RCON !TRIG ECRO 1 TVAL 1.02E5 LECT trigger TERM
PINS GRID DPIN 1.01
FLS CUB8 2 ! For the inverse mapping
QUAS STAT 1670 0.1 UPTO 7.0E-3 !fc is this OK ???

CALC TINI 0 TEND 40.0E-3
FIN

D7710600mapaw.epx

D7710600MAPAW
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600mapa.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM
TURQ LECT flui3d TERM

!

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
UP
1.00000E+00
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00

!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
: 1.21900E+00
!FAR
SCEN GEOM NAVI FREE
FACE SBAC
LINE SFRE

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.E5 PAS 0.5E5 7.5E5 TERM

SUPP LECT flui3d TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D7710600mapax.epx

D7710600mapax
ECHO
!CONV WIN
RESU SPLI ALIC ’D7710600mapa.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui3d tubelp1 TERM

COND LINE X1 -17.105 Y1 0 Z1 0

X2 -0.6

Y2 0 Z2 0 TOL 1.E-3

SORT GRAP
AXTE 1.0 ’Time [s]’
SCOU 1 ’p_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

SCOU 2 ’r_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

SCOU 3 ’v_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

TRAC 1 AXES 1.0 ’PRESS. [Pa]’
TRAC 2 AXES 1.0 ’DENS. [kg/m3]’
TRAC 3 AXES 1.0 ’VELO. [m/s]’
LIST 1 AXES 1.0 ’PRESS. [Pa]’
LIST 2 AXES 1.0 ’DENS. [kg/m3]’
LIST 3 AXES 1.0 ’VELO. [m/s]’
FIN

D7710600mapay.epx

D7710600MAPAY
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600mapa.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 9
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.72612E+01 2.81122E-03 2.81116E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -1.62964E+01 2.81122E-03 2.81116E-03
!RSPHERE: 2.41195E-01
!RADIUS : 9.64780E-01
!ASPECT : 1.00000E+00
: 7.23585E-01
!NEAR
!FAR
: 1.44717E+00
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

OFFS SIZE 600 600 FICH BMP

!TRAC DEFO AMPD 0.0
!
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT mem3 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D7710600mapb.epx

D7710600mapb
ECHO
!CONV win
CAST mesh
TRID ALE

217

Friday 8th September, 2023 @ 14:00

EROS 1.0
DIME ADAP NPOI 300000
CUVF 300000
NVFI 800000
Q4GS 10000
CL3D 10000
NPIN 10000

ENDA
JONC 218 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM

GEOM

Q4GS mems pinbcm
PMAT npincm
CUVF flui3d
T3GS fake
TUVF tubelp1
CL3D pre face3d
TUBM rac3d1d

TERM
COMP DIAM DROI 0.1692568 LECT tubelp1 TERM

RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM

TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 21 ’nrac3d1d’ LECT mesh1 rac3d1d TERM

COND XB GT -12.6952 COND XB LT -12.6948

’fcoup1’ LECT flui3d TERM

COND XB GT -16.405
COND XB LT -15.105

’S1’ LECT tube TERM COND NEAR POIN -0.345 0.15 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.15 0.15
’S3’ LECT tube TERM COND NEAR POIN 0.0 0.0 0.0
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

!

’tubelpp’ LECT tubelp1 DIFF epar1 TERM ! epar2 TERM

’memc1’ LECT mem1 TERM COND NEAR POIN -16.435 0 0
’memc1d’ LECT mem1 TERM COND CYLI X1 -16.505 Y1 0 Z1 0

X2 -16.305 Y2 0 Z2 0 R .15

’memc1b’ LECT mem1 DIFF memc1d TERM
’e4’ LECT flui3d TERM COND NEAR POIN -16.340 0.1655 0
’e3’ LECT flui3d TERM COND NEAR POIN -16.270 0.1655 0
’e2’ LECT flui3d TERM COND NEAR POIN -16.200 0.1655 0
’e1’ LECT flui3d TERM COND NEAR POIN -16.190 0.1655 0

NGRO 7 ’nmemi’ LECT mems TERM

COND CYLI X1 -20 Y1 0 Z1 0 X2 20 Y2 0 Z2 0 R 0.1650

’nmemo’ LECT mems DIFF nmemi TERM
’nsymy’ LECT mems TERM COND Y LT 0.001
’nsymz’ LECT mems TERM COND Z LT 0.001
’m1c’
’m2c’

LECT mem1 TERM COND NEAR POIN -16.335 0 0
LECT mem2 TERM COND NEAR POIN -16.265 0 0

!

’m3c’

LECT mem3 TERM COND NEAR POIN -16.195 0 0

’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0

EPAI 0.50E-3 LECT mems TERM
3.00E-3 LECT fake TERM
1.00E-3 LECT pinbcm TERM
5.00E-3 LECT npincm TERM ! Only for visualization

COUL TURQ LECT tube tra lp3xl TERM

VERT LECT fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM
GR50 LECT mems TERM
ROUG LECT fake TERM
JAUN LECT pre TERM
GR50 LECT pinbcm TERM
ROSE LECT S3 S1 S2 S5 S6 S11 S12 S15 S16 TERM

!
ADAP THRS ECRO 3 TMIN 0.01 TMAX 0.4 MAXL 3

DIAM DROI 0.1692568 LECT tubelp1 TERM

LECT mems TERM

GRIL LAGR LECT mems fake TERM
FONC 1 TABL 5 0.0

0.0
1.0E-3
1.0
2.999E-3 1.0
3.0E-3
0.0
100.0E-3 0.0

MATE

!LOI 1

VM23 RO 1380 YOUN 2757.9E6 NU 0.495 ELAS 100.E6 ! "Melinex/Mylar/

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 5

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT flui3d _cuvf TERM

!LOI 6

!
!

IMPE PIMP PRES 13.723E5 PREF 1.011E5 FONC 1
IMPE PIMP PRES 12.98E5 PREF 0 FONC 1

IMPE PIMP PRES 4.20E5 PREF 0 FONC 1

LECT pre _cl3d TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT epar1 epar2 TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT rac3d1d tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 8 9 LECT tubelpp TERM
GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT _cuvf TERM

FANT 0.0

LECT fake TERM

VM23 RO 7850 YOUNG 2.1E11 NU 0.3 ELAS 1000E6 ! Elastic steel

TRAC 2 1000E6 0.0047619048

1100E6 5.1

LECT pinbcm TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT npincm TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1
!OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT nmemo TERM
BLOQ 123 LECT pinbcm TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT nsymy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT nsymz TERM

LINK DECO

PINB PENA SFAC 1.0

BODY

BODY

BODY

BODY

BODY

LECT mem1 TERM

LECT mem2 TERM

LECT mem3 TERM

LECT fake TERM

LECT npincm TERM

EXCL PAIR 1 3
EXCL PAIR 2 3

EXCL PAIR 3 4

EXCL PAIR 3 4
FLSW STRU LECT mems TERM

!
!

!

DMIN 0.003 ! #6

DMIN 0.003 ! #7

DMIN 0.003

! #8

MLEV 0

! #8

DIAM 5.E-3

FLUI LECT fcoup1 TERM
R 0.025 ! 0.014
HGRI 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 3 SCAL 2

INIT SKIP UPTO 3.E-3 VFCC
ADAP IMAT TIME 3.E-3

2 MATE 2 OBJE LECT flui3d TERM

INSI SURF LECT mem1 TERM

MATE 3 OBJE LECT flui3d TERM

OUTS SURF LECT mem1 TERM
INSI SURF LECT mem2 TERM

MATE 4 OBJE LECT flui3d TERM

!
!
!
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

OUTS SURF LECT mem2 TERM
INSI SURF LECT mem3 TERM

NOPO !POIN LECT cen TERM
ELEM LECT S1 TERM
FICH ALIC TEMP TFRE 10.e-6
! FICH ALIT FREQ 0 TFRE 0.D0

! TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.01D-3 110.D-3

!POIN LECT cen TERM
POIN LECT m1c m2c TERM
ELEM LECT S1 S2 S3 S5 S6 S11 S12 S15 S16 e1 e2 e3 e4 TERM

!
!
!
!
!

!
!

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 110.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA DTST

FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

TIME PROG 38.0E-3 TERM
TIME PROG 31.0E-3 TERM
TIME PROG 33.0E-3 TERM !fc is this OK?

! PET" EPAI=0.5
! = Material 2

FICH SPLI ALIC FREQ 0 TFRE 1.D-3 ! 0.D0
!
!

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 80.D-3

OPTI NOTE CSTA 0.25

FAIL PEPR LIMI 1.0
TRAC 3 100.E6 0.03626

180.E6 1.5
230.E6 3.5

LECT mems _q4gs TERM

!LOI 2

GAZP RO 13.445 GAMM 1.4 CV 719.286 PINI 11.36E5 PREF 9.968E4

LECT none TERM

!LOI 3

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 4

STEP IO
LOG 1
JAUM
LMST
FANT 8.0E-3 LECT mems TERM !_q4gs TERM !fc is this OK?
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
NTIL

218

Friday 8th September, 2023 @ 14:00

ADAP RCON !TRIG ECRO 1 TVAL 1.02E5 LECT trigger TERM
PINS GRID DPIN 1.01
FLS CUB8 2 ! For the inverse mapping
QUAS STAT 1670 0.1 UPTO 3.0E-3 !fc is this OK ???

CALC TINI 0 TEND 40.0E-3
FIN

D7710600mapbw.epx

D7710600MAPBW
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600mapb.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM
TURQ LECT flui3d TERM

!

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
UP
1.00000E+00
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00
!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
!FAR
: 1.21900E+00
SCEN GEOM NAVI FREE
FACE SBAC
LINE SFRE

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.E5 PAS 0.5E5 7.5E5 TERM

SUPP LECT flui3d TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D7710600mapbx.epx

D7710600mapbx
ECHO
!CONV WIN
RESU SPLI ALIC ’D7710600mapb.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui3d tubelp1 TERM

COND LINE X1 -17.105 Y1 0 Z1 0

X2 -0.6

Y2 0 Z2 0 TOL 1.E-3

SORT GRAP
AXTE 1.0 ’Time [s]’
SCOU 1 ’p_33’ T 33.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

SCOU 2 ’r_33’ T 33.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

SCOU 3 ’v_33’ T 33.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

RCOU 11 ’p_31’ FICH ’D7710600mapax.pun’ RENA ’p_a_31’
RCOU 12 ’r_31’ FICH ’D7710600mapax.pun’ RENA ’r_a_31’
RCOU 13 ’v_31’ FICH ’D7710600mapax.pun’ RENA ’v_a_31’
TRAC 1 11 AXES 1.0 ’PRESS. [Pa]’
COLO NOIR ROUG
TRAC 2 12 AXES 1.0 ’DENS. [kg/m3]’
COLO NOIR ROUG
TRAC 3 13 AXES 1.0 ’VELO. [m/s]’
COLO NOIR ROUG
LIST 1 AXES 1.0 ’PRESS. [Pa]’
LIST 2 AXES 1.0 ’DENS. [kg/m3]’
LIST 3 AXES 1.0 ’VELO. [m/s]’
SCOU 21 ’p_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

SCOU 22 ’r_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

SCOU 23 ’v_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

TRAC 21 11 AXES 1.0 ’PRESS. [Pa]’
COLO NOIR ROUG
TRAC 22 12 AXES 1.0 ’DENS. [kg/m3]’
COLO NOIR ROUG
TRAC 23 13 AXES 1.0 ’VELO. [m/s]’
COLO NOIR ROUG
FIN

D7710600mapby.epx

D7710600MAPBY
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600mapb.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 9
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.72612E+01 2.81122E-03 2.81116E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -1.62964E+01 2.81122E-03 2.81116E-03
!RSPHERE: 2.41195E-01
!RADIUS : 9.64780E-01
!ASPECT : 1.00000E+00
: 7.23585E-01
!NEAR
!FAR
: 1.44717E+00
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

OFFS SIZE 600 600 FICH BMP

!TRAC DEFO AMPD 0.0
!
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT mem3 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D7710600mapc.epx

D7710600MAPC
ECHO
!CONV win
CAST mesh
TRID ALE
EROS 1.0
DIME ADAP NPOI 300000
CUVF 300000
NVFI 800000
Q4GS 10000
CL3D 10000
NPIN 10000

ENDA
JONC 218 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM

Q4GS mems pinbcm
PMAT npincm
CUVF flui3d
T3GS fake
TUVF tubelp1
CL3D pre face3d
TUBM rac3d1d

TERM
COMP DIAM DROI 0.1692568 LECT tubelp1 TERM

RACC TUBM LECT rac3d1d TERM

NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 21 ’nrac3d1d’ LECT mesh1 rac3d1d TERM

COND XB GT -12.6952 COND XB LT -12.6948

’fcoup1’ LECT flui3d TERM

COND XB GT -16.405
COND XB LT -15.105

’S1’ LECT tube TERM COND NEAR POIN -0.345 0.15 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.15 0.15
’S3’ LECT tube TERM COND NEAR POIN 0.0 0.0 0.0
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

!

’tubelpp’ LECT tubelp1 DIFF epar1 TERM ! epar2 TERM

’memc1’ LECT mem1 TERM COND NEAR POIN -16.435 0 0

219

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

GEOM

Friday 8th September, 2023 @ 14:00

’memc1d’ LECT mem1 TERM COND CYLI X1 -16.505 Y1 0 Z1 0

X2 -16.305 Y2 0 Z2 0 R .15

’memc1b’ LECT mem1 DIFF memc1d TERM
’e4’ LECT flui3d TERM COND NEAR POIN -16.340 0.1655 0
’e3’ LECT flui3d TERM COND NEAR POIN -16.270 0.1655 0
’e2’ LECT flui3d TERM COND NEAR POIN -16.200 0.1655 0
’e1’ LECT flui3d TERM COND NEAR POIN -16.190 0.1655 0

NGRO 7 ’nmemi’ LECT mems TERM

COND CYLI X1 -20 Y1 0 Z1 0 X2 20 Y2 0 Z2 0 R 0.1650

’nmemo’ LECT mems DIFF nmemi TERM
’nsymy’ LECT mems TERM COND Y LT 0.001
’nsymz’ LECT mems TERM COND Z LT 0.001
’m1c’
’m2c’

LECT mem1 TERM COND NEAR POIN -16.335 0 0
LECT mem2 TERM COND NEAR POIN -16.265 0 0

!

’m3c’

LECT mem3 TERM COND NEAR POIN -16.195 0 0

’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0

EPAI 0.50E-3 LECT mems TERM
3.00E-3 LECT fake TERM
1.00E-3 LECT pinbcm TERM
5.00E-3 LECT npincm TERM ! Only for visualization

COUL TURQ LECT tube tra lp3xl TERM

VERT LECT fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM
GR50 LECT mems TERM
ROUG LECT fake TERM
JAUN LECT pre TERM
GR50 LECT pinbcm TERM
ROSE LECT S3 S1 S2 S5 S6 S11 S12 S15 S16 TERM

!
ADAP THRS ECRO 3 TMIN 0.01 TMAX 0.4 MAXL 3

DIAM DROI 0.1692568 LECT tubelp1 TERM

LECT mems TERM

GRIL LAGR LECT mems fake TERM
FONC 1 TABL 5 0.0

0.0
1.0E-3
1.0
2.999E-3 1.0
3.0E-3
0.0
100.0E-3 0.0

MATE

!LOI 1

VM23 RO 1380 YOUN 2757.9E6 NU 0.495 ELAS 100.E6 ! "Melinex/Mylar/

LECT npincm TERM

EXCL PAIR 1 3
EXCL PAIR 2 3

EXCL PAIR 3 4

EXCL PAIR 3 4
FLSW STRU LECT mems TERM

!

FLUI LECT fcoup1 TERM
R 0.025 ! 0.014
HGRI 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 3 SCAL 2

INIT SKIP UPTO 3.E-3 VFCC
ADAP IMAT TIME 3.E-3

2 MATE 2 OBJE LECT flui3d TERM

INSI SURF LECT mem1 TERM

MATE 3 OBJE LECT flui3d TERM

OUTS SURF LECT mem1 TERM
INSI SURF LECT mem2 TERM

MATE 4 OBJE LECT flui3d TERM

!
!
!
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

OUTS SURF LECT mem2 TERM
INSI SURF LECT mem3 TERM

NOPO !POIN LECT cen TERM
ELEM LECT S1 TERM
FICH ALIC TEMP TFRE 10.e-6
! FICH ALIT FREQ 0 TFRE 0.D0

! TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.01D-3 110.D-3

!POIN LECT cen TERM
POIN LECT m1c m2c TERM
ELEM LECT S1 S2 S3 S5 S6 S11 S12 S15 S16 e1 e2 e3 e4 TERM

!
!
!
!
!

!
!

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 110.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA DTST

FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

TIME PROG 38.0E-3 TERM
TIME PROG 31.0E-3 TERM
TIME PROG 31.0E-3 PAS 0.5E-3 33.0E-3 TERM

! PET" EPAI=0.5
! = Material 2

FICH SPLI ALIC FREQ 0 TFRE 1.D-3 ! 0.D0
!
!

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 80.D-3

OPTI NOTE CSTA 0.25

FAIL PEPR LIMI 1.0
TRAC 3 100.E6 0.03626

180.E6 1.5
230.E6 3.5

LECT mems _q4gs TERM

!LOI 2

GAZP RO 13.445 GAMM 1.4 CV 719.286 PINI 11.36E5 PREF 9.968E4

LECT none TERM

!LOI 3

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 4

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 5

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT flui3d _cuvf TERM

!LOI 6

!
!

IMPE PIMP PRES 13.723E5 PREF 1.011E5 FONC 1
IMPE PIMP PRES 12.98E5 PREF 0 FONC 1

IMPE PIMP PRES 4.20E5 PREF 0 FONC 1

LECT pre _cl3d TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT epar1 epar2 TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT rac3d1d tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 8 9 LECT tubelpp TERM
GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT _cuvf TERM

FANT 0.0

LECT fake TERM

VM23 RO 7850 YOUNG 2.1E11 NU 0.3 ELAS 1000E6 ! Elastic steel

TRAC 2 1000E6 0.0047619048

1100E6 5.1

LECT pinbcm TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT npincm TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1
!OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT nmemo TERM
BLOQ 123 LECT pinbcm TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT nsymy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT nsymz TERM

LINK DECO

PINB PENA SFAC 1.0

!
!

BODY

BODY

BODY

BODY

BODY

LECT mem1 TERM

LECT mem2 TERM

LECT mem3 TERM

LECT fake TERM

DMIN 0.003 ! #6

DMIN 0.003 ! #7

DMIN 0.003

! #8

MLEV 0

! #8

DIAM 5.E-3

STEP IO
LOG 1
JAUM
LMST
FANT 8.0E-3 LECT mems TERM !_q4gs TERM !fc is this OK?
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
NTIL

ADAP RCON !TRIG ECRO 1 TVAL 1.02E5 LECT trigger TERM
PINS GRID DPIN 1.01
FLS CUB8 2 ! For the inverse mapping
QUAS STAT 1670 0.1 UPTO 3.0E-3 !fc is this OK ???

CALC TINI 0 TEND 40.0E-3
FIN

D7710600mapcw.epx

D7710600MAPCW
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600mapb.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM
TURQ LECT flui3d TERM

!

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
UP
1.00000E+00
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00
!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
!FAR
: 1.21900E+00
SCEN GEOM NAVI FREE
FACE SBAC
LINE SFRE

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.E5 PAS 0.5E5 7.5E5 TERM

SUPP LECT flui3d TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

220

Friday 8th September, 2023 @ 14:00

GOTR LOOP 10 OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D7710600mapcx.epx

D7710600MAPCX
ECHO
!CONV WIN
RESU SPLI ALIC ’D7710600MAPC.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui3d tubelp1 TERM

COND LINE X1 -17.105 Y1 0 Z1 0

X2 -0.6

Y2 0 Z2 0 TOL 1.E-3

SORT GRAP
AXTE 1.0 ’Time [s]’
SCOU 11 ’p_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

SCOU 12 ’r_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

SCOU 13 ’v_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

SCOU 21 ’p_32’ T 32.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

SCOU 22 ’r_32’ T 32.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

SCOU 23 ’v_32’ T 32.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

SCOU 31 ’p_33’ T 33.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

SCOU 32 ’r_33’ T 33.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

SCOU 33 ’v_33’ T 33.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

TRAC 11 21 31 AXES 1.0 ’PRESS. [Pa]’
COLO NOIR ROUG VERT
TRAC 12 22 32 AXES 1.0 ’DENS. [kg/m3]’
COLO NOIR ROUG VERT
TRAC 13 23 33 AXES 1.0 ’VELO. [m/s]’
COLO NOIR ROUG VERT
LIST 11 21 31 AXES 1.0 ’PRESS. [Pa]’
LIST 12 22 32 AXES 1.0 ’DENS. [kg/m3]’
LIST 13 23 33 AXES 1.0 ’VELO. [m/s]’
FIN

D7710600mapcy.epx

D7710600MAPCY
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPC.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 9
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.72612E+01 2.81122E-03 2.81116E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -1.62964E+01 2.81122E-03 2.81116E-03
!RSPHERE: 2.41195E-01
!RADIUS : 9.64780E-01
!ASPECT : 1.00000E+00
: 7.23585E-01
!NEAR
!FAR
: 1.44717E+00
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

OFFS SIZE 600 600 FICH BMP

!TRAC DEFO AMPD 0.0
!
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT mem3 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D7710600mapd.epx

D7710600mapd
ECHO
!CONV win
CAST mesh
TRID ALE
EROS 1.0
DIME ADAP NPOI 300000
CUVF 300000
NVFI 800000
Q4GS 10000
CL3D 10000
NPIN 10000

ENDA
JONC 218 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM

GEOM

Q4GS mems pinbcm
PMAT npincm
CUVF flui3d
T3GS fake
TUVF tubelp1
CL3D pre face3d
TUBM rac3d1d

TERM
COMP DIAM DROI 0.1692568 LECT tubelp1 TERM

RACC TUBM LECT rac3d1d TERM

NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 22 ’nrac3d1d’ LECT mesh1 rac3d1d TERM

COND XB GT -12.6952 COND XB LT -12.6948

’fcoup1’ LECT flui3d TERM

COND XB GT -16.405
COND XB LT -15.105

’S1’ LECT tube TERM COND NEAR POIN -0.345 0.15 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.15 0.15
’S3’ LECT tube TERM COND NEAR POIN 0.0 0.0 0.0
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

’tubelpp’ LECT tubelp1 DIFF epar1 TERM ! epar2 TERM

’memc1’ LECT mem1 TERM COND NEAR POIN -16.435 0 0
’memc1d’ LECT mem1 TERM COND CYLI X1 -16.505 Y1 0 Z1 0

!

X2 -16.305 Y2 0 Z2 0 R .15

’memc1b’ LECT mem1 DIFF memc1d TERM
’e4’ LECT flui3d TERM COND NEAR POIN -16.340 0.1655 0
’e3’ LECT flui3d TERM COND NEAR POIN -16.270 0.1655 0
’e2’ LECT flui3d TERM COND NEAR POIN -16.200 0.1655 0
’e1’ LECT flui3d TERM COND NEAR POIN -16.190 0.1655 0
’trigger’ LECT tube TERM COND NEAR POIN -0.70 0 0

NGRO 7 ’nmemi’ LECT mems TERM

COND CYLI X1 -20 Y1 0 Z1 0 X2 20 Y2 0 Z2 0 R 0.1650

’nmemo’ LECT mems DIFF nmemi TERM
’nsymy’ LECT mems TERM COND Y LT 0.001
’nsymz’ LECT mems TERM COND Z LT 0.001
’m1c’
’m2c’

LECT mem1 TERM COND NEAR POIN -16.335 0 0
LECT mem2 TERM COND NEAR POIN -16.265 0 0

!

’m3c’

LECT mem3 TERM COND NEAR POIN -16.195 0 0

’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0

EPAI 0.50E-3 LECT mems TERM
3.00E-3 LECT fake TERM
1.00E-3 LECT pinbcm TERM
5.00E-3 LECT npincm TERM ! Only for visualization

COUL TURQ LECT tube tra lp3xl TERM

VERT LECT fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM
GR50 LECT mems TERM
ROUG LECT fake TERM
JAUN LECT pre TERM
GR50 LECT pinbcm TERM
ROSE LECT S3 S1 S2 S5 S6 S11 S12 S15 S16 TERM

!
ADAP THRS ECRO 3 TMIN 0.01 TMAX 0.4 MAXL 3

DIAM DROI 0.1692568 LECT tubelp1 TERM

LECT mems TERM

GRIL LAGR LECT mems fake TERM
FONC 1 TABL 5 0.0

0.0
1.0E-3
1.0
2.999E-3 1.0
3.0E-3
0.0
100.0E-3 0.0

MATE

!LOI 1

VM23 RO 1380 YOUN 2757.9E6 NU 0.495 ELAS 100.E6 ! "Melinex/Mylar/

! PET" EPAI=0.5
! = Material 2

FAIL PEPR LIMI 1.0
TRAC 3 100.E6 0.03626

180.E6 1.5

221

Friday 8th September, 2023 @ 14:00

230.E6 3.5

LECT mems _q4gs TERM

!LOI 2

GAZP RO 13.445 GAMM 1.4 CV 719.286 PINI 11.36E5 PREF 9.968E4

LECT none TERM

!LOI 3

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 4

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 5

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT flui3d _cuvf TERM

!LOI 6

!
!

IMPE PIMP PRES 13.723E5 PREF 1.011E5 FONC 1
IMPE PIMP PRES 12.98E5 PREF 0 FONC 1

IMPE PIMP PRES 4.20E5 PREF 0 FONC 1

LECT pre _cl3d TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT epar1 epar2 TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT rac3d1d tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 8 9 LECT tubelpp TERM
GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT _cuvf TERM

FANT 0.0

LECT fake TERM

VM23 RO 7850 YOUNG 2.1E11 NU 0.3 ELAS 1000E6 ! Elastic steel

TRAC 2 1000E6 0.0047619048

1100E6 5.1

LECT pinbcm TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT npincm TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1
!OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT nmemo TERM
BLOQ 123 LECT pinbcm TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT nsymy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT nsymz TERM

LINK DECO

PINB PENA SFAC 1.0

BODY

BODY

BODY

BODY

BODY

LECT mem1 TERM

LECT mem2 TERM

LECT mem3 TERM

LECT fake TERM

LECT npincm TERM

EXCL PAIR 1 3
EXCL PAIR 2 3

EXCL PAIR 3 4

EXCL PAIR 3 4
FLSW STRU LECT mems TERM

!
!

!

DMIN 0.003 ! #6

DMIN 0.003 ! #7

DMIN 0.003

! #8

MLEV 0

! #8

DIAM 5.E-3

FLUI LECT fcoup1 TERM
R 0.025 ! 0.014
HGRI 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 3 SCAL 2

INIT SKIP UPTO 3.E-3 VFCC
ADAP IMAT TIME 3.E-3

2 MATE 2 OBJE LECT flui3d TERM

INSI SURF LECT mem1 TERM

MATE 3 OBJE LECT flui3d TERM

OUTS SURF LECT mem1 TERM
INSI SURF LECT mem2 TERM

MATE 4 OBJE LECT flui3d TERM

!
!
!
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

OUTS SURF LECT mem2 TERM
INSI SURF LECT mem3 TERM

NOPO !POIN LECT cen TERM
ELEM LECT S1 TERM
FICH ALIC TEMP TFRE 10.e-6
! FICH ALIT FREQ 0 TFRE 0.D0

! TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.01D-3 110.D-3

!POIN LECT cen TERM
POIN LECT m1c m2c TERM
ELEM LECT S1 S2 S3 S5 S6 S11 S12 S15 S16 e1 e2 e3 e4 TERM

FICH SPLI ALIC FREQ 0 TFRE 1.D-3 ! 0.D0
!
!
FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 80.D-3

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 110.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA DTST

FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

TIME PROG 38.0E-3 TERM
TIME PROG 31.0E-3 TERM
TIME PROG 31.0E-3 PAS 0.5E-3 33.0E-3 TERM
TRIG ECRO 1 TSTO TVAL 1.02E5 LECT trigger TERM

!
!
!
!
!

!
!
!

OPTI NOTE CSTA 0.25

STEP IO
LOG 1
JAUM
LMST
FANT 8.0E-3 LECT mems TERM !_q4gs TERM !fc is this OK?
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
NTIL

ADAP RCON !TRIG ECRO 1 TVAL 1.02E5 LECT trigger TERM
PINS GRID DPIN 1.01
FLS CUB8 2 ! For the inverse mapping
QUAS STAT 1670 0.1 UPTO 3.0E-3 !fc is this OK ???

CALC TINI 0 TEND 40.0E-3
FIN

D7710600mapdw.epx

D7710600MAPDW
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600mapd.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM
TURQ LECT flui3d TERM

!

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
1.00000E+00
UP
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00
!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
!FAR
: 1.21900E+00
SCEN GEOM NAVI FREE
FACE SBAC
LINE SFRE

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.E5 PAS 0.5E5 7.5E5 TERM

SUPP LECT flui3d TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D7710600mapdx.epx

D7710600MAPDX
ECHO
!CONV WIN
RESU SPLI ALIC ’D7710600MAPD.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui3d tubelp1 TERM

COND LINE X1 -17.105 Y1 0 Z1 0

X2 -0.6

Y2 0 Z2 0 TOL 1.E-3

SORT GRAP
AXTE 1.0 ’Time [s]’
SCOU 1 ’p_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

SCOU 2 ’r_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

SCOU 3 ’v_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

TRAC 1 AXES 1.0 ’PRESS. [Pa]’
TRAC 2 AXES 1.0 ’DENS. [kg/m3]’
TRAC 3 AXES 1.0 ’VELO. [m/s]’
LIST 1 AXES 1.0 ’PRESS. [Pa]’
LIST 2 AXES 1.0 ’DENS. [kg/m3]’
LIST 3 AXES 1.0 ’VELO. [m/s]’
FIN

D7710600mapdy.epx

D7710600MAPDY
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600mapd.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

222

Friday 8th September, 2023 @ 14:00

*=======================================================================
SORT VISU NSTO 9
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.72612E+01 2.81122E-03 2.81116E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -1.62964E+01 2.81122E-03 2.81116E-03
!RSPHERE: 2.41195E-01
!RADIUS : 9.64780E-01
!ASPECT : 1.00000E+00
: 7.23585E-01
!NEAR
: 1.44717E+00
!FAR
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

OFFS SIZE 600 600 FICH BMP

!TRAC DEFO AMPD 0.0
!
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT mem3 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D7710600mape.epx

D7710600MAPE
ECHO
!CONV win
CAST mesh
TRID ALE
EROS 1.0
DIME ADAP NPOI 300000
CUVF 300000
NVFI 800000
Q4GS 10000
CL3D 10000
NPIN 10000

ENDA
JONC 218 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM

GEOM

Q4GS mems pinbcm
PMAT npincm
CUVF flui3d
T3GS fake
TUVF tubelp1
CL3D pre face3d
TUBM rac3d1d

TERM
COMP DIAM DROI 0.1692568 LECT tubelp1 TERM

RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM

TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 22 ’nrac3d1d’ LECT mesh1 rac3d1d TERM

COND XB GT -12.6952 COND XB LT -12.6948

’fcoup1’ LECT flui3d TERM

COND XB GT -16.405
COND XB LT -15.105

’S1’ LECT tube TERM COND NEAR POIN -0.345 0.15 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.15 0.15
’S3’ LECT tube TERM COND NEAR POIN 0.0 0.0 0.0
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

!

’tubelpp’ LECT tubelp1 DIFF epar1 TERM ! epar2 TERM

’memc1’ LECT mem1 TERM COND NEAR POIN -16.435 0 0
’memc1d’ LECT mem1 TERM COND CYLI X1 -16.505 Y1 0 Z1 0

X2 -16.305 Y2 0 Z2 0 R .15

’memc1b’ LECT mem1 DIFF memc1d TERM
’e4’ LECT flui3d TERM COND NEAR POIN -16.340 0.1655 0
’e3’ LECT flui3d TERM COND NEAR POIN -16.270 0.1655 0
’e2’ LECT flui3d TERM COND NEAR POIN -16.200 0.1655 0
’e1’ LECT flui3d TERM COND NEAR POIN -16.190 0.1655 0
’trigger’ LECT tube TERM COND NEAR POIN -0.70 0 0

NGRO 7 ’nmemi’ LECT mems TERM

COND CYLI X1 -20 Y1 0 Z1 0 X2 20 Y2 0 Z2 0 R 0.1650

’nmemo’ LECT mems DIFF nmemi TERM
’nsymy’ LECT mems TERM COND Y LT 0.001

’nsymz’ LECT mems TERM COND Z LT 0.001
’m1c’
’m2c’

LECT mem1 TERM COND NEAR POIN -16.335 0 0
LECT mem2 TERM COND NEAR POIN -16.265 0 0

!

’m3c’

LECT mem3 TERM COND NEAR POIN -16.195 0 0

’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0

EPAI 0.50E-3 LECT mems TERM
3.00E-3 LECT fake TERM
1.00E-3 LECT pinbcm TERM
5.00E-3 LECT npincm TERM ! Only for visualization

COUL TURQ LECT tube tra lp3xl TERM

VERT LECT fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM
GR50 LECT mems TERM
ROUG LECT fake TERM
JAUN LECT pre TERM
GR50 LECT pinbcm TERM
ROSE LECT S3 S1 S2 S5 S6 S11 S12 S15 S16 TERM

!
ADAP THRS ECRO 3 TMIN 0.01 TMAX 0.4 MAXL 3

DIAM DROI 0.1692568 LECT tubelp1 TERM

LECT mems TERM

GRIL LAGR LECT mems fake TERM
FONC 1 TABL 5 0.0

0.0
1.0E-3
1.0
2.999E-3 1.0
3.0E-3
0.0
100.0E-3 0.0

MATE

!LOI 1

VM23 RO 1380 YOUN 2757.9E6 NU 0.495 ELAS 100.E6 ! "Melinex/Mylar/

! PET" EPAI=0.5
! = Material 2

FAIL PEPR LIMI 1.0
TRAC 3 100.E6 0.03626

180.E6 1.5
230.E6 3.5

LECT mems _q4gs TERM

!LOI 2

GAZP RO 13.445 GAMM 1.4 CV 719.286 PINI 11.36E5 PREF 9.968E4

LECT none TERM

!LOI 3

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 4

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 5

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT flui3d _cuvf TERM

!LOI 6

!
!

IMPE PIMP PRES 13.723E5 PREF 1.011E5 FONC 1
IMPE PIMP PRES 12.98E5 PREF 0 FONC 1

IMPE PIMP PRES 4.20E5 PREF 0 FONC 1

LECT pre _cl3d TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT epar1 epar2 TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT rac3d1d tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 8 9 LECT tubelpp TERM
GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT _cuvf TERM

FANT 0.0

LECT fake TERM

VM23 RO 7850 YOUNG 2.1E11 NU 0.3 ELAS 1000E6 ! Elastic steel

TRAC 2 1000E6 0.0047619048

1100E6 5.1

LECT pinbcm TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT npincm TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1
!OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT nmemo TERM
BLOQ 123 LECT pinbcm TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT nsymy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT nsymz TERM

LINK DECO

PINB PENA SFAC 1.0

BODY

BODY

BODY

BODY

BODY

LECT mem1 TERM

LECT mem2 TERM

LECT mem3 TERM

LECT fake TERM

LECT npincm TERM

EXCL PAIR 1 3
EXCL PAIR 2 3

EXCL PAIR 3 4

EXCL PAIR 3 4
FLSW STRU LECT mems TERM

!
!

!

DMIN 0.003 ! #6

DMIN 0.003 ! #7

DMIN 0.003

! #8

MLEV 0

! #8

DIAM 5.E-3

FLUI LECT fcoup1 TERM
R 0.025 ! 0.014
HGRI 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain

223

Friday 8th September, 2023 @ 14:00

FSCP 1 ! couple in all directions
ADAP LMAX 3 SCAL 2

INIT SKIP UPTO 3.E-3 VFCC
ADAP IMAT TIME 3.E-3

2 MATE 2 OBJE LECT flui3d TERM

INSI SURF LECT mem1 TERM

MATE 3 OBJE LECT flui3d TERM

OUTS SURF LECT mem1 TERM
INSI SURF LECT mem2 TERM

MATE 4 OBJE LECT flui3d TERM

!
!
!
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

OUTS SURF LECT mem2 TERM
INSI SURF LECT mem3 TERM

NOPO !POIN LECT cen TERM
ELEM LECT S1 TERM
FICH ALIC TEMP TFRE 10.e-6
! FICH ALIT FREQ 0 TFRE 0.D0

! TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.01D-3 110.D-3

!POIN LECT cen TERM
POIN LECT m1c m2c TERM
ELEM LECT S1 S2 S3 S5 S6 S11 S12 S15 S16 e1 e2 e3 e4 TERM

FICH SPLI ALIC FREQ 0 TFRE 1.D-3 ! 0.D0
!
!
FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 80.D-3

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 110.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA DTST

FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

TIME PROG 38.0E-3 TERM
TIME PROG 31.0E-3 TERM
TIME PROG 31.0E-3 PAS 0.5E-3 33.0E-3 TERM
TRIG ECRO 1 TSTO TVAL 1.02E5 LECT trigger TERM

!
!
!
!
!

!
!
!

OPTI NOTE CSTA 0.25

STEP IO
LOG 1
JAUM
LMST

! FANT 8.0E-3 LECT mems TERM !_q4gs TERM !fc is this OK?

VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
NTIL

ADAP RCON !TRIG ECRO 1 TVAL 1.02E5 LECT trigger TERM
PINS GRID DPIN 1.01
FLS CUB8 2 ! For the inverse mapping
QUAS STAT 1670 0.1 UPTO 3.0E-3 !fc is this OK ???

CALC TINI 0 TEND 40.0E-3
FIN

D7710600mapew.epx

D7710600MAPEW
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPE.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM
TURQ LECT flui3d TERM

!

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
UP
1.00000E+00
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00
!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
!FAR
: 1.21900E+00
SCEN GEOM NAVI FREE
FACE SBAC
LINE SFRE

D7710600MAPEX
ECHO
!CONV WIN
RESU SPLI ALIC ’D7710600MAPE.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui3d tubelp1 TERM

COND LINE X1 -17.105 Y1 0 Z1 0

X2 -0.6

Y2 0 Z2 0 TOL 1.E-3

SORT GRAP
AXTE 1.0 ’Time [s]’
SCOU 1 ’p_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

SCOU 2 ’r_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

SCOU 3 ’v_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

!
RCOU 11 ’p_trig’ FICH ’D7710600MAPDX.pun’ RENA ’p_d_trig’
RCOU 12 ’r_trig’ FICH ’D7710600MAPDX.pun’ RENA ’r_d_trig’
RCOU 13 ’v_trig’ FICH ’D7710600MAPDX.pun’ RENA ’v_d_trig’
TRAC 1 11 AXES 1.0 ’PRESS. [Pa]’
COLO NOIR ROUG
TRAC 2 12 AXES 1.0 ’DENS. [kg/m3]’
COLO NOIR ROUG
TRAC 3 13 AXES 1.0 ’VELO. [m/s]’
COLO NOIR ROUG
!
TRAC 1 AXES 1.0 ’PRESS. [Pa]’
TRAC 2 AXES 1.0 ’DENS. [kg/m3]’
TRAC 3 AXES 1.0 ’VELO. [m/s]’
LIST 1 AXES 1.0 ’PRESS. [Pa]’
LIST 2 AXES 1.0 ’DENS. [kg/m3]’
LIST 3 AXES 1.0 ’VELO. [m/s]’
!
FIN

D7710600mapey.epx

D7710600MAPEY
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPE.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 9
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.72612E+01 2.81122E-03 2.81116E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -1.62964E+01 2.81122E-03 2.81116E-03
!RSPHERE: 2.41195E-01
!RADIUS : 9.64780E-01
!ASPECT : 1.00000E+00
: 7.23585E-01
!NEAR
!FAR
: 1.44717E+00
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 25
GO
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.E5 PAS 0.5E5 7.5E5 TERM

SUPP LECT flui3d TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

GOTR LOOP 33 OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D7710600mapey2.epx

D7710600MAPEY2
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPE.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

D7710600mapex.epx

*=======================================================================
SORT VISU NSTO 9
*=======================================================================
PLAY

224

Friday 8th September, 2023 @ 14:00

CAME
!

1 EYE -1.72612E+01 2.81122E-03 2.81116E-03

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

FACE LECT face3d TERM COEF 1.0

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 22 ’nrac3d1d’ LECT mesh1 rac3d1d TERM

COND XB GT -12.6952 COND XB LT -12.6948

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -1.62964E+01 2.81122E-03 2.81116E-03
!RSPHERE: 2.41195E-01
!RADIUS : 9.64780E-01
!ASPECT : 1.00000E+00
: 7.23585E-01
!NEAR
!FAR
: 1.44717E+00
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

!

D7710600mapey3.epx

D7710600MAPEY3
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPE.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 15
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.72612E+01 2.81122E-03 2.81116E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -1.62964E+01 2.81122E-03 2.81116E-03
!RSPHERE: 2.41195E-01
!RADIUS : 9.64780E-01
!ASPECT : 1.00000E+00
: 7.23585E-01
!NEAR
!FAR
: 1.44717E+00
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D7710600mapf.epx

D7710600MAPF
ECHO
!CONV win
CAST mesh
TRID ALE
EROS 1.0
DIME ADAP NPOI 300000
CUVF 300000
NVFI 800000
Q4GS 10000
CL3D 10000
NPIN 10000

ENDA
JONC 218 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM

GEOM

Q4GS mems pinbcm
PMAT npincm
CUVF flui3d
T3GS fake
TUVF tubelp1
CL3D pre face3d
TUBM rac3d1d

TERM
COMP DIAM DROI 0.1692568 LECT tubelp1 TERM

RACC TUBM LECT rac3d1d
NTUB LECT p1a

TERM

TERM DTUB 0.1692568

’fcoup1’ LECT flui3d TERM

COND XB GT -16.405
COND XB LT -15.105

’S1’ LECT tube TERM COND NEAR POIN -0.345 0.15 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.15 0.15
’S3’ LECT tube TERM COND NEAR POIN 0.0 0.0 0.0
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

’tubelpp’ LECT tubelp1 DIFF epar1 TERM ! epar2 TERM

’memc1’ LECT mem1 TERM COND NEAR POIN -16.435 0 0
’memc1d’ LECT mem1 TERM COND CYLI X1 -16.505 Y1 0 Z1 0

X2 -16.305 Y2 0 Z2 0 R .15

’memc1b’ LECT mem1 DIFF memc1d TERM
’e4’ LECT flui3d TERM COND NEAR POIN -16.340 0.1655 0
’e3’ LECT flui3d TERM COND NEAR POIN -16.270 0.1655 0
’e2’ LECT flui3d TERM COND NEAR POIN -16.200 0.1655 0
’e1’ LECT flui3d TERM COND NEAR POIN -16.190 0.1655 0
’trigger’ LECT tube TERM COND NEAR POIN -0.70 0 0

NGRO 7 ’nmemi’ LECT mems TERM

COND CYLI X1 -20 Y1 0 Z1 0 X2 20 Y2 0 Z2 0 R 0.1650

’nmemo’ LECT mems DIFF nmemi TERM
’nsymy’ LECT mems TERM COND Y LT 0.001
’nsymz’ LECT mems TERM COND Z LT 0.001
’m1c’
’m2c’

LECT mem1 TERM COND NEAR POIN -16.335 0 0
LECT mem2 TERM COND NEAR POIN -16.265 0 0

!

’m3c’

LECT mem3 TERM COND NEAR POIN -16.195 0 0

’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0

EPAI 0.50E-3 LECT mems TERM
3.00E-3 LECT fake TERM
1.00E-3 LECT pinbcm TERM
5.00E-3 LECT npincm TERM ! Only for visualization

DERO DISP 1.230 LECT mem1 TERM
DISP 1.160 LECT mem2 TERM
COUL TURQ LECT tube tra lp3xl TERM

VERT LECT fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM
GR50 LECT mems TERM
ROUG LECT fake TERM
JAUN LECT pre TERM
GR50 LECT pinbcm TERM
ROSE LECT S3 S1 S2 S5 S6 S11 S12 S15 S16 TERM

!
ADAP THRS ECRO 3 TMIN 0.01 TMAX 0.4 MAXL 3

DIAM DROI 0.1692568 LECT tubelp1 TERM

LECT mems TERM

GRIL LAGR LECT mems fake TERM
FONC 1 TABL 5 0.0

0.0
1.0E-3
1.0
2.999E-3 1.0
3.0E-3
0.0
100.0E-3 0.0

MATE

!LOI 1

VM23 RO 1380 YOUN 2757.9E6 NU 0.495 ELAS 100.E6 ! "Melinex/Mylar/

! PET" EPAI=0.5
! = Material 2

FAIL PEPR LIMI 1.0
TRAC 3 100.E6 0.03626

180.E6 1.5
230.E6 3.5

LECT mems _q4gs TERM

!LOI 2

GAZP RO 13.445 GAMM 1.4 CV 719.286 PINI 11.36E5 PREF 9.968E4

LECT none TERM

!LOI 3

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 4

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 5

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT flui3d _cuvf TERM

!LOI 6

!
!

IMPE PIMP PRES 13.723E5 PREF 1.011E5 FONC 1
IMPE PIMP PRES 12.98E5 PREF 0 FONC 1

IMPE PIMP PRES 4.20E5 PREF 0 FONC 1

LECT pre _cl3d TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT epar1 epar2 TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT rac3d1d tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 8 9 LECT tubelpp TERM
GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT _cuvf TERM

FANT 0.0

LECT fake TERM

225

Friday 8th September, 2023 @ 14:00

TURQ LECT flui3d TERM

VM23 RO 7850 YOUNG 2.1E11 NU 0.3 ELAS 1000E6 ! Elastic steel

TRAC 2 1000E6 0.0047619048

1100E6 5.1

LECT pinbcm TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT npincm TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1
!OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT nmemo TERM
BLOQ 123 LECT pinbcm TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT nsymy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT nsymz TERM

LINK DECO

PINB PENA SFAC 1.0

BODY

BODY

BODY

BODY

BODY

LECT mem1 TERM

LECT mem2 TERM

LECT mem3 TERM

LECT fake TERM

LECT npincm TERM

EXCL PAIR 1 3
EXCL PAIR 2 3

EXCL PAIR 3 4

EXCL PAIR 3 4
FLSW STRU LECT mems TERM

!
!

!

DMIN 0.003 ! #6

DMIN 0.003 ! #7

DMIN 0.003

! #8

MLEV 0

! #8

DIAM 5.E-3

FLUI LECT fcoup1 TERM
R 0.025 ! 0.014
HGRI 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 3 SCAL 2

INIT SKIP UPTO 3.E-3 VFCC
ADAP IMAT TIME 3.E-3

2 MATE 2 OBJE LECT flui3d TERM

INSI SURF LECT mem1 TERM

MATE 3 OBJE LECT flui3d TERM

OUTS SURF LECT mem1 TERM
INSI SURF LECT mem2 TERM

MATE 4 OBJE LECT flui3d TERM

!
!
!
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

OUTS SURF LECT mem2 TERM
INSI SURF LECT mem3 TERM

NOPO !POIN LECT cen TERM
ELEM LECT S1 TERM
FICH ALIC TEMP TFRE 10.e-6
! FICH ALIT FREQ 0 TFRE 0.D0

! TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.01D-3 110.D-3

!POIN LECT cen TERM
POIN LECT m1c m2c TERM
ELEM LECT S1 S2 S3 S5 S6 S11 S12 S15 S16 e1 e2 e3 e4 TERM

FICH SPLI ALIC FREQ 0 TFRE 1.D-3 ! 0.D0
!
!
FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 80.D-3

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 110.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA DTST

FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

TIME PROG 38.0E-3 TERM
TIME PROG 31.0E-3 TERM
TIME PROG 31.0E-3 PAS 0.5E-3 33.0E-3 TERM
TRIG ECRO 1 TSTO TVAL 1.02E5 LECT trigger TERM

!
!
!
!
!

!
!
!

OPTI NOTE CSTA 0.25

STEP IO
LOG 1
JAUM
LMST

! FANT 8.0E-3 LECT mems TERM !_q4gs TERM !fc is this OK?

VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
NTIL

ADAP RCON !TRIG ECRO 1 TVAL 1.02E5 LECT trigger TERM
PINS GRID DPIN 1.01
FLS CUB8 2 ! For the inverse mapping
QUAS STAT 1670 0.1 UPTO 3.0E-3 !fc is this OK ???

CALC TINI 0 TEND 40.0E-3
FIN

D7710600mapfw.epx

D7710600MAPFW
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPF.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
UP
1.00000E+00
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00
!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
: 1.21900E+00
!FAR
SCEN GEOM NAVI FREE
FACE SBAC
LINE SFRE

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.E5 PAS 0.5E5 7.5E5 TERM

SUPP LECT flui3d TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

GOTR LOOP 19 OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D7710600mapfx.epx

D7710600MAPFX
ECHO
!CONV WIN
RESU SPLI ALIC ’D7710600MAPF.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui3d tubelp1 TERM

COND LINE X1 -17.105 Y1 0 Z1 0

X2 -0.6

Y2 0 Z2 0 TOL 1.E-3

SORT GRAP
AXTE 1.0 ’Time [s]’
SCOU 1 ’p_33’ T 33.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

SCOU 2 ’r_33’ T 33.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

SCOU 3 ’v_33’ T 33.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

RCOU 11 ’p_31’ FICH ’D7710600mapax.pun’ RENA ’p_a_31’
RCOU 12 ’r_31’ FICH ’D7710600mapax.pun’ RENA ’r_a_31’
RCOU 13 ’v_31’ FICH ’D7710600mapax.pun’ RENA ’v_a_31’
TRAC 1 11 AXES 1.0 ’PRESS. [Pa]’
COLO NOIR ROUG
TRAC 2 12 AXES 1.0 ’DENS. [kg/m3]’
COLO NOIR ROUG
TRAC 3 13 AXES 1.0 ’VELO. [m/s]’
COLO NOIR ROUG
LIST 1 AXES 1.0 ’PRESS. [Pa]’
LIST 2 AXES 1.0 ’DENS. [kg/m3]’
LIST 3 AXES 1.0 ’VELO. [m/s]’
SCOU 21 ’p_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

SCOU 22 ’r_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

SCOU 23 ’v_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

TRAC 21 11 AXES 1.0 ’PRESS. [Pa]’
COLO NOIR ROUG
TRAC 22 12 AXES 1.0 ’DENS. [kg/m3]’
COLO NOIR ROUG
TRAC 23 13 AXES 1.0 ’VELO. [m/s]’
COLO NOIR ROUG
FIN

D7710600mapfy.epx

D7710600MAPFY
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPF.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 9
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.72612E+01 2.81122E-03 2.81116E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00

226

Friday 8th September, 2023 @ 14:00

UP
FOV

0.00000E+00
2.48819E+01

1.00000E+00 0.00000E+00

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -1.62964E+01 2.81122E-03 2.81116E-03
!RSPHERE: 2.41195E-01
!RADIUS : 9.64780E-01
!ASPECT : 1.00000E+00
: 7.23585E-01
!NEAR
!FAR
: 1.44717E+00
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
TRAC DEFO AMPD 0.0

’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0

EPAI 0.50E-3 LECT mems TERM
3.00E-3 LECT fake TERM
1.00E-3 LECT pinbcm TERM
5.00E-3 LECT npincm TERM ! Only for visualization

DERO DISP 0.20 LECT mem1 TERM
COUL TURQ LECT tube tra lp3xl TERM

VERT LECT fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM
GR50 LECT mems TERM
ROUG LECT fake TERM
JAUN LECT pre TERM
GR50 LECT pinbcm TERM
ROSE LECT S3 S1 S2 S5 S6 S11 S12 S15 S16 TERM

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 11
GO
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

!
ADAP THRS ECRO 3 TMIN 0.01 TMAX 0.4 MAXL 3

DIAM DROI 0.1692568 LECT tubelp1 TERM

LECT mems TERM

GRIL LAGR LECT mems fake TERM
FONC 1 TABL 5 0.0

0.0
1.0E-3
1.0
2.999E-3 1.0
3.0E-3
0.0
100.0E-3 0.0

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

MATE

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D7710600mapg.epx

D7710600MAPG
ECHO
!CONV win
CAST mesh
TRID ALE
EROS 1.0
DIME ADAP NPOI 300000
CUVF 300000
NVFI 800000
Q4GS 10000
CL3D 10000
NPIN 10000

ENDA
JONC 218 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM

GEOM

Q4GS mems pinbcm
PMAT npincm
CUVF flui3d
T3GS fake
TUVF tubelp1
CL3D pre face3d
TUBM rac3d1d

TERM
COMP DIAM DROI 0.1692568 LECT tubelp1 TERM

RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM

TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 21 ’nrac3d1d’ LECT mesh1 rac3d1d TERM

COND XB GT -12.6952 COND XB LT -12.6948

’fcoup1’ LECT flui3d TERM

COND XB GT -16.405
COND XB LT -15.105

’S1’ LECT tube TERM COND NEAR POIN -0.345 0.15 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.15 0.15
’S3’ LECT tube TERM COND NEAR POIN 0.0 0.0 0.0
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

!

’tubelpp’ LECT tubelp1 DIFF epar1 TERM ! epar2 TERM

’memc1’ LECT mem1 TERM COND NEAR POIN -16.435 0 0
’memc1d’ LECT mem1 TERM COND CYLI X1 -16.505 Y1 0 Z1 0

X2 -16.305 Y2 0 Z2 0 R .15

’memc1b’ LECT mem1 DIFF memc1d TERM
’e4’ LECT flui3d TERM COND NEAR POIN -16.340 0.1655 0
’e3’ LECT flui3d TERM COND NEAR POIN -16.270 0.1655 0
’e2’ LECT flui3d TERM COND NEAR POIN -16.200 0.1655 0
’e1’ LECT flui3d TERM COND NEAR POIN -16.190 0.1655 0

NGRO 7 ’nmemi’ LECT mems TERM

COND CYLI X1 -20 Y1 0 Z1 0 X2 20 Y2 0 Z2 0 R 0.1650

’nmemo’ LECT mems DIFF nmemi TERM
’nsymy’ LECT mems TERM COND Y LT 0.001
’nsymz’ LECT mems TERM COND Z LT 0.001
’m1c’
’m2c’

LECT mem1 TERM COND NEAR POIN -16.335 0 0
LECT mem2 TERM COND NEAR POIN -16.265 0 0

!

’m3c’

LECT mem3 TERM COND NEAR POIN -16.195 0 0

!LOI 1

VM23 RO 1380 YOUN 2757.9E6 NU 0.495 ELAS 100.E6 ! "Melinex/Mylar/

! PET" EPAI=0.5
! = Material 2

FAIL PEPR LIMI 1.0
TRAC 3 100.E6 0.03626

180.E6 1.5
230.E6 3.5

LECT mems _q4gs TERM

!LOI 2

GAZP RO 13.445 GAMM 1.4 CV 719.286 PINI 11.36E5 PREF 9.968E4

LECT none TERM

!LOI 3

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 4

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 5

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT flui3d _cuvf TERM

!LOI 6

!
!

IMPE PIMP PRES 13.723E5 PREF 1.011E5 FONC 1
IMPE PIMP PRES 12.98E5 PREF 0 FONC 1

IMPE PIMP PRES 4.20E5 PREF 0 FONC 1

LECT pre _cl3d TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT epar1 epar2 TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT rac3d1d tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 8 9 LECT tubelpp TERM
GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT _cuvf TERM

FANT 0.0

LECT fake TERM

VM23 RO 7850 YOUNG 2.1E11 NU 0.3 ELAS 1000E6 ! Elastic steel

TRAC 2 1000E6 0.0047619048

1100E6 5.1

LECT pinbcm TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT npincm TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1
!OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT nmemo TERM
BLOQ 123 LECT pinbcm TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT nsymy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT nsymz TERM

LINK DECO

PINB PENA SFAC 1.0

BODY

BODY

BODY

BODY

BODY

LECT mem1 TERM

LECT mem2 TERM

LECT mem3 TERM

LECT fake TERM

LECT npincm TERM

EXCL PAIR 1 3
EXCL PAIR 2 3

EXCL PAIR 3 4

EXCL PAIR 3 4
FLSW STRU LECT mems TERM

!
!

!

DMIN 0.003 ! #6

DMIN 0.003 ! #7

DMIN 0.003

! #8

MLEV 0

! #8

DIAM 5.E-3

FLUI LECT fcoup1 TERM
R 0.025 ! 0.014
HGRI 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 3 SCAL 2

INIT SKIP UPTO 3.E-3 VFCC

227

Friday 8th September, 2023 @ 14:00

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

ADAP IMAT TIME 3.E-3

2 MATE 2 OBJE LECT flui3d TERM

INSI SURF LECT mem1 TERM

MATE 3 OBJE LECT flui3d TERM

OUTS SURF LECT mem1 TERM
INSI SURF LECT mem2 TERM

MATE 4 OBJE LECT flui3d TERM

!
!
!
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

OUTS SURF LECT mem2 TERM
INSI SURF LECT mem3 TERM

NOPO !POIN LECT cen TERM
ELEM LECT S1 TERM
FICH ALIC TEMP TFRE 10.e-6
! FICH ALIT FREQ 0 TFRE 0.D0

! TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.01D-3 110.D-3

!POIN LECT cen TERM
POIN LECT m1c m2c TERM
ELEM LECT S1 S2 S3 S5 S6 S11 S12 S15 S16 e1 e2 e3 e4 TERM

!
!
!
!
!

!
!

FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 110.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA DTST

FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

TIME PROG 38.0E-3 TERM
TIME PROG 31.0E-3 TERM
TIME PROG 33.0E-3 TERM !fc is this OK?

FICH SPLI ALIC FREQ 0 TFRE 1.D-3 ! 0.D0
!
!

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 80.D-3

OPTI NOTE CSTA 0.25

STEP IO
LOG 1
JAUM
LMST
FANT 8.0E-3 LECT mems TERM !_q4gs TERM !fc is this OK?
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
NTIL

ADAP RCON !TRIG ECRO 1 TVAL 1.02E5 LECT trigger TERM
PINS GRID DPIN 1.01
FLS CUB8 2 ! For the inverse mapping
QUAS STAT 1670 0.1 UPTO 3.0E-3 !fc is this OK ???

CALC TINI 0 TEND 4.0E-3
FIN

D7710600mapgm.epx

D7710600MAPGM
ECHO
!CONV WIN
RESU SPLI ALIC ’D7710600mapb.ali’ GARD PSCR
SORT ARRE NSTO 34 ! TEMP 33.0E-3
ECRI FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

FIN

TIME PROG 32.99E-3 TERM ! 33.0E-3 TERM

D7710600mapgw.epx

D7710600MAPGW
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600mapb.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM
TURQ LECT flui3d TERM

!

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
UP
1.00000E+00
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00
!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
!FAR
: 1.21900E+00
SCEN GEOM NAVI FREE
FACE SBAC
LINE SFRE

D7710600mapgx.epx

D7710600mapbx
ECHO
!CONV WIN
RESU SPLI ALIC ’D7710600mapb.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui3d tubelp1 TERM

COND LINE X1 -17.105 Y1 0 Z1 0

X2 -0.6

Y2 0 Z2 0 TOL 1.E-3

SORT GRAP
AXTE 1.0 ’Time [s]’
SCOU 1 ’p_33’ T 33.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

SCOU 2 ’r_33’ T 33.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

SCOU 3 ’v_33’ T 33.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

RCOU 11 ’p_31’ FICH ’D7710600mapax.pun’ RENA ’p_a_31’
RCOU 12 ’r_31’ FICH ’D7710600mapax.pun’ RENA ’r_a_31’
RCOU 13 ’v_31’ FICH ’D7710600mapax.pun’ RENA ’v_a_31’
TRAC 1 11 AXES 1.0 ’PRESS. [Pa]’
COLO NOIR ROUG
TRAC 2 12 AXES 1.0 ’DENS. [kg/m3]’
COLO NOIR ROUG
TRAC 3 13 AXES 1.0 ’VELO. [m/s]’
COLO NOIR ROUG
LIST 1 AXES 1.0 ’PRESS. [Pa]’
LIST 2 AXES 1.0 ’DENS. [kg/m3]’
LIST 3 AXES 1.0 ’VELO. [m/s]’
SCOU 21 ’p_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

SCOU 22 ’r_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

SCOU 23 ’v_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

TRAC 21 11 AXES 1.0 ’PRESS. [Pa]’
COLO NOIR ROUG
TRAC 22 12 AXES 1.0 ’DENS. [kg/m3]’
COLO NOIR ROUG
TRAC 23 13 AXES 1.0 ’VELO. [m/s]’
COLO NOIR ROUG
FIN

D7710600mapgy.epx

D7710600MAPGY
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPG.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 5
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.72612E+01 2.81122E-03 2.81116E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -1.62964E+01 2.81122E-03 2.81116E-03
!RSPHERE: 2.41195E-01
!RADIUS : 9.64780E-01
!ASPECT : 1.00000E+00
: 7.23585E-01
!NEAR
!FAR
: 1.44717E+00
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.E5 PAS 0.5E5 7.5E5 TERM

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

SUPP LECT flui3d TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

ENDPLAY
*=======================================================================
FIN

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 800 600 FICH BMP

D7710600maph.epx

228

Friday 8th September, 2023 @ 14:00

D7710600MAPH
ECHO
!CONV win
CAST mesh
TRID ALE
EROS 1.0
DIME ADAP NPOI 300000
CUVF 300000
NVFI 800000
Q4GS 10000
CL3D 10000
NPIN 10000

ENDA
JONC 218 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM

GEOM

Q4GS mems ! pinbcm
PMAT npincm
CUVF flui3d
T3GS fake
TUVF tubelp1
CL3D pre face3d
TUBM rac3d1d

TERM
COMP DIAM DROI 0.1692568 LECT tubelp1 TERM

RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM

TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 24 ’nrac3d1d’ LECT mesh1 rac3d1d TERM

COND XB GT -12.6952 COND XB LT -12.6948

’fcoup1’ LECT flui3d TERM

COND XB GT -16.405
COND XB LT -15.105

’S1’ LECT tube TERM COND NEAR POIN -0.345 0.15 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.15 0.15
’S3’ LECT tube TERM COND NEAR POIN 0.0 0.0 0.0
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

!

’tubelpp’ LECT tubelp1 DIFF epar1 TERM ! epar2 TERM

’memc1’ LECT mem1 TERM COND NEAR POIN -16.435 0 0
’memc1d’ LECT mem1 TERM COND CYLI X1 -16.505 Y1 0 Z1 0

X2 -16.305 Y2 0 Z2 0 R .15

’memc1b’ LECT mem1 DIFF memc1d TERM
’e4’ LECT flui3d TERM COND NEAR POIN -16.340 0.1655 0
’e3’ LECT flui3d TERM COND NEAR POIN -16.270 0.1655 0
’e2’ LECT flui3d TERM COND NEAR POIN -16.200 0.1655 0
’e1’ LECT flui3d TERM COND NEAR POIN -16.190 0.1655 0
’trigger’ LECT tube TERM COND NEAR POIN -0.70 0 0
’npmem1’ LECT npincm TERM COND XB GT -16.340
COND XB LT -16.330
’npmem2’ LECT npincm TERM COND XB GT -16.270
COND XB LT -16.260

NGRO 7 ’nmemi’ LECT mems TERM

COND CYLI X1 -20 Y1 0 Z1 0 X2 20 Y2 0 Z2 0 R 0.1650

’nmemo’ LECT mems DIFF nmemi TERM
’nsymy’ LECT mems TERM COND Y LT 0.001
’nsymz’ LECT mems TERM COND Z LT 0.001
’m1c’
’m2c’

LECT mem1 TERM COND NEAR POIN -16.335 0 0
LECT mem2 TERM COND NEAR POIN -16.265 0 0

!

’m3c’

LECT mem3 TERM COND NEAR POIN -16.195 0 0

’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0

EPAI 0.50E-3 LECT mems TERM
3.00E-3 LECT fake TERM
! 1.00E-3 LECT pinbcm TERM

5.00E-3 LECT npincm TERM ! Only for visualization

DERO DISP 1.230 LECT mem1 TERM
DISP 1.160 LECT mem2 TERM
COUL TURQ LECT tube tra lp3xl TERM

VERT LECT fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM
GR50 LECT mems TERM
ROUG LECT fake TERM
JAUN LECT pre TERM
GR50 LECT npincm TERM ! pinbcm TERM
ROSE LECT S3 S1 S2 S5 S6 S11 S12 S15 S16 TERM

!
ADAP THRS ECRO 3 TMIN 0.01 TMAX 0.4 MAXL 3

DIAM DROI 0.1692568 LECT tubelp1 TERM

LECT mems TERM

GRIL LAGR LECT mems fake TERM
FONC 1 TABL 5 0.0

0.0
1.0
1.0E-3
2.999E-3 1.0
3.0E-3
0.0
100.0E-3 0.0

MATE

!LOI 1

VM23 RO 1380 YOUN 2757.9E6 NU 0.495 ELAS 100.E6 ! "Melinex/Mylar/

! PET" EPAI=0.5

! = Material 2

FAIL PEPR LIMI 1.0
TRAC 3 100.E6 0.03626

180.E6 1.5
230.E6 3.5

LECT mems _q4gs TERM

!LOI 2

GAZP RO 13.445 GAMM 1.4 CV 719.286 PINI 11.36E5 PREF 9.968E4

LECT none TERM

!LOI 3

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 4

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 5

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT flui3d _cuvf TERM

!LOI 6

!
!

IMPE PIMP PRES 13.723E5 PREF 1.011E5 FONC 1
IMPE PIMP PRES 12.98E5 PREF 0 FONC 1

IMPE PIMP PRES 4.20E5 PREF 0 FONC 1

LECT pre _cl3d TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT epar1 epar2 TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT rac3d1d tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 8 9 LECT tubelpp TERM
GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT _cuvf TERM

FANT 0.0

LECT fake TERM

! VM23 RO 7850 YOUNG 2.1E11 NU 0.3 ELAS 1000E6 ! Elastic steel
!
!
!

TRAC 2 1000E6 0.0047619048

LECT pinbcm TERM

1100E6 5.1

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT npincm TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1
!OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT nmemo TERM

! BLOQ 123456 LECT pinbcm TERM
BLOQ 123 LECT npincm TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT nsymy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT nsymz TERM

LINK DECO

PINB PENA SFAC 1.0

BODY

BODY

BODY

BODY

BODY

LECT mem1 TERM

LECT mem2 TERM

LECT mem3 TERM

LECT fake TERM

DMIN 0.003 ! #6

DMIN 0.003 ! #7

DMIN 0.003

! #8

MLEV 0

! #8

DIAM 5.E-3

LECT npincm DIFF npmem1 npmem2 TERM

EXCL PAIR 1 3
EXCL PAIR 2 3

EXCL PAIR 3 4

EXCL PAIR 3 4
FLSW STRU LECT mems TERM

!
!

!

FLUI LECT fcoup1 TERM
R 0.025 ! 0.014
HGRI 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 3 SCAL 2

INIT SKIP UPTO 3.E-3 VFCC
ADAP IMAT TIME 3.E-3

2 MATE 2 OBJE LECT flui3d TERM

INSI SURF LECT mem1 TERM

MATE 3 OBJE LECT flui3d TERM

OUTS SURF LECT mem1 TERM
INSI SURF LECT mem2 TERM

MATE 4 OBJE LECT flui3d TERM

!
!
!
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

OUTS SURF LECT mem2 TERM
INSI SURF LECT mem3 TERM

NOPO !POIN LECT cen TERM
ELEM LECT S1 TERM
FICH ALIC TEMP TFRE 10.e-6
! FICH ALIT FREQ 0 TFRE 0.D0

! TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.01D-3 110.D-3

!POIN LECT cen TERM
POIN LECT m1c m2c TERM
ELEM LECT S1 S2 S3 S5 S6 S11 S12 S15 S16 e1 e2 e3 e4 TERM

FICH SPLI ALIC FREQ 0 TFRE 1.D-3 ! 0.D0
!
!
FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 80.D-3

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 110.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA DTST

FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

!
!
!
!
!

229

Friday 8th September, 2023 @ 14:00

!
!
!

TIME PROG 38.0E-3 TERM
TIME PROG 31.0E-3 TERM
TIME PROG 31.0E-3 PAS 0.5E-3 33.0E-3 TERM
TRIG ECRO 1 TSTO TVAL 1.02E5 LECT trigger TERM

OPTI NOTE CSTA 0.70 CSVF 0.471 ! So that C_s is 0.33 for the VFCC

STEP IO
LOG 1
JAUM
LMST

! FANT 8.0E-3 LECT mems TERM !_q4gs TERM !fc is this OK?
! NOCR LECT pinbcm TERM
NOCR LECT npincm TERM
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
CENE

! Correct gradients (second order) so EINT stays positive

ADAP RCON !TRIG ECRO 1 TVAL 1.02E5 LECT trigger TERM
PINS GRID DPIN 1.01
FLS CUB8 2 ! For the inverse mapping
QUAS STAT 1670 0.1 UPTO 3.0E-3 !fc is this OK ???

CALC TINI 0 TEND 40.0E-3 PAS1 1.E-8 TFAI 6.0E-7
FIN

D7710600maphw.epx

D7710600MAPHW
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPH.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM
TURQ LECT flui3d TERM

!

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
UP
1.00000E+00
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00
!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
!FAR
: 1.21900E+00
SCEN GEOM NAVI FREE
FACE SBAC
LINE SFRE

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.E5 PAS 0.5E5 7.5E5 TERM

SUPP LECT flui3d TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D7710600maphx.epx

D7710600MAPHX
ECHO
!CONV WIN
RESU SPLI ALIC ’D7710600MAPH.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui3d tubelp1 TERM

COND LINE X1 -17.105 Y1 0 Z1 0

X2 -0.6

Y2 0 Z2 0 TOL 1.E-3

SORT GRAP
AXTE 1.0 ’Time [s]’
SCOU 1 ’p_33’ T 33.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

SCOU 2 ’r_33’ T 33.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

SCOU 3 ’v_33’ T 33.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

RCOU 11 ’p_31’ FICH ’D7710600mapax.pun’ RENA ’p_a_31’
RCOU 12 ’r_31’ FICH ’D7710600mapax.pun’ RENA ’r_a_31’
RCOU 13 ’v_31’ FICH ’D7710600mapax.pun’ RENA ’v_a_31’
TRAC 1 11 AXES 1.0 ’PRESS. [Pa]’
COLO NOIR ROUG
TRAC 2 12 AXES 1.0 ’DENS. [kg/m3]’
COLO NOIR ROUG
TRAC 3 13 AXES 1.0 ’VELO. [m/s]’
COLO NOIR ROUG
LIST 1 AXES 1.0 ’PRESS. [Pa]’

LIST 2 AXES 1.0 ’DENS. [kg/m3]’
LIST 3 AXES 1.0 ’VELO. [m/s]’
SCOU 21 ’p_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

SCOU 22 ’r_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

SCOU 23 ’v_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

TRAC 21 11 AXES 1.0 ’PRESS. [Pa]’
COLO NOIR ROUG
TRAC 22 12 AXES 1.0 ’DENS. [kg/m3]’
COLO NOIR ROUG
TRAC 23 13 AXES 1.0 ’VELO. [m/s]’
COLO NOIR ROUG
FIN

D7710600maphy.epx

D7710600MAPHY
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPH.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 9
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.72612E+01 2.81122E-03 2.81116E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
1.00000E+00 0.00000E+00
UP
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -1.62964E+01 2.81122E-03 2.81116E-03
!RSPHERE: 2.41195E-01
!RADIUS : 9.64780E-01
!ASPECT : 1.00000E+00
: 7.23585E-01
!NEAR
!FAR
: 1.44717E+00
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

OFFS SIZE 600 600 FICH BMP

!TRAC DEFO AMPD 0.0
!
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT mem3 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D7710600mapi.epx

D7710600MAPI
ECHO
!CONV win
CAST mesh
TRID ALE
EROS 1.0
DIME ADAP NPOI 300000
CUVF 300000
NVFI 800000
Q4GS 10000
CL3D 10000
NPIN 10000

ENDA
JONC 218 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM

GEOM

Q4GS mems ! pinbcm
PMAT npincm
CUVF flui3d
T3GS fake
TUVF tubelp1
CL3D pre face3d
TUBM rac3d1d

TERM
COMP DIAM DROI 0.1692568 LECT tubelp1 TERM

RACC TUBM LECT rac3d1d TERM

NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 24 ’nrac3d1d’ LECT mesh1 rac3d1d TERM

COND XB GT -12.6952 COND XB LT -12.6948

230

Friday 8th September, 2023 @ 14:00

’fcoup1’ LECT flui3d TERM

COND XB GT -16.405
COND XB LT -15.105

’S1’ LECT tube TERM COND NEAR POIN -0.345 0.15 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.15 0.15
’S3’ LECT tube TERM COND NEAR POIN 0.0 0.0 0.0
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

!
!

1100E6 5.1

LECT pinbcm TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT npincm TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1
!OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT nmemo TERM

! BLOQ 123456 LECT pinbcm TERM
BLOQ 123 LECT npincm TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT nsymy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT nsymz TERM

LINK DECO

PINB PENA SFAC 1.0

!

’tubelpp’ LECT tubelp1 DIFF epar1 TERM ! epar2 TERM

’memc1’ LECT mem1 TERM COND NEAR POIN -16.435 0 0
’memc1d’ LECT mem1 TERM COND CYLI X1 -16.505 Y1 0 Z1 0

X2 -16.305 Y2 0 Z2 0 R .15

’memc1b’ LECT mem1 DIFF memc1d TERM
’e4’ LECT flui3d TERM COND NEAR POIN -16.340 0.1655 0
’e3’ LECT flui3d TERM COND NEAR POIN -16.270 0.1655 0
’e2’ LECT flui3d TERM COND NEAR POIN -16.200 0.1655 0
’e1’ LECT flui3d TERM COND NEAR POIN -16.190 0.1655 0
’trigger’ LECT tube TERM COND NEAR POIN -0.70 0 0
’npmem1’ LECT npincm TERM COND XB GT -16.340
COND XB LT -16.330
’npmem2’ LECT npincm TERM COND XB GT -16.270
COND XB LT -16.260

!
!

!

NGRO 7 ’nmemi’ LECT mems TERM

COND CYLI X1 -20 Y1 0 Z1 0 X2 20 Y2 0 Z2 0 R 0.1650

’nmemo’ LECT mems DIFF nmemi TERM
’nsymy’ LECT mems TERM COND Y LT 0.001
’nsymz’ LECT mems TERM COND Z LT 0.001
’m1c’
’m2c’

LECT mem1 TERM COND NEAR POIN -16.335 0 0
LECT mem2 TERM COND NEAR POIN -16.265 0 0

!

’m3c’

LECT mem3 TERM COND NEAR POIN -16.195 0 0

’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0

BODY

BODY

BODY

BODY

BODY

LECT mem1 TERM

LECT mem2 TERM

LECT mem3 TERM

LECT fake TERM

DMIN 0.003 ! #6

DMIN 0.003 ! #7

DMIN 0.003

! #8

MLEV 0

! #8

DIAM 5.E-3

LECT npincm DIFF npmem1 npmem2 TERM

EXCL PAIR 1 3
EXCL PAIR 2 3

EXCL PAIR 3 4

EXCL PAIR 3 4
FLSW STRU LECT mems TERM

FLUI LECT fcoup1 TERM
R 0.025 ! 0.014
HGRI 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 3 SCAL 2

EPAI 0.50E-3 LECT mems TERM
3.00E-3 LECT fake TERM
! 1.00E-3 LECT pinbcm TERM

5.00E-3 LECT npincm TERM ! Only for visualization

DERO DISP 1.230 LECT mem1 TERM
DISP 1.160 LECT mem2 TERM
COUL TURQ LECT tube tra lp3xl TERM

VERT LECT fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM
GR50 LECT mems TERM
ROUG LECT fake TERM
JAUN LECT pre TERM
GR50 LECT npincm TERM ! pinbcm TERM
ROSE LECT S3 S1 S2 S5 S6 S11 S12 S15 S16 TERM

!
ADAP THRS ECRO 3 TMIN 0.01 TMAX 0.4 MAXL 3

DIAM DROI 0.1692568 LECT tubelp1 TERM

LECT mems TERM

GRIL LAGR LECT mems fake TERM
FONC 1 TABL 5 0.0

0.0
1.0E-3
1.0
2.999E-3 1.0
3.0E-3
0.0
100.0E-3 0.0

MATE

!LOI 1

VM23 RO 1380 YOUN 2757.9E6 NU 0.495 ELAS 100.E6 ! "Melinex/Mylar/

! PET" EPAI=0.5
! = Material 2

FAIL PEPR LIMI 1.0
TRAC 3 100.E6 0.03626

180.E6 1.5
230.E6 3.5

LECT mems _q4gs TERM

!LOI 2

GAZP RO 13.445 GAMM 1.4 CV 719.286 PINI 11.36E5 PREF 9.968E4

LECT none TERM

!LOI 3

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 4

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 5

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT flui3d _cuvf TERM

!LOI 6

!
!

IMPE PIMP PRES 13.723E5 PREF 1.011E5 FONC 1
IMPE PIMP PRES 12.98E5 PREF 0 FONC 1

IMPE PIMP PRES 4.20E5 PREF 0 FONC 1

LECT pre _cl3d TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT epar1 epar2 TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT rac3d1d tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 8 9 LECT tubelpp TERM
GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT _cuvf TERM

FANT 0.0

LECT fake TERM

! VM23 RO 7850 YOUNG 2.1E11 NU 0.3 ELAS 1000E6 ! Elastic steel
!

TRAC 2 1000E6 0.0047619048

INIT SKIP UPTO 3.E-3 VFCC
ADAP IMAT TIME 3.E-3

2 MATE 2 OBJE LECT flui3d TERM

INSI SURF LECT mem1 TERM

MATE 3 OBJE LECT flui3d TERM

OUTS SURF LECT mem1 TERM
INSI SURF LECT mem2 TERM

MATE 4 OBJE LECT flui3d TERM

!
!
!
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

OUTS SURF LECT mem2 TERM
INSI SURF LECT mem3 TERM

NOPO !POIN LECT cen TERM
ELEM LECT S1 TERM
FICH ALIC TEMP TFRE 10.e-6
! FICH ALIT FREQ 0 TFRE 0.D0

! TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.01D-3 110.D-3

!POIN LECT cen TERM
POIN LECT m1c m2c TERM
ELEM LECT S1 S2 S3 S5 S6 S11 S12 S15 S16 e1 e2 e3 e4 TERM

FICH SPLI ALIC FREQ 0 TFRE 1.D-3 ! 0.D0
!
!
FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 80.D-3

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 110.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA DTST

FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

TIME PROG 38.0E-3 TERM
TIME PROG 31.0E-3 TERM
TIME PROG 31.0E-3 PAS 0.5E-3 33.0E-3 TERM
TRIG ECRO 1 TSTO TVAL 1.02E5 LECT trigger TERM

!
!
!
!
!

!
!
!

OPTI NOTE CSTA 0.25

STEP IO
LOG 1
JAUM
LMST

! FANT 8.0E-3 LECT mems TERM !_q4gs TERM !fc is this OK?
! NOCR LECT pinbcm TERM
NOCR LECT npincm TERM
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
CENE

! Correct gradients (second order) so EINT stays positive

ADAP RCON !TRIG ECRO 1 TVAL 1.02E5 LECT trigger TERM
PINS GRID DPIN 1.01
FLS CUB8 2 ! For the inverse mapping
QUAS STAT 1670 0.1 UPTO 3.0E-3 !fc is this OK ???

CALC TINI 0 TEND 40.0E-3 PAS1 1.E-8 TFAI 2.15E-7
FIN

D7710600mapiw.epx

D7710600MAPIW
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPI.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

231

Friday 8th September, 2023 @ 14:00

TURQ LECT flui3d TERM

!

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
UP
1.00000E+00
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00
!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
!FAR
: 1.21900E+00
SCEN GEOM NAVI FREE
FACE SBAC
LINE SFRE

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.E5 PAS 0.5E5 7.5E5 TERM

SUPP LECT flui3d TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

GOTR LOOP 10 OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D7710600mapix.epx

D7710600MAPIX
ECHO
!CONV WIN
RESU SPLI ALIC ’D7710600MAPI.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui3d tubelp1 TERM

COND LINE X1 -17.105 Y1 0 Z1 0

X2 -0.6

Y2 0 Z2 0 TOL 1.E-3

SORT GRAP
AXTE 1.0 ’Time [s]’
SCOU 1 ’p_33’ T 33.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

SCOU 2 ’r_33’ T 33.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

SCOU 3 ’v_33’ T 33.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

RCOU 11 ’p_31’ FICH ’D7710600mapax.pun’ RENA ’p_a_31’
RCOU 12 ’r_31’ FICH ’D7710600mapax.pun’ RENA ’r_a_31’
RCOU 13 ’v_31’ FICH ’D7710600mapax.pun’ RENA ’v_a_31’
TRAC 1 11 AXES 1.0 ’PRESS. [Pa]’
COLO NOIR ROUG
TRAC 2 12 AXES 1.0 ’DENS. [kg/m3]’
COLO NOIR ROUG
TRAC 3 13 AXES 1.0 ’VELO. [m/s]’
COLO NOIR ROUG
LIST 1 AXES 1.0 ’PRESS. [Pa]’
LIST 2 AXES 1.0 ’DENS. [kg/m3]’
LIST 3 AXES 1.0 ’VELO. [m/s]’
SCOU 21 ’p_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

SCOU 22 ’r_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

SCOU 23 ’v_31’ T 31.E-3 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

TRAC 21 11 AXES 1.0 ’PRESS. [Pa]’
COLO NOIR ROUG
TRAC 22 12 AXES 1.0 ’DENS. [kg/m3]’
COLO NOIR ROUG
TRAC 23 13 AXES 1.0 ’VELO. [m/s]’
COLO NOIR ROUG
FIN

D7710600mapiy.epx

D7710600MAPIY
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPI.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 9
*=======================================================================
PLAY
CAME

1 EYE -1.72612E+01 2.81122E-03 2.81116E-03

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -1.62964E+01 2.81122E-03 2.81116E-03
!RSPHERE: 2.41195E-01
!RADIUS : 9.64780E-01
!ASPECT : 1.00000E+00
: 7.23585E-01
!NEAR
!FAR
: 1.44717E+00
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

OFFS SIZE 600 600 FICH BMP

!TRAC DEFO AMPD 0.0
!
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT mem3 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

D7710600mapj.epx

D7710600MAPJ
ECHO
!CONV win
CAST mesh
TRID ALE
EROS 1.0
DIME ADAP NPOI 300000
CUVF 300000
NVFI 800000
Q4GS 10000
CL3D 10000
NPIN 10000

ENDA
JONC 218 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM

GEOM

Q4GS mems pinbcm
PMAT npincm
CUVF flui3d
T3GS fake
TUVF tubelp1
CL3D pre face3d
TUBM rac3d1d

TERM
COMP DIAM DROI 0.1692568 LECT tubelp1 TERM

RACC TUBM LECT rac3d1d TERM

NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 22 ’nrac3d1d’ LECT mesh1 rac3d1d TERM

COND XB GT -12.6952 COND XB LT -12.6948

’fcoup1’ LECT flui3d TERM

COND XB GT -16.405
COND XB LT -15.105

’S1’ LECT tube TERM COND NEAR POIN -0.345 0.15 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.15 0.15
’S3’ LECT tube TERM COND NEAR POIN 0.0 0.0 0.0
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

!

’tubelpp’ LECT tubelp1 DIFF epar1 TERM ! epar2 TERM

’memc1’ LECT mem1 TERM COND NEAR POIN -16.435 0 0
’memc1d’ LECT mem1 TERM COND CYLI X1 -16.505 Y1 0 Z1 0

X2 -16.305 Y2 0 Z2 0 R .15

’memc1b’ LECT mem1 DIFF memc1d TERM
’e4’ LECT flui3d TERM COND NEAR POIN -16.340 0.1655 0
’e3’ LECT flui3d TERM COND NEAR POIN -16.270 0.1655 0
’e2’ LECT flui3d TERM COND NEAR POIN -16.200 0.1655 0
’e1’ LECT flui3d TERM COND NEAR POIN -16.190 0.1655 0
’trigger’ LECT tube TERM COND NEAR POIN -0.70 0 0

NGRO 7 ’nmemi’ LECT mems TERM

COND CYLI X1 -20 Y1 0 Z1 0 X2 20 Y2 0 Z2 0 R 0.1650

’nmemo’ LECT mems DIFF nmemi TERM
’nsymy’ LECT mems TERM COND Y LT 0.001
’nsymz’ LECT mems TERM COND Z LT 0.001
’m1c’
’m2c’

LECT mem1 TERM COND NEAR POIN -16.335 0 0
LECT mem2 TERM COND NEAR POIN -16.265 0 0

!

’m3c’

LECT mem3 TERM COND NEAR POIN -16.195 0 0

’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0

EPAI 0.50E-3 LECT mems TERM
3.00E-3 LECT fake TERM

232

Friday 8th September, 2023 @ 14:00

1.00E-3 LECT pinbcm TERM
5.00E-3 LECT npincm TERM ! Only for visualization

DERO DISP 1.230 LECT mem1 TERM
DISP 1.160 LECT mem2 TERM
COUL TURQ LECT tube tra lp3xl TERM

VERT LECT fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM
GR50 LECT mems TERM
ROUG LECT fake TERM
JAUN LECT pre TERM
GR50 LECT pinbcm TERM
ROSE LECT S3 S1 S2 S5 S6 S11 S12 S15 S16 TERM

!
ADAP THRS ECRO 3 TMIN 0.01 TMAX 0.4 MAXL 3

DIAM DROI 0.1692568 LECT tubelp1 TERM

LECT mems TERM

GRIL LAGR LECT mems fake TERM
FONC 1 TABL 5 0.0

0.0
1.0E-3
1.0
2.999E-3 1.0
3.0E-3
0.0
100.0E-3 0.0

MATE

!LOI 1

VM23 RO 1380 YOUN 2757.9E6 NU 0.495 ELAS 100.E6 ! "Melinex/Mylar/

! PET" EPAI=0.5
! = Material 2

FAIL PEPR LIMI 1.0
TRAC 3 100.E6 0.03626

180.E6 1.5
230.E6 3.5

LECT mems _q4gs TERM

!LOI 2

GAZP RO 13.445 GAMM 1.4 CV 719.286 PINI 11.36E5 PREF 9.968E4

LECT none TERM

!LOI 3

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 4

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 5

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT flui3d _cuvf TERM

!LOI 6

!
!

IMPE PIMP PRES 13.723E5 PREF 1.011E5 FONC 1
IMPE PIMP PRES 12.98E5 PREF 0 FONC 1

IMPE PIMP PRES 4.20E5 PREF 0 FONC 1

LECT pre _cl3d TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT epar1 epar2 TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT rac3d1d tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 8 9 LECT tubelpp TERM
GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT _cuvf TERM

FANT 0.0

LECT fake TERM

VM23 RO 7850 YOUNG 2.1E11 NU 0.3 ELAS 1000E6 ! Elastic steel

TRAC 2 1000E6 0.0047619048

1100E6 5.1

LECT pinbcm TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT npincm TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1
!OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT nmemo TERM
BLOQ 123 LECT pinbcm TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT nsymy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT nsymz TERM

LINK DECO

PINB PENA SFAC 1.0

BODY

BODY

BODY

BODY

BODY

LECT mem1 TERM

LECT mem2 TERM

LECT mem3 TERM

LECT fake TERM

LECT npincm TERM

EXCL PAIR 1 3
EXCL PAIR 2 3

EXCL PAIR 3 4

EXCL PAIR 3 4
FLSW STRU LECT mems TERM

!
!

!

DMIN 0.003 ! #6

DMIN 0.003 ! #7

DMIN 0.003

! #8

MLEV 0

! #8

DIAM 5.E-3

FLUI LECT fcoup1 TERM
R 0.025 ! 0.014
HGRI 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 3 SCAL 2

INIT SKIP UPTO 3.E-3 VFCC
ADAP IMAT TIME 3.E-3

2 MATE 2 OBJE LECT flui3d TERM

INSI SURF LECT mem1 TERM

MATE 3 OBJE LECT flui3d TERM

OUTS SURF LECT mem1 TERM
INSI SURF LECT mem2 TERM

MATE 4 OBJE LECT flui3d TERM

!
!
!
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

OUTS SURF LECT mem2 TERM
INSI SURF LECT mem3 TERM

NOPO !POIN LECT cen TERM
ELEM LECT S1 TERM
FICH ALIC TEMP TFRE 10.e-6
! FICH ALIT FREQ 0 TFRE 0.D0

! TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.01D-3 110.D-3

!POIN LECT cen TERM
POIN LECT m1c m2c TERM
ELEM LECT S1 S2 S3 S5 S6 S11 S12 S15 S16 e1 e2 e3 e4 TERM

FICH SPLI ALIC FREQ 0 TFRE 1.D-3 ! 0.D0
!
!
FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 80.D-3

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 110.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA DTST

FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

TIME PROG 38.0E-3 TERM
TIME PROG 31.0E-3 TERM
TIME PROG 31.0E-3 PAS 0.5E-3 33.0E-3 TERM
TRIG ECRO 1 TSTO TVAL 1.02E5 LECT trigger TERM

!
!
!
!
!

!
!
!

OPTI NOTE CSTA 0.25

STEP IO
LOG 1
JAUM
LMST

! FANT 8.0E-3 LECT mems TERM !_q4gs TERM !fc is this OK?

VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
LMAS 3 ! Dubois reconstructioin limiter (default)
LQDM 3
LENE 3
KMAS 0.75 ! Dubois parameter (default is 0.5)
KQDM 0.75
KENE 0.75
NTIL
CENE

ADAP RCON !TRIG ECRO 1 TVAL 1.02E5 LECT trigger TERM
PINS GRID DPIN 1.01
FLS CUB8 2 ! For the inverse mapping
QUAS STAT 1670 0.1 UPTO 3.0E-3 !fc is this OK ???

CALC TINI 0 TEND 40.0E-3
FIN

D7710600mapjv.epx

D7710600MAPJV
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPJ.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM
TURQ LECT flui3d TERM

!

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
UP
1.00000E+00
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00
!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
!FAR
: 1.21900E+00
SCEN GEOM NAVI FREE
FACE SBAC
LINE SFRE

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

GOTR LOOP 33 OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D7710600MAPJ.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1

233

Friday 8th September, 2023 @ 14:00

*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D7710600mapjw.epx

D7710600MAPJW
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPJ.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM
TURQ LECT flui3d TERM

!

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
UP
1.00000E+00
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00
!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
!FAR
: 1.21900E+00
SCEN GEOM NAVI FREE
FACE SBAC
LINE SFRE

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.E5 PAS 0.5E5 7.5E5 TERM

SUPP LECT flui3d TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

GOTR LOOP 33 OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D7710600MAPJ.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D7710600mapjx.epx

D7710600MAPJX
ECHO
!CONV WIN
RESU SPLI ALIC ’D7710600MAPJ.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui3d tubelp1 TERM

COND LINE X1 -17.105 Y1 0 Z1 0

X2 -0.6

Y2 0 Z2 0 TOL 1.E-3

SORT GRAP
AXTE 1.0 ’Time [s]’
SCOU 1 ’p_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

SCOU 2 ’r_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

SCOU 3 ’v_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

RCOU 11 ’p_trig’ FICH ’D7710600MAPDX.pun’ RENA ’p_d_trig’
RCOU 12 ’r_trig’ FICH ’D7710600MAPDX.pun’ RENA ’r_d_trig’
RCOU 13 ’v_trig’ FICH ’D7710600MAPDX.pun’ RENA ’v_d_trig’
RCOU 21 ’p_trig’ FICH ’D7710600MAPEX.pun’ RENA ’p_e_trig’
RCOU 22 ’r_trig’ FICH ’D7710600MAPEX.pun’ RENA ’r_e_trig’
RCOU 23 ’v_trig’ FICH ’D7710600MAPEX.pun’ RENA ’v_e_trig’
TRAC 1 11 21 AXES 1.0 ’PRESS. [Pa]’
COLO VERT ROUG NOIR
TRAC 2 12 22 AXES 1.0 ’DENS. [kg/m3]’
COLO VERT ROUG NOIR
TRAC 3 13 23 AXES 1.0 ’VELO. [m/s]’
COLO VERT ROUG NOIR
!
TRAC 1 AXES 1.0 ’PRESS. [Pa]’
TRAC 2 AXES 1.0 ’DENS. [kg/m3]’
TRAC 3 AXES 1.0 ’VELO. [m/s]’

LIST 1 AXES 1.0 ’PRESS. [Pa]’
LIST 2 AXES 1.0 ’DENS. [kg/m3]’
LIST 3 AXES 1.0 ’VELO. [m/s]’
FIN

D7710600mapjy.epx

D7710600MAPJY
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPJ.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 9
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.72612E+01 2.81122E-03 2.81116E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -1.62964E+01 2.81122E-03 2.81116E-03
!RSPHERE: 2.41195E-01
!RADIUS : 9.64780E-01
!ASPECT : 1.00000E+00
: 7.23585E-01
!NEAR
!FAR
: 1.44717E+00
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 25
GO
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D7710600mapjzz.epx

D7710600MAPJZZ
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPJ.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
UP
1.00000E+00
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00
!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
!FAR
: 1.21900E+00
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm TERM SYXY TOLS 1.E-3 NFAI REND

GOTR LOOP 33 OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm TERM SYXY TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D7710600MAPJ.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================

234

Friday 8th September, 2023 @ 14:00

PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D7710600mapk.epx

D7710600MAPK
ECHO
!CONV win
CAST mesh
TRID ALE
EROS 1.0
DIME ADAP NPOI 300000
CUVF 300000
NVFI 800000
Q4GS 10000
CL3D 10000
NPIN 10000

ENDA
JONC 218 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM

GEOM

Q4GS mems pinbcm
PMAT npincm
CUVF flui3d
T3GS fake
TUVF tubelp1
CL3D pre face3d
TUBM rac3d1d

TERM
COMP DIAM DROI 0.1692568 LECT tubelp1 TERM

RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM

TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 22 ’nrac3d1d’ LECT mesh1 rac3d1d TERM

COND XB GT -12.6952 COND XB LT -12.6948

’fcoup1’ LECT flui3d TERM

COND XB GT -16.405
COND XB LT -15.105

’S1’ LECT tube TERM COND NEAR POIN -0.345 0.15 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.15 0.15
’S3’ LECT tube TERM COND NEAR POIN 0.0 0.0 0.0
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

’tubelpp’ LECT tubelp1 DIFF epar1 TERM ! epar2 TERM

’memc1’ LECT mem1 TERM COND NEAR POIN -16.435 0 0
’memc1d’ LECT mem1 TERM COND CYLI X1 -16.505 Y1 0 Z1 0

!

X2 -16.305 Y2 0 Z2 0 R .15

’memc1b’ LECT mem1 DIFF memc1d TERM
’e4’ LECT flui3d TERM COND NEAR POIN -16.340 0.1655 0
’e3’ LECT flui3d TERM COND NEAR POIN -16.270 0.1655 0
’e2’ LECT flui3d TERM COND NEAR POIN -16.200 0.1655 0
’e1’ LECT flui3d TERM COND NEAR POIN -16.190 0.1655 0
’trigger’ LECT tube TERM COND NEAR POIN -0.70 0 0

NGRO 7 ’nmemi’ LECT mems TERM

COND CYLI X1 -20 Y1 0 Z1 0 X2 20 Y2 0 Z2 0 R 0.1650

’nmemo’ LECT mems DIFF nmemi TERM
’nsymy’ LECT mems TERM COND Y LT 0.001
’nsymz’ LECT mems TERM COND Z LT 0.001
’m1c’
’m2c’

LECT mem1 TERM COND NEAR POIN -16.335 0 0
LECT mem2 TERM COND NEAR POIN -16.265 0 0

!

’m3c’

LECT mem3 TERM COND NEAR POIN -16.195 0 0

’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0

EPAI 0.50E-3 LECT mems TERM
3.00E-3 LECT fake TERM
1.00E-3 LECT pinbcm TERM
5.00E-3 LECT npincm TERM ! Only for visualization

COUL TURQ LECT tube tra lp3xl TERM

VERT LECT fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM
GR50 LECT mems TERM
ROUG LECT fake TERM
JAUN LECT pre TERM
GR50 LECT pinbcm TERM
ROSE LECT S3 S1 S2 S5 S6 S11 S12 S15 S16 TERM

!
ADAP THRS ECRO 3 TMIN 0.01 TMAX 0.4 MAXL 3

DIAM DROI 0.1692568 LECT tubelp1 TERM

LECT mems TERM

GRIL LAGR LECT mems fake TERM
FONC 1 TABL 5 0.0

0.0
1.0E-3
1.0
2.999E-3 1.0
3.0E-3
0.0
100.0E-3 0.0

MATE

!LOI 1

VM23 RO 1380 YOUN 2757.9E6 NU 0.495 ELAS 100.E6 ! "Melinex/Mylar/

! PET" EPAI=0.5
! = Material 2

FAIL PEPR LIMI 1.0
TRAC 3 100.E6 0.03626

180.E6 1.5
230.E6 3.5

LECT mems _q4gs TERM

!LOI 2

GAZP RO 13.445 GAMM 1.4 CV 719.286 PINI 11.36E5 PREF 9.968E4

LECT none TERM

!LOI 3

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 4

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 5

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT flui3d _cuvf TERM

!LOI 6

!
!

IMPE PIMP PRES 13.723E5 PREF 1.011E5 FONC 1
IMPE PIMP PRES 12.98E5 PREF 0 FONC 1

IMPE PIMP PRES 4.20E5 PREF 0 FONC 1

LECT pre _cl3d TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT epar1 epar2 TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT rac3d1d tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 8 9 LECT tubelpp TERM
GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT _cuvf TERM

FANT 0.0

LECT fake TERM

VM23 RO 7850 YOUNG 2.1E11 NU 0.3 ELAS 1000E6 ! Elastic steel

TRAC 2 1000E6 0.0047619048

1100E6 5.1

LECT pinbcm TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT npincm TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1
!OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT nmemo TERM
BLOQ 123 LECT pinbcm TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT nsymy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT nsymz TERM

LINK DECO

PINB PENA SFAC 1.0

BODY

BODY

BODY

BODY

BODY

LECT mem1 TERM

LECT mem2 TERM

LECT mem3 TERM

LECT fake TERM

LECT npincm TERM

EXCL PAIR 1 3
EXCL PAIR 2 3

EXCL PAIR 3 4

EXCL PAIR 3 4
FLSW STRU LECT mems TERM

!
!

!

DMIN 0.003 ! #6

DMIN 0.003 ! #7

DMIN 0.003

! #8

MLEV 0

! #8

DIAM 5.E-3

FLUI LECT fcoup1 TERM
R 0.025 ! 0.014
HGRI 0.016
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 0 ! couple only in normal direction
ADAP LMAX 3 SCAL 2

INIT SKIP UPTO 3.E-3 VFCC
ADAP IMAT TIME 3.E-3

2 MATE 2 OBJE LECT flui3d TERM

INSI SURF LECT mem1 TERM

MATE 3 OBJE LECT flui3d TERM

OUTS SURF LECT mem1 TERM
INSI SURF LECT mem2 TERM

MATE 4 OBJE LECT flui3d TERM

!
!
!
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

OUTS SURF LECT mem2 TERM
INSI SURF LECT mem3 TERM

NOPO !POIN LECT cen TERM
ELEM LECT S1 TERM
FICH ALIC TEMP TFRE 10.e-6
! FICH ALIT FREQ 0 TFRE 0.D0

! TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.01D-3 110.D-3

!POIN LECT cen TERM
POIN LECT m1c m2c TERM
ELEM LECT S1 S2 S3 S5 S6 S11 S12 S15 S16 e1 e2 e3 e4 TERM

FICH SPLI ALIC FREQ 0 TFRE 1.D-3 ! 0.D0
!
!
FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 80.D-3

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 110.D-3
GROU AUTO

!
!
!
!

235

Friday 8th September, 2023 @ 14:00

!

!
!
!

VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA DTST

FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

TIME PROG 38.0E-3 TERM
TIME PROG 31.0E-3 TERM
TIME PROG 31.0E-3 PAS 0.5E-3 33.0E-3 TERM
TRIG ECRO 1 TSTO TVAL 1.02E5 LECT trigger TERM

OPTI NOTE CSTA 0.25

STEP IO
LOG 1
JAUM
LMST

! FANT 8.0E-3 LECT mems TERM !_q4gs TERM !fc is this OK?

VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
NTIL

ADAP RCON !TRIG ECRO 1 TVAL 1.02E5 LECT trigger TERM
PINS GRID DPIN 1.01
FLS CUB8 2 ! For the inverse mapping
QUAS STAT 1670 0.1 UPTO 3.0E-3 !fc is this OK ???

CALC TINI 0 TEND 40.0E-3
FIN

D7710600mapkw.epx

D7710600MAPKW
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPK.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM
TURQ LECT flui3d TERM

!

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
UP
1.00000E+00
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00
!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
!FAR
: 1.21900E+00
SCEN GEOM NAVI FREE
FACE SBAC
LINE SFRE

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.E5 PAS 0.5E5 7.5E5 TERM

SUPP LECT flui3d TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

GOTR LOOP 33 OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D7710600MAPK.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 10 KFRE 10 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D7710600mapkx.epx

D7710600MAPKX
ECHO
!CONV WIN
RESU SPLI ALIC ’D7710600MAPK.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui3d tubelp1 TERM

SUPP LECT flui3d tubelp1 TERM

!
RCOU 11 ’p_trig’ FICH ’D7710600MAPDX.pun’ RENA ’p_d_trig’
RCOU 12 ’r_trig’ FICH ’D7710600MAPDX.pun’ RENA ’r_d_trig’
RCOU 13 ’v_trig’ FICH ’D7710600MAPDX.pun’ RENA ’v_d_trig’
TRAC 1 11 AXES 1.0 ’PRESS. [Pa]’
COLO NOIR ROUG
TRAC 2 12 AXES 1.0 ’DENS. [kg/m3]’
COLO NOIR ROUG
TRAC 3 13 AXES 1.0 ’VELO. [m/s]’
COLO NOIR ROUG
!
TRAC 1 AXES 1.0 ’PRESS. [Pa]’
TRAC 2 AXES 1.0 ’DENS. [kg/m3]’
TRAC 3 AXES 1.0 ’VELO. [m/s]’
LIST 1 AXES 1.0 ’PRESS. [Pa]’
LIST 2 AXES 1.0 ’DENS. [kg/m3]’
LIST 3 AXES 1.0 ’VELO. [m/s]’
!
FIN

D7710600mapky.epx

D7710600MAPKY
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPK.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 9
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.72612E+01 2.81122E-03 2.81116E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -1.62964E+01 2.81122E-03 2.81116E-03
!RSPHERE: 2.41195E-01
!RADIUS : 9.64780E-01
!ASPECT : 1.00000E+00
: 7.23585E-01
!NEAR
!FAR
: 1.44717E+00
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 25
GO
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D7710600mapl.epx

D7710600MAPL
ECHO
!CONV win
CAST mesh
TRID ALE
EROS 1.0
!DIME ADAP NPOI 300000
CUVF 300000
!
!
NVFI 800000
DIME ADAP NPOI 600000
CUVF 600000
NVFI 1600000
Q4GS 10000
CL3D 10000
NPIN 10000

COND LINE X1 -17.105 Y1 0 Z1 0

X2 -0.6

Y2 0 Z2 0 TOL 1.E-3

SORT GRAP
AXTE 1.0 ’Time [s]’
SCOU 1 ’p_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

GEOM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

SCOU 2 ’r_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

ENDA
JONC 218 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM

Q4GS mems pinbcm
PMAT npincm
CUVF flui3d
T3GS fake
TUVF tubelp1
CL3D pre face3d
TUBM rac3d1d

SCOU 3 ’v_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

VCVI COMP 1

TERM
COMP DIAM DROI 0.1692568 LECT tubelp1 TERM

236

Friday 8th September, 2023 @ 14:00

RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM

TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 22 ’nrac3d1d’ LECT mesh1 rac3d1d TERM

COND XB GT -12.6952 COND XB LT -12.6948

’fcoup1’ LECT flui3d TERM

COND XB GT -16.405
COND XB LT -15.105

’S1’ LECT tube TERM COND NEAR POIN -0.345 0.15 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.15 0.15
’S3’ LECT tube TERM COND NEAR POIN 0.0 0.0 0.0
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

’tubelpp’ LECT tubelp1 DIFF epar1 TERM ! epar2 TERM

’memc1’ LECT mem1 TERM COND NEAR POIN -16.435 0 0
’memc1d’ LECT mem1 TERM COND CYLI X1 -16.505 Y1 0 Z1 0

!

X2 -16.305 Y2 0 Z2 0 R .15

’memc1b’ LECT mem1 DIFF memc1d TERM
’e4’ LECT flui3d TERM COND NEAR POIN -16.340 0.1655 0
’e3’ LECT flui3d TERM COND NEAR POIN -16.270 0.1655 0
’e2’ LECT flui3d TERM COND NEAR POIN -16.200 0.1655 0
’e1’ LECT flui3d TERM COND NEAR POIN -16.190 0.1655 0
’trigger’ LECT tube TERM COND NEAR POIN -0.70 0 0

NGRO 7 ’nmemi’ LECT mems TERM

COND CYLI X1 -20 Y1 0 Z1 0 X2 20 Y2 0 Z2 0 R 0.1650

’nmemo’ LECT mems DIFF nmemi TERM
’nsymy’ LECT mems TERM COND Y LT 0.001
’nsymz’ LECT mems TERM COND Z LT 0.001
’m1c’
’m2c’

LECT mem1 TERM COND NEAR POIN -16.335 0 0
LECT mem2 TERM COND NEAR POIN -16.265 0 0

!

’m3c’

LECT mem3 TERM COND NEAR POIN -16.195 0 0

’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0

EPAI 0.50E-3 LECT mems TERM
3.00E-3 LECT fake TERM
1.00E-3 LECT pinbcm TERM
5.00E-3 LECT npincm TERM ! Only for visualization

COUL TURQ LECT tube tra lp3xl TERM

VERT LECT fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM
GR50 LECT mems TERM
ROUG LECT fake TERM
JAUN LECT pre TERM
GR50 LECT pinbcm TERM
ROSE LECT S3 S1 S2 S5 S6 S11 S12 S15 S16 TERM

!
ADAP THRS ECRO 3 TMIN 0.01 TMAX 0.4 MAXL 2

DIAM DROI 0.1692568 LECT tubelp1 TERM

LECT mems TERM

GRIL LAGR LECT mems fake TERM
FONC 1 TABL 5 0.0

0.0
1.0E-3
1.0
2.999E-3 1.0
3.0E-3
0.0
100.0E-3 0.0

MATE

!LOI 1

VM23 RO 1380 YOUN 2757.9E6 NU 0.495 ELAS 100.E6 ! "Melinex/Mylar/

! PET" EPAI=0.5
! = Material 2

FAIL PEPR LIMI 1.0
TRAC 3 100.E6 0.03626

180.E6 1.5
230.E6 3.5

LECT mems _q4gs TERM

!LOI 2

GAZP RO 13.445 GAMM 1.4 CV 719.286 PINI 11.36E5 PREF 9.968E4

LECT none TERM

!LOI 3

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 4

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 5

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT flui3d _cuvf TERM

!LOI 6

!
!

IMPE PIMP PRES 13.723E5 PREF 1.011E5 FONC 1
IMPE PIMP PRES 12.98E5 PREF 0 FONC 1

IMPE PIMP PRES 4.20E5 PREF 0 FONC 1

LECT pre _cl3d TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT epar1 epar2 TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT rac3d1d tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 8 9 LECT tubelpp TERM
GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT _cuvf TERM

FANT 0.0

LECT fake TERM

VM23 RO 7850 YOUNG 2.1E11 NU 0.3 ELAS 1000E6 ! Elastic steel

TRAC 2 1000E6 0.0047619048

1100E6 5.1

LECT pinbcm TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT npincm TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1
!OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT nmemo TERM
BLOQ 123 LECT pinbcm TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT nsymy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT nsymz TERM

LINK DECO

PINB PENA SFAC 1.0

BODY

BODY

BODY

BODY

BODY

LECT mem1 TERM

LECT mem2 TERM

LECT mem3 TERM

LECT fake TERM

LECT npincm TERM

EXCL PAIR 1 3
EXCL PAIR 2 3

EXCL PAIR 3 4

EXCL PAIR 3 4
FLSW STRU LECT mems TERM

!
!

!

DMIN 0.003 ! #6

DMIN 0.003 ! #7

DMIN 0.003

! #8

MLEV 0

! #8

DIAM 5.E-3

FLUI LECT fcoup1 TERM
GAMM 1.1
DELE 1.1
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 3 SCAL 1.5

INIT SKIP UPTO 3.E-3 VFCC
ADAP IMAT TIME 3.E-3

2 MATE 2 OBJE LECT flui3d TERM

INSI SURF LECT mem1 TERM

MATE 3 OBJE LECT flui3d TERM

OUTS SURF LECT mem1 TERM
INSI SURF LECT mem2 TERM

MATE 4 OBJE LECT flui3d TERM

!
!
!
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

OUTS SURF LECT mem2 TERM
INSI SURF LECT mem3 TERM

NOPO !POIN LECT cen TERM
ELEM LECT S1 TERM
FICH ALIC TEMP TFRE 10.e-6
! FICH ALIT FREQ 0 TFRE 0.D0

! TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.01D-3 110.D-3

!POIN LECT cen TERM
POIN LECT m1c m2c TERM
ELEM LECT S1 S2 S3 S5 S6 S11 S12 S15 S16 e1 e2 e3 e4 TERM

FICH SPLI ALIC FREQ 0 TFRE 1.D-3 ! 0.D0
!
!
FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 80.D-3

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 110.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA DTST

FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

TIME PROG 38.0E-3 TERM
TIME PROG 31.0E-3 TERM
TIME PROG 31.0E-3 PAS 0.5E-3 33.0E-3 TERM
TRIG ECRO 1 TSTO TVAL 1.02E5 LECT trigger TERM

!
!
!
!
!

!
!
!

OPTI NOTE CSTA 0.25

STEP IO
LOG 1
JAUM
LMST

! FANT 8.0E-3 LECT mems TERM !_q4gs TERM !fc is this OK?

VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
NTIL

ADAP RCON !TRIG ECRO 1 TVAL 1.02E5 LECT trigger TERM
PINS GRID DPIN 1.01
FLS CUB8 2 ! For the inverse mapping
QUAS STAT 1670 0.1 UPTO 3.0E-3 !fc is this OK ???

CALC TINI 0 TEND 40.0E-3
FIN

D7710600maplw.epx

D7710600MAPLW
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPL.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

237

Friday 8th September, 2023 @ 14:00

TURQ LECT flui3d TERM

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
UP
1.00000E+00
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00
!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
!FAR
: 1.21900E+00
SCEN GEOM NAVI FREE
FACE SBAC
LINE SFRE

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.E5 PAS 0.5E5 7.5E5 TERM

SUPP LECT flui3d TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

GOTR LOOP 33 OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D7710600MAPL.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 10 KFRE 10 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D7710600maplx.epx

D7710600MAPLX
ECHO
!CONV WIN
RESU SPLI ALIC ’D7710600MAPL.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui3d tubelp1 TERM

COND LINE X1 -17.105 Y1 0 Z1 0

X2 -0.6

Y2 0 Z2 0 TOL 1.E-3

SORT GRAP
AXTE 1.0 ’Time [s]’
SCOU 1 ’p_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

SCOU 2 ’r_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

SCOU 3 ’v_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

!
RCOU 11 ’p_trig’ FICH ’D7710600MAPDX.pun’ RENA ’p_d_trig’
RCOU 12 ’r_trig’ FICH ’D7710600MAPDX.pun’ RENA ’r_d_trig’
RCOU 13 ’v_trig’ FICH ’D7710600MAPDX.pun’ RENA ’v_d_trig’
TRAC 1 11 AXES 1.0 ’PRESS. [Pa]’
COLO NOIR ROUG
TRAC 2 12 AXES 1.0 ’DENS. [kg/m3]’
COLO NOIR ROUG
TRAC 3 13 AXES 1.0 ’VELO. [m/s]’
COLO NOIR ROUG
!
TRAC 1 AXES 1.0 ’PRESS. [Pa]’
TRAC 2 AXES 1.0 ’DENS. [kg/m3]’
TRAC 3 AXES 1.0 ’VELO. [m/s]’
LIST 1 AXES 1.0 ’PRESS. [Pa]’
LIST 2 AXES 1.0 ’DENS. [kg/m3]’
LIST 3 AXES 1.0 ’VELO. [m/s]’
!
FIN

D7710600maply.epx

D7710600MAPLY
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPL.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 9
*=======================================================================

PLAY
CAME
!

1 EYE -1.72612E+01 2.81122E-03 2.81116E-03

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -1.62964E+01 2.81122E-03 2.81116E-03
!RSPHERE: 2.41195E-01
!RADIUS : 9.64780E-01
!ASPECT : 1.00000E+00
: 7.23585E-01
!NEAR
!FAR
: 1.44717E+00
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 25
GO
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D7710600maply2.epx

D7710600MAPLY2
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPL.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 9
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.72612E+01 2.81122E-03 2.81116E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -1.62964E+01 2.81122E-03 2.81116E-03
!RSPHERE: 2.41195E-01
!RADIUS : 9.64780E-01
!ASPECT : 1.00000E+00
: 7.23585E-01
!NEAR
!FAR
: 1.44717E+00
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

!FREQ 25
!GO
!TRAC DEFO AMPD 0.0
!
!
!TRAC DEFO AMPD 0.0
!
!
ENDPLAY
*=======================================================================
FIN

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

OFFS SIZE 600 600 FICH BMP

D7710600mapmy3.epx

D7710600MAPMY3
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPM.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 15
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.72612E+01 2.81122E-03 2.81116E-03

Q

238

Friday 8th September, 2023 @ 14:00

VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
1.00000E+00 0.00000E+00
UP
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -1.62964E+01 2.81122E-03 2.81116E-03
!RSPHERE: 2.41195E-01
!RADIUS : 9.64780E-01
!ASPECT : 1.00000E+00
: 7.23585E-01
!NEAR
!FAR
: 1.44717E+00
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D7710600mapn.epx

D7710600MAPN
ECHO
!CONV win
CAST mesh
TRID ALE
EROS 1.0
!DIME ADAP NPOI 300000
CUVF 300000
!
!
NVFI 800000
DIME ADAP NPOI 600000
CUVF 600000
NVFI 1600000
Q4GS 10000
CL3D 10000
NPIN 10000

ENDA
JONC 218 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM

GEOM

Q4GS mems pinbcm
PMAT npincm
CUVF flui3d
T3GS fake
TUVF tubelp1
CL3D pre face3d
TUBM rac3d1d

TERM
COMP DIAM DROI 0.1692568 LECT tubelp1 TERM

RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM

TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 22 ’nrac3d1d’ LECT mesh1 rac3d1d TERM

COND XB GT -12.6952 COND XB LT -12.6948

’fcoup1’ LECT flui3d TERM

COND XB GT -16.405
COND XB LT -15.105

’S1’ LECT tube TERM COND NEAR POIN -0.345 0.15 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.15 0.15
’S3’ LECT tube TERM COND NEAR POIN 0.0 0.0 0.0
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

!

’tubelpp’ LECT tubelp1 DIFF epar1 TERM ! epar2 TERM

’memc1’ LECT mem1 TERM COND NEAR POIN -16.435 0 0
’memc1d’ LECT mem1 TERM COND CYLI X1 -16.505 Y1 0 Z1 0

X2 -16.305 Y2 0 Z2 0 R .15

’memc1b’ LECT mem1 DIFF memc1d TERM
’e4’ LECT flui3d TERM COND NEAR POIN -16.340 0.1655 0
’e3’ LECT flui3d TERM COND NEAR POIN -16.270 0.1655 0
’e2’ LECT flui3d TERM COND NEAR POIN -16.200 0.1655 0
’e1’ LECT flui3d TERM COND NEAR POIN -16.190 0.1655 0
’trigger’ LECT tube TERM COND NEAR POIN -0.70 0 0

NGRO 7 ’nmemi’ LECT mems TERM

COND CYLI X1 -20 Y1 0 Z1 0 X2 20 Y2 0 Z2 0 R 0.1650

’nmemo’ LECT mems DIFF nmemi TERM
’nsymy’ LECT mems TERM COND Y LT 0.001
’nsymz’ LECT mems TERM COND Z LT 0.001
’m1c’
’m2c’

LECT mem1 TERM COND NEAR POIN -16.335 0 0
LECT mem2 TERM COND NEAR POIN -16.265 0 0

!

’m3c’

LECT mem3 TERM COND NEAR POIN -16.195 0 0

’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0

EPAI 0.50E-3 LECT mems TERM
3.00E-3 LECT fake TERM

1.00E-3 LECT pinbcm TERM
5.00E-3 LECT npincm TERM ! Only for visualization

COUL TURQ LECT tube tra lp3xl TERM

VERT LECT fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM
GR50 LECT mems TERM
ROUG LECT fake TERM
JAUN LECT pre TERM
GR50 LECT pinbcm TERM
ROSE LECT S3 S1 S2 S5 S6 S11 S12 S15 S16 TERM

!
ADAP THRS ECRO 3 TMIN 0.01 TMAX 0.4 MAXL 2

DIAM DROI 0.1692568 LECT tubelp1 TERM

LECT mems TERM

GRIL LAGR LECT mems fake TERM
FONC 1 TABL 5 0.0

0.0
1.0E-3
1.0
2.999E-3 1.0
3.0E-3
0.0
100.0E-3 0.0

MATE

!LOI 1

VM23 RO 1380 YOUN 2757.9E6 NU 0.495 ELAS 100.E6 ! "Melinex/Mylar/

! PET" EPAI=0.5
! = Material 2

FAIL PEPR LIMI 1.0
TRAC 3 100.E6 0.03626

180.E6 1.5
230.E6 3.5

LECT mems _q4gs TERM

!LOI 2

GAZP RO 13.445 GAMM 1.4 CV 719.286 PINI 11.36E5 PREF 9.968E4

LECT none TERM

!LOI 3

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 4

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 5

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT flui3d _cuvf TERM

!LOI 6

!
!

IMPE PIMP PRES 13.723E5 PREF 1.011E5 FONC 1
IMPE PIMP PRES 12.98E5 PREF 0 FONC 1

IMPE PIMP PRES 4.20E5 PREF 0 FONC 1

LECT pre _cl3d TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT epar1 epar2 TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT rac3d1d tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 8 9 LECT tubelpp TERM
GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT _cuvf TERM

FANT 0.0

LECT fake TERM

VM23 RO 7850 YOUNG 2.1E11 NU 0.3 ELAS 1000E6 ! Elastic steel

TRAC 2 1000E6 0.0047619048

1100E6 5.1

LECT pinbcm TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT npincm TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1
!OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT nmemo TERM
BLOQ 123 LECT pinbcm TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT nsymy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT nsymz TERM

LINK DECO

PINB PENA SFAC 1.0

BODY

BODY

BODY

BODY

BODY

LECT mem1 TERM

LECT mem2 TERM

LECT mem3 TERM

LECT fake TERM

LECT npincm TERM

EXCL PAIR 1 3
EXCL PAIR 2 3

EXCL PAIR 3 4

EXCL PAIR 3 4
FLSW STRU LECT mems TERM

!
!

!

DMIN 0.003 ! #6

DMIN 0.003 ! #7

DMIN 0.003

! #8

MLEV 0

! #8

DIAM 5.E-3

FLUI LECT fcoup1 TERM
GAMM 1.1
DELE 1.1
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 3 SCAL 1.5

INIT SKIP UPTO 3.E-3 VFCC
ADAP IMAT TIME 3.E-3

2 MATE 2 OBJE LECT flui3d TERM

INSI SURF LECT mem1 TERM

MATE 3 OBJE LECT flui3d TERM

239

Friday 8th September, 2023 @ 14:00

OUTS SURF LECT mem1 TERM
INSI SURF LECT mem2 TERM

MATE 4 OBJE LECT flui3d TERM

!
!
!
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

OUTS SURF LECT mem2 TERM
INSI SURF LECT mem3 TERM

NOPO !POIN LECT cen TERM
ELEM LECT S1 TERM
FICH ALIC TEMP TFRE 10.e-6
! FICH ALIT FREQ 0 TFRE 0.D0

! TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.01D-3 110.D-3

!POIN LECT cen TERM
POIN LECT m1c m2c TERM
ELEM LECT S1 S2 S3 S5 S6 S11 S12 S15 S16 e1 e2 e3 e4 TERM

FICH SPLI ALIC FREQ 0 TFRE 1.D-3 ! 0.D0
!
!
FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 80.D-3

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 110.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA DTST

FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

TIME PROG 38.0E-3 TERM
TIME PROG 31.0E-3 TERM
TIME PROG 31.0E-3 PAS 0.5E-3 33.0E-3 TERM
TRIG ECRO 1 TSTO TVAL 1.02E5 LECT trigger TERM

!
!
!
!
!

!
!
!

OPTI NOTE CSTA 0.25

STEP IO
LOG 1
JAUM
LMST

! FANT 8.0E-3 LECT mems TERM !_q4gs TERM !fc is this OK?

VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
NTIL

ADAP RCON !TRIG ECRO 1 TVAL 1.02E5 LECT trigger TERM
PINS GRID DPIN 1.01
FLS CUB8 2 ! For the inverse mapping
QUAS STAT 1670 0.1 UPTO 3.0E-3 !fc is this OK ???

CALC TINI 0 TEND 40.0E-3
FIN

D7710600mapnw.epx

D7710600MAPNW
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPN.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM
TURQ LECT flui3d TERM

!

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
UP
1.00000E+00
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00
!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
!FAR
: 1.21900E+00
SCEN GEOM NAVI FREE
FACE SBAC
LINE SFRE

D7710600mapnx.epx

D7710600MAPNX
ECHO
!CONV WIN
RESU SPLI ALIC ’D7710600MAPN.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui3d tubelp1 TERM

COND LINE X1 -17.105 Y1 0 Z1 0

X2 -0.6

Y2 0 Z2 0 TOL 1.E-3

SORT GRAP
AXTE 1.0 ’Time [s]’
SCOU 1 ’p_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

SCOU 2 ’r_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

SCOU 3 ’v_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

RCOU 11 ’p_trig’ FICH ’D7710600MAPDX.pun’ RENA ’p_d_trig’
RCOU 12 ’r_trig’ FICH ’D7710600MAPDX.pun’ RENA ’r_d_trig’
RCOU 13 ’v_trig’ FICH ’D7710600MAPDX.pun’ RENA ’v_d_trig’
RCOU 21 ’p_trig’ FICH ’D7710600MAPEX.pun’ RENA ’p_e_trig’
RCOU 22 ’r_trig’ FICH ’D7710600MAPEX.pun’ RENA ’r_e_trig’
RCOU 23 ’v_trig’ FICH ’D7710600MAPEX.pun’ RENA ’v_e_trig’
RCOU 31 ’p_trig’ FICH ’D7710600MAPJX.pun’ RENA ’p_j_trig’
RCOU 32 ’r_trig’ FICH ’D7710600MAPJX.pun’ RENA ’r_j_trig’
RCOU 33 ’v_trig’ FICH ’D7710600MAPJX.pun’ RENA ’v_j_trig’
TRAC 1 11 21 31 AXES 1.0 ’PRESS. [Pa]’
COLO TURQ VERT ROUG NOIR
TRAC 2 12 22 32 AXES 1.0 ’DENS. [kg/m3]’
COLO TURQ VERT ROUG NOIR
TRAC 3 13 23 33 AXES 1.0 ’VELO. [m/s]’
COLO TURQ VERT ROUG NOIR
!
TRAC 1 AXES 1.0 ’PRESS. [Pa]’
TRAC 2 AXES 1.0 ’DENS. [kg/m3]’
TRAC 3 AXES 1.0 ’VELO. [m/s]’
LIST 1 AXES 1.0 ’PRESS. [Pa]’
LIST 2 AXES 1.0 ’DENS. [kg/m3]’
LIST 3 AXES 1.0 ’VELO. [m/s]’
FIN

D7710600mapny.epx

D7710600MAPNY
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPN.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 9
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.72612E+01 2.81122E-03 2.81116E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -1.62964E+01 2.81122E-03 2.81116E-03
!RSPHERE: 2.41195E-01
!RADIUS : 9.64780E-01
!ASPECT : 1.00000E+00
: 7.23585E-01
!NEAR
!FAR
: 1.44717E+00
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.E5 PAS 0.5E5 7.5E5 TERM

TRAC DEFO AMPD 0.0

SUPP LECT flui3d TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 25
GO
TRAC DEFO AMPD 0.0

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

OFFS SIZE 600 600 FICH BMP

GOTR LOOP 33 OFFS SIZE 800 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D7710600MAPN.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D7710600mapnzz.epx

D7710600MAPNZZ
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPN.ali’ GARD PSCR

240

Friday 8th September, 2023 @ 14:00

COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
UP
1.00000E+00
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00
!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
!FAR
: 1.21900E+00
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm TERM SYXY TOLS 1.E-3 NFAI REND

GOTR LOOP 33 OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm TERM SYXY TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D7710600MAPN.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 10 KFRE 10 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D7710600mapo.epx

D7710600MAPO
ECHO
!CONV win
CAST mesh
TRID ALE
EROS 1.0
DIME ADAP NPOI 4000000
CUVF 4000000
NVFI 10000000
Q4GS 10000
CL3D 10000
NPIN 10000

ENDA
JONC 218 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM

GEOM

Q4GS mems pinbcm
PMAT npincm
CUVF flui3d
T3GS fake
TUVF tubelp1
CL3D pre face3d
TUBM rac3d1d

TERM
COMP DIAM DROI 0.1692568 LECT tubelp1 TERM

RACC TUBM LECT rac3d1d
NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM

TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 22 ’nrac3d1d’ LECT mesh1 rac3d1d TERM

COND XB GT -12.6952 COND XB LT -12.6948

’fcoup1’ LECT flui3d TERM

COND XB GT -16.405
COND XB LT -15.105

’S1’ LECT tube TERM COND NEAR POIN -0.345 0.15 0.15
’S2’ LECT tube TERM COND NEAR POIN -0.245 0.15 0.15
’S3’ LECT tube TERM COND NEAR POIN 0.0 0.0 0.0
’S16’ LECT flui3d TERM COND NEAR POIN -15.225 0 0.15
’S15’ LECT flui3d TERM COND NEAR POIN -15.125 0 0.15
’S12’ LECT tube TERM COND NEAR POIN -12.495 0 0.15
’S11’ LECT tube TERM COND NEAR POIN -12.395 0 0.15
’S6’ LECT tube TERM COND NEAR POIN -5.685 0 0.15
’S5’ LECT tube TERM COND NEAR POIN -5.585 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

!

’tubelpp’ LECT tubelp1 DIFF epar1 TERM ! epar2 TERM

’memc1’ LECT mem1 TERM COND NEAR POIN -16.435 0 0
’memc1d’ LECT mem1 TERM COND CYLI X1 -16.505 Y1 0 Z1 0

X2 -16.305 Y2 0 Z2 0 R .15

’memc1b’ LECT mem1 DIFF memc1d TERM
’e4’ LECT flui3d TERM COND NEAR POIN -16.340 0.1655 0
’e3’ LECT flui3d TERM COND NEAR POIN -16.270 0.1655 0
’e2’ LECT flui3d TERM COND NEAR POIN -16.200 0.1655 0
’e1’ LECT flui3d TERM COND NEAR POIN -16.190 0.1655 0
’trigger’ LECT tube TERM COND NEAR POIN -0.70 0 0

NGRO 7 ’nmemi’ LECT mems TERM

COND CYLI X1 -20 Y1 0 Z1 0 X2 20 Y2 0 Z2 0 R 0.1650

’nmemo’ LECT mems DIFF nmemi TERM
’nsymy’ LECT mems TERM COND Y LT 0.001
’nsymz’ LECT mems TERM COND Z LT 0.001
’m1c’
’m2c’

LECT mem1 TERM COND NEAR POIN -16.335 0 0
LECT mem2 TERM COND NEAR POIN -16.265 0 0

!

’m3c’

LECT mem3 TERM COND NEAR POIN -16.195 0 0

’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0

EPAI 0.50E-3 LECT mems TERM
3.00E-3 LECT fake TERM
1.00E-3 LECT pinbcm TERM
5.00E-3 LECT npincm TERM ! Only for visualization

DERO DISP 1.230 LECT mem1 TERM
DISP 1.160 LECT mem2 TERM
COUL TURQ LECT tube tra lp3xl TERM

VERT LECT fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM
GR50 LECT mems TERM
ROUG LECT fake TERM
JAUN LECT pre TERM
GR50 LECT pinbcm TERM
ROSE LECT S3 S1 S2 S5 S6 S11 S12 S15 S16 TERM

!
ADAP THRS ECRO 3 TMIN 0.01 TMAX 0.4 MAXL 3

DIAM DROI 0.1692568 LECT tubelp1 TERM

LECT mems TERM

GRIL LAGR LECT mems fake TERM
FONC 1 TABL 5 0.0

0.0
1.0E-3
1.0
2.999E-3 1.0
0.0
3.0E-3
100.0E-3 0.0

MATE

!LOI 1

VM23 RO 1380 YOUN 2757.9E6 NU 0.495 ELAS 100.E6 ! "Melinex/Mylar/

! PET" EPAI=0.5
! = Material 2

FAIL PEPR LIMI 1.0
TRAC 3 100.E6 0.03626

180.E6 1.5
230.E6 3.5

LECT mems _q4gs TERM

!LOI 2

GAZP RO 13.445 GAMM 1.4 CV 719.286 PINI 11.36E5 PREF 9.968E4

LECT none TERM

!LOI 3

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 4

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 5

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT flui3d _cuvf TERM

!LOI 6

!
!

IMPE PIMP PRES 13.723E5 PREF 1.011E5 FONC 1
IMPE PIMP PRES 12.98E5 PREF 0 FONC 1

IMPE PIMP PRES 4.20E5 PREF 0 FONC 1

LECT pre _cl3d TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT epar1 epar2 TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT rac3d1d tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 8 9 LECT tubelpp TERM
GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT _cuvf TERM

FANT 0.0

LECT fake TERM

VM23 RO 7850 YOUNG 2.1E11 NU 0.3 ELAS 1000E6 ! Elastic steel

TRAC 2 1000E6 0.0047619048

1100E6 5.1

LECT pinbcm TERM

MASS 0.0 YOUN 2.1E11 NU 0.33

LECT npincm TERM

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1
!OPTI PINS ASN
LINK COUP SPLT NONE

BLOQ 123 LECT nmemo TERM
BLOQ 123 LECT pinbcm TERM
CONT SPLA NX 0 NY 1 NZ 0 LECT nsymy TERM
CONT SPLA NX 0 NY 0 NZ 1 LECT nsymz TERM

LINK DECO

PINB PENA SFAC 1.0

BODY

BODY

BODY

BODY

LECT mem1 TERM

LECT mem2 TERM

LECT mem3 TERM

LECT fake TERM

DMIN 0.003 ! #6

DMIN 0.003 ! #7

DMIN 0.003

! #8

MLEV 0

! #8

!
!

241

Friday 8th September, 2023 @ 14:00

BODY

LECT npincm TERM

EXCL PAIR 1 3
EXCL PAIR 2 3

EXCL PAIR 3 4

EXCL PAIR 3 4
FLSW STRU LECT mems TERM

!

DIAM 5.E-3

FLUI LECT fcoup1 TERM
GAMM 1.1
DELE 1.1
DGRI
FACE
BFLU 2 ! block if at least one node is in influence domain
FSCP 1 ! couple in all directions
ADAP LMAX 4 SCAL 1.2

INIT SKIP UPTO 3.E-3 VFCC
ADAP IMAT TIME 3.E-3

2 MATE 2 OBJE LECT flui3d TERM

INSI SURF LECT mem1 TERM

MATE 3 OBJE LECT flui3d TERM

OUTS SURF LECT mem1 TERM
INSI SURF LECT mem2 TERM

MATE 4 OBJE LECT flui3d TERM

!
!
!
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3

OUTS SURF LECT mem2 TERM
INSI SURF LECT mem3 TERM

NOPO !POIN LECT cen TERM
ELEM LECT S1 TERM
FICH ALIC TEMP TFRE 10.e-6
! FICH ALIT FREQ 0 TFRE 0.D0

! TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.01D-3 110.D-3

!POIN LECT cen TERM
POIN LECT m1c m2c TERM
ELEM LECT S1 S2 S3 S5 S6 S11 S12 S15 S16 e1 e2 e3 e4 TERM

FICH SPLI ALIC FREQ 0 TFRE 1.D-3 ! 0.D0
!
!
FICH PVTK FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 80.D-3

TIME PROG 0.D0 PAS 0.5D-3 28.D-3 PAS 0.1D-3 50.D-3
PAS 2.D-3 110.D-3
GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA DTST

FICH FORM MAPP OBJE LECT flui3d tubelp1 TERM

TIME PROG 38.0E-3 TERM
TIME PROG 31.0E-3 TERM
TIME PROG 31.0E-3 PAS 0.5E-3 33.0E-3 TERM
TRIG ECRO 1 TSTO TVAL 1.02E5 LECT trigger TERM

!
!
!
!
!

!
!
!

OPTI NOTE CSTA 0.25

STEP IO
LOG 1
JAUM
LMST

! FANT 8.0E-3 LECT mems TERM !_q4gs TERM !fc is this OK?

VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1 ! Not accepted by CAL_VFCC_1D
NTIL

ADAP RCON !TRIG ECRO 1 TVAL 1.02E5 LECT trigger TERM
PINS GRID DPIN 1.01
FLS CUB8 2 ! For the inverse mapping
QUAS STAT 1670 0.1 UPTO 3.0E-3 !fc is this OK ???

CALC TINI 0 TEND 40.0E-3
FIN

D7710600mapov.epx

D7710600MAPOV
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPO.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM
TURQ LECT flui3d TERM

!

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
UP
1.00000E+00
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00
!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
: 1.21900E+00
!FAR
SCEN GEOM NAVI FREE
FACE SBAC
LINE SFRE

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

GOTR LOOP 33 OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D7710600MAPO.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 10 KFRE 10 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D7710600mapow.epx

D7710600MAPOW
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPO.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM
TURQ LECT flui3d TERM

!

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
1.00000E+00
UP
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00
!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
!FAR
: 1.21900E+00
SCEN GEOM NAVI FREE
FACE SBAC
LINE SFRE

ISO FILL FIEL ECRO 1 SCAL USER PROG 1.E5 PAS 0.5E5 7.5E5 TERM

SUPP LECT flui3d TERM

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

GOTR LOOP 33 OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm flui3d TERM SYXY TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D7710600MAPO.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 5 KFRE 5 COMP -1 REND
ENDPLAY
*=================================================================
FIN

D7710600mapox.epx

D7710600MAPOX
ECHO
!CONV WIN
RESU SPLI ALIC ’D7710600MAPO.ali’ GARD PSCR
COMP NGRO 1 ’xaxo’ LECT flui3d tubelp1 TERM

COND LINE X1 -17.105 Y1 0 Z1 0

X2 -0.6

Y2 0 Z2 0 TOL 1.E-3

SORT GRAP
AXTE 1.0 ’Time [s]’
SCOU 1 ’p_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 1
SUPP LECT flui3d tubelp1 TERM

SCOU 2 ’r_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

ECRO COMP 2
SUPP LECT flui3d tubelp1 TERM

SCOU 3 ’v_trig’ NSTO 34 SAXE 1.0 ’Abscissa’ INIT LECT xaxo TERM

VCVI COMP 1
SUPP LECT flui3d tubelp1 TERM

RCOU 11 ’p_trig’ FICH ’D7710600MAPDX.pun’ RENA ’p_d_trig’
RCOU 12 ’r_trig’ FICH ’D7710600MAPDX.pun’ RENA ’r_d_trig’
RCOU 13 ’v_trig’ FICH ’D7710600MAPDX.pun’ RENA ’v_d_trig’
RCOU 21 ’p_trig’ FICH ’D7710600MAPEX.pun’ RENA ’p_e_trig’
RCOU 22 ’r_trig’ FICH ’D7710600MAPEX.pun’ RENA ’r_e_trig’
RCOU 23 ’v_trig’ FICH ’D7710600MAPEX.pun’ RENA ’v_e_trig’
RCOU 31 ’p_trig’ FICH ’D7710600MAPJX.pun’ RENA ’p_j_trig’
RCOU 32 ’r_trig’ FICH ’D7710600MAPJX.pun’ RENA ’r_j_trig’

242

Friday 8th September, 2023 @ 14:00

RCOU 33 ’v_trig’ FICH ’D7710600MAPJX.pun’ RENA ’v_j_trig’
TRAC 1 11 21 31 AXES 1.0 ’PRESS. [Pa]’
COLO TURQ VERT ROUG NOIR
TRAC 2 12 22 32 AXES 1.0 ’DENS. [kg/m3]’
COLO TURQ VERT ROUG NOIR
TRAC 3 13 23 33 AXES 1.0 ’VELO. [m/s]’
COLO TURQ VERT ROUG NOIR
!
TRAC 1 AXES 1.0 ’PRESS. [Pa]’
TRAC 2 AXES 1.0 ’DENS. [kg/m3]’
TRAC 3 AXES 1.0 ’VELO. [m/s]’
LIST 1 AXES 1.0 ’PRESS. [Pa]’
LIST 2 AXES 1.0 ’DENS. [kg/m3]’
LIST 3 AXES 1.0 ’VELO. [m/s]’
FIN

D7710600mapoy.epx

D7710600MAPOY
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPO.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 9
*=======================================================================
PLAY
CAME
!

7.07107E-01 0.00000E+00 -7.07107E-01 0.00000E+00

1 EYE -1.72612E+01 2.81122E-03 2.81116E-03

Q
VIEW 1.00000E+00 0.00000E+00 2.05103E-10
RIGH -2.05103E-10 0.00000E+00 1.00000E+00
UP
1.00000E+00 0.00000E+00
FOV

0.00000E+00
2.48819E+01

!NAVIGATION MODE: ROTATING CAMERA
!CENTER : -1.62964E+01 2.81122E-03 2.81116E-03
!RSPHERE: 2.41195E-01
!RADIUS : 9.64780E-01
!ASPECT : 1.00000E+00
: 7.23585E-01
!NEAR
: 1.44717E+00
!FAR
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

FREQ 25
GO
TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem1 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

TRAC DEFO AMPD 0.0

OFFS SIZE 600 600 FICH BMP

OBJE LECT mem2 pinbcm TERM SYXY SYXZ TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
FIN

D7710600mapozz.epx

D7710600MAPOZZ
ECHO

CONV WIN

RESU SPLI ALIC ’D7710600MAPO.ali’ GARD PSCR
COMP COUL ROUG LECT mem1 TERM
VERT LECT mem2 TERM
TURQ LECT mem3 TERM
GR50 LECT pinbcm TERM

!

*=======================================================================
SORT VISU NSTO 1
*=======================================================================
PLAY
CAME
!

6.95266E-01 6.95266E-01 -1.28860E-01 -1.28860E-01

1 EYE -1.64954E+01 -9.15031E-01

2.02341E-03

Q
VIEW 3.58368E-01 9.33580E-01 1.91478E-10
RIGH 9.33580E-01 -3.58368E-01 -7.35028E-11
1.00000E+00
UP
FOV

3.05311E-16 -2.05101E-10
2.48819E+01

!NAVIGATION MODE: FREE CAMERA
!CENTER : -1.62650E+01 8.28568E-02 2.02341E-03
!RSPHERE: 2.04827E-01
!RADIUS : 1.02414E+00
!ASPECT : 1.33333E+00
: 8.09342E-01
!NEAR
!FAR
: 1.21900E+00
SCEN GEOM NAVI FREE
FACE SBAC

LIMA ON
SLER CAM1 1 NFRA 1
FREQ 1
TRAC OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm TERM SYXY TOLS 1.E-3 NFAI REND

GOTR LOOP 33 OFFS SIZE 800 600 FICH BMP

OBJE LECT mems pinbcm TERM SYXY TOLS 1.E-3 NFAI REND

ENDPLAY
*=======================================================================
SUIT
Post-treatment (make avi file from bitmaps)
ECHO
RESU SPLI ALIC ’D7710600MAPO.ali’ GARD PSCR
*=================================================================
SORT VISU NSTO 1
*=================================================================
PLAY
MAVI FPS 10 KFRE 10 COMP -1 REND
ENDPLAY
*=================================================================
FIN

dero00.epx

DERO00
ECHO
!CONV WIN
EROS 1.0
LAGR DPLA
GEOM LIBR POIN 12 Q41L 5 TERM

4 0 5 0
4 1 5 1

1 0 2 0 3 0
1 1 2 1 3 1

0 0
0 1
1 2 8 7
2 3 9 8
3 4 10 9
4 5 11 10
5 6 12 11

COMP EPAI 1. LECT tous TERM

DERO DISP 0.1 LECT 4 5 TERM
DISP 0.2 LECT 2 3 TERM

MATE VM23 RO 8000. YOUN 2.D8 NU 0.3 ELAS 2.D8

TRAC 1 2.D8 1.0
LECT tous TERM

INIT VITE 1 10 LECT tous TERM
ECRI FREQ 100
OPTI PAS AUTO NOTE LOG 1
CALC TINI 0. TEND 0.03D0
FIN

dero01.epx

DERO01
ECHO
!CONV WIN
EROS 1.0
LAGR DPLA
DIME ADAP NPOI 10 Q41l 8 ENDA TERM
GEOM LIBR POIN 12 Q41L 5 TERM

4 0 5 0
4 1 5 1

1 0 2 0 3 0
1 1 2 1 3 1

0 0
0 1
1 2 8 7
2 3 9 8
3 4 10 9
4 5 11 10
5 6 12 11

COMP EPAI 1. LECT 1 PAS 1 5 TERM
DERO DISP 0.1 LECT 4 5 TERM
DISP 0.2 LECT 2 3 TERM

MATE VM23 RO 8000. YOUN 2.D8 NU 0.3 ELAS 2.D8

TRAC 1 2.D8 1.0
LECT 1 PAS 1 5 TERM

LINK COUP
INIT VITE 1 10.0 LECT 1 PAS 1 12 TERM

ADAP SPLI LEVE 2 LECT 3 5 TERM

ECRI FREQ 100
OPTI PAS AUTO NOTE LOG 1
CALC TINI 0. TEND 0.03D0
FIN

dero02.epx

DERO02
ECHO
!CONV WIN
EROS 1.0
LAGR TRID
DIME ADAP NPOI 10 Q4GS 8 ENDA TERM
GEOM LIBR POIN 12 Q4GS 5 TERM

2 0 0
2 1 0

3 0 0
3 1 0

4 0 0
4 1 0

5 0 0
5 1 0

1 0 0
1 1 0

0 0 0
0 1 0
1 2 8 7
2 3 9 8
3 4 10 9
4 5 11 10
5 6 12 11

COMP EPAI 1. LECT 1 PAS 1 5 TERM
DERO DISP 0.1 LECT 4 5 TERM
DISP 0.2 LECT 2 3 TERM

MATE LINE RO 8000. YOUN 2.D8 NU 0.3 ! ELAS 2.D8

! TRAC 1 2.D8 1.0

LECT 1 PAS 1 5 TERM

243

Friday 8th September, 2023 @ 14:00

COUR 17 ’vmax’ ADDC 7 1.0
TRAC 17 AXES 1.0 ’VMAX [M/S]’ YLOG YZER XGRD YGRD
LIST 17 AXES 1.0 ’VMAX [M/S]’ YZER XGRD YGRD
*=================================================================
FIN

log2plot mapf.epx

LOG2PLOT_MAPF
ECHO
*CONV WIN
LAGR CPLA
GEOM LIBR POIN 4 CAR1 1 TERM
1 0 1 1 0 1

0 0
1 2 3 4

MATE LINE RO 8000. YOUN 1.D11 NU 0.3

LINK COUP
INIT VITE 1 10.0 LECT 1 PAS 1 12 TERM

ADAP SPLI LEVE 2 LECT 3 5 TERM

ECRI FAIL FREQ 100
OPTI PAS AUTO NOTE LOG 1
CALC TINI 0. TEND 0.03D0
FIN

dero03.epx

DERO03
ECHO
!CONV WIN
EROS 1.0
LAGR TRID
DIME ADAP NPOI 10 Q4GS 8 CL3D 8 ENDA TERM
GEOM LIBR POIN 12 Q4GS 5 CL3D 5 TERM
2 0 0
2 1 0

4 0 0
4 1 0

3 0 0
3 1 0

5 0 0
5 1 0

0 0 0 1 0 0
0 1 0 1 1 0
1 2 8 7
2 3 9 8
3 4 10 9
4 5 11 10
5 6 12 11
1 2 8 7
2 3 9 8
3 4 10 9
4 5 11 10
5 6 12 11

COMP EPAI 1. LECT 1 PAS 1 5 TERM
DERO DISP 0.1 LECT 4 5 TERM
DISP 0.2 LECT 2 3 TERM

MATE LINE RO 8000. YOUN 2.D8 NU 0.3 ! ELAS 2.D8

! TRAC 1 2.D8 1.0

LECT 1 PAS 1 5 TERM

IMPE PIMP PRES 0.0 LECT 6 PAS 1 10 TERM

LINK COUP
INIT VITE 1 10.0 LECT 1 PAS 1 12 TERM

ADAP SPLI LEVE 2 LECT 3 5 TERM

ECRI FAIL FREQ 100
OPTI PAS AUTO NOTE LOG 1
CALC TINI 0. TEND 0.03D0
FIN

log2plot mape.epx

LOG2PLOT_MAPE
ECHO
*CONV WIN
LAGR CPLA
GEOM LIBR POIN 4 CAR1 1 TERM
1 0 1 1 0 1

0 0
1 2 3 4

MATE LINE RO 8000. YOUN 1.D11 NU 0.3

LECT 1 TERM
ECRI FICH ALIC FREQ 1
CALC TINI 0.0 TEND 1.0 NMAX 0
*=================================================================
SUIT
Post-treatment
ECHO
RESU ALIC GARD PSCR
SORT GRAP
AXTE 1.0 ’Time [s]’
FICH ’D7710600MAPE.log.pun’
RCOU 1 ’cpu’
FICH ’D7710600MAPE.log.pun’
RCOU 2 ’dtcrit’
FICH ’D7710600MAPE.log.pun’
RCOU 3 ’dee’
FICH ’D7710600MAPE.log.pun’
RCOU 4 ’dmmn’
FICH ’D7710600MAPE.log.pun’
RCOU 5 ’dmme’
FICH ’D7710600MAPE.log.pun’
RCOU 6 ’dtmx’
FICH ’D7710600MAPE.log.pun’
RCOU 7 ’vitmax’
RCOU 8 ’memory’
FICH ’D7710600MAPE.log.pun’
RCOU 9 ’mempeak’ FICH ’D7710600MAPE.log.pun’
RCOU 10 ’cpupstep’ FICH ’D7710600MAPE.log.pun’
TRAC 1 AXES 1.0 ’CPU [S]’ YZER XGRD YGRD
TRAC 2 AXES 1.0 ’DTCRIT [S]’ YZER XGRD YGRD
TRAC 3 AXES 1.0 ’DEE [-]’ YZER XGRD YGRD
TRAC 4 AXES 1.0 ’DMMN [-]’ YZER XGRD YGRD
TRAC 5 AXES 1.0 ’DMME [-]’ YZER XGRD YGRD
TRAC 6 AXES 1.0 ’DTMX [S]’ YZER XGRD YGRD
TRAC 7 AXES 1.0 ’VITMAX [M/S]’ YZER XGRD YGRD
TRAC 8 AXES 1.0 ’MEMORY [BYTE]’ YZER XGRD YGRD
TRAC 9 AXES 1.0 ’MEMPEAK [BYTE]’ YZER XGRD YGRD
TRAC 10 AXES 1.0 ’CPUPSTEP [S]’ YZER XGRD YGRD
TRAC 8 9 AXES 1.0 ’MEM [BYTE]’ YZER XGRD YGRD
COLO NOIR ROUG
TRAC 2 AXES 1.0 ’DTCRIT [S]’ YLOG YZER XGRD YGRD
LIST 1 AXES 1.0 ’CPU [S]’ YZER XGRD YGRD
LIST 2 AXES 1.0 ’DTCRIT [S]’ YZER XGRD YGRD
LIST 3 AXES 1.0 ’DEE [-]’ YZER XGRD YGRD
LIST 4 AXES 1.0 ’DMMN [-]’ YZER XGRD YGRD
LIST 5 AXES 1.0 ’DMME [-]’ YZER XGRD YGRD
LIST 6 AXES 1.0 ’DTMX [S]’ YZER XGRD YGRD
LIST 7 AXES 1.0 ’VITMAX [M/S]’ YZER XGRD YGRD
LIST 8 AXES 1.0 ’MEMORY [BYTE]’ YZER XGRD YGRD
LIST 9 AXES 1.0 ’MEMPEAK [BYTE]’ YZER XGRD YGRD
LIST 10 AXES 1.0 ’CPUPSTEP [S]’ YZER XGRD YGRD
*

XMIN 0.0 XMAX 14.4E-4 DX 2.E-4

XMIN 0.0 XMAX 14.4E-4 DX 2.E-4

XMIN 0.0 XMAX 14.4E-4 DX 2.E-4

XMIN 0.0 XMAX 14.4E-4 DX 2.E-4

XMIN 0.0 XMAX 14.4E-4 DX 2.E-4

LECT 1 TERM
ECRI FICH ALIC FREQ 1
CALC TINI 0.0 TEND 1.0 NMAX 0
*=================================================================
SUIT
Post-treatment
ECHO
RESU ALIC GARD PSCR
SORT GRAP
AXTE 1.0 ’Time [s]’
FICH ’D7710600MAPF.log.pun’
RCOU 1 ’cpu’
FICH ’D7710600MAPF.log.pun’
RCOU 2 ’dtcrit’
FICH ’D7710600MAPF.log.pun’
RCOU 3 ’dee’
FICH ’D7710600MAPF.log.pun’
RCOU 4 ’dmmn’
FICH ’D7710600MAPF.log.pun’
RCOU 5 ’dmme’
FICH ’D7710600MAPF.log.pun’
RCOU 6 ’dtmx’
FICH ’D7710600MAPF.log.pun’
RCOU 7 ’vitmax’
RCOU 8 ’memory’
FICH ’D7710600MAPF.log.pun’
RCOU 9 ’mempeak’ FICH ’D7710600MAPF.log.pun’
TRAC 1 AXES 1.0 ’CPU [S]’ YZER XGRD YGRD
!
TRAC 2 AXES 1.0 ’DTCRIT [S]’ YZER XGRD YGRD
!
TRAC 3 AXES 1.0 ’DEE [-]’ YZER XGRD YGRD
!
TRAC 4 AXES 1.0 ’DMMN [-]’ YZER XGRD YGRD
!
TRAC 5 AXES 1.0 ’DMME [-]’ YZER XGRD YGRD
!
TRAC 6 AXES 1.0 ’DTMX [S]’ YZER XGRD YGRD
!
XMIN 0.0 XMAX 14.4E-4 DX 2.E-4
TRAC 7 AXES 1.0 ’VITMAX [M/S]’ YZER XGRD YGRD
!
XMIN 0.0 XMAX 14.4E-4 DX 2.E-4
TRAC 8 AXES 1.0 ’MEMORY [BYTE]’ YZER XGRD YGRD
!
XMIN 0.0 XMAX 14.4E-4 DX 2.E-4
TRAC 9 AXES 1.0 ’MEMPEAK [BYTE]’ YZER XGRD YGRD
!
XMIN 0.0 XMAX 14.4E-4 DX 2.E-4
TRAC 8 9 AXES 1.0 ’MEM [BYTE]’ YZER XGRD YGRD
COLO NOIR ROUG
TRAC 2 AXES 1.0 ’DTCRIT [S]’ YLOG YZER XGRD YGRD
!
LIST 1 AXES 1.0 ’CPU [S]’ YZER XGRD YGRD
LIST 2 AXES 1.0 ’DTCRIT [S]’ YZER XGRD YGRD
LIST 3 AXES 1.0 ’DEE [-]’ YZER XGRD YGRD
LIST 4 AXES 1.0 ’DMMN [-]’ YZER XGRD YGRD
LIST 5 AXES 1.0 ’DMME [-]’ YZER XGRD YGRD
LIST 6 AXES 1.0 ’DTMX [S]’ YZER XGRD YGRD
LIST 7 AXES 1.0 ’VITMAX [M/S]’ YZER XGRD YGRD
LIST 8 AXES 1.0 ’MEMORY [BYTE]’ YZER XGRD YGRD
LIST 9 AXES 1.0 ’MEMPEAK [BYTE]’ YZER XGRD YGRD
*
COUR 17 ’vmax’ ADDC 7 1.0
TRAC 17 AXES 1.0 ’VMAX [M/S]’ YLOG YZER XGRD YGRD
LIST 17 AXES 1.0 ’VMAX [M/S]’ YZER XGRD YGRD
*
RCOU 101 ’cpu’
RCOU 102 ’dtcrit’ FICH ’log2plot_mape.pun’ RENA ’dtcrit_e’
RCOU 107 ’vitmax’ FICH ’log2plot_mape.pun’ RENA ’vitmax_e’
COUR 117 ’vmax_e’ ADDC 107 1.0
TRAC 1 101 AXES 1.0 ’CPU [S]’ YZER XGRD YGRD
COLO NOIR ROUG
TRAC 2 102 AXES 1.0 ’DTCRIT [S]’ YZER XGRD YGRD
COLO NOIR ROUG
TRAC 2 102 AXES 1.0 ’DTCRIT [S]’ YLOG YZER XGRD YGRD
COLO NOIR ROUG
TRAC 17 117 AXES 1.0 ’VMAX [M/S]’ YLOG YZER XGRD YGRD
COLO NOIR ROUG
*=================================================================
FIN

FICH ’log2plot_mape.pun’ RENA ’cpu_e’

XMIN 0.0 XMAX 14.4E-4 DX 2.E-4

log2plot mapj.epx

LOG2PLOT_MAPJ
ECHO
*CONV WIN
LAGR CPLA
GEOM LIBR POIN 4 CAR1 1 TERM
1 0 1 1 0 1

0 0
1 2 3 4

MATE LINE RO 8000. YOUN 1.D11 NU 0.3

LECT 1 TERM
ECRI FICH ALIC FREQ 1
CALC TINI 0.0 TEND 1.0 NMAX 0
*=================================================================
SUIT

244

Friday 8th September, 2023 @ 14:00

Post-treatment
ECHO
RESU ALIC GARD PSCR
SORT GRAP
AXTE 1.0 ’Time [s]’
FICH ’D7710600MAPJ.log.pun’
RCOU 1 ’cpu’
FICH ’D7710600MAPJ.log.pun’
RCOU 2 ’dtcrit’
FICH ’D7710600MAPJ.log.pun’
RCOU 3 ’dee’
FICH ’D7710600MAPJ.log.pun’
RCOU 4 ’dmmn’
FICH ’D7710600MAPJ.log.pun’
RCOU 5 ’dmme’
FICH ’D7710600MAPJ.log.pun’
RCOU 6 ’dtmx’
FICH ’D7710600MAPJ.log.pun’
RCOU 7 ’vitmax’
RCOU 8 ’memory’
FICH ’D7710600MAPJ.log.pun’
RCOU 9 ’mempeak’ FICH ’D7710600MAPJ.log.pun’
TRAC 1 AXES 1.0 ’CPU [S]’ YZER XGRD YGRD
TRAC 2 AXES 1.0 ’DTCRIT [S]’ YZER XGRD YGRD
TRAC 3 AXES 1.0 ’DEE [-]’ YZER XGRD YGRD
TRAC 4 AXES 1.0 ’DMMN [-]’ YZER XGRD YGRD
TRAC 5 AXES 1.0 ’DMME [-]’ YZER XGRD YGRD
TRAC 6 AXES 1.0 ’DTMX [S]’ YZER XGRD YGRD
TRAC 7 AXES 1.0 ’VITMAX [M/S]’ YZER XGRD YGRD
TRAC 8 AXES 1.0 ’MEMORY [BYTE]’ YZER XGRD YGRD
TRAC 9 AXES 1.0 ’MEMPEAK [BYTE]’ YZER XGRD YGRD
TRAC 8 9 AXES 1.0 ’MEM [BYTE]’ YZER XGRD YGRD
COLO NOIR ROUG
TRAC 2 AXES 1.0 ’DTCRIT [S]’ YLOG YZER XGRD YGRD
LIST 1 AXES 1.0 ’CPU [S]’ YZER XGRD YGRD
LIST 2 AXES 1.0 ’DTCRIT [S]’ YZER XGRD YGRD
LIST 3 AXES 1.0 ’DEE [-]’ YZER XGRD YGRD
LIST 4 AXES 1.0 ’DMMN [-]’ YZER XGRD YGRD
LIST 5 AXES 1.0 ’DMME [-]’ YZER XGRD YGRD
LIST 6 AXES 1.0 ’DTMX [S]’ YZER XGRD YGRD
LIST 7 AXES 1.0 ’VITMAX [M/S]’ YZER XGRD YGRD
LIST 8 AXES 1.0 ’MEMORY [BYTE]’ YZER XGRD YGRD
LIST 9 AXES 1.0 ’MEMPEAK [BYTE]’ YZER XGRD YGRD
*
COUR 17 ’vmax’ ADDC 7 1.0
TRAC 17 AXES 1.0 ’VMAX [M/S]’ YLOG YZER XGRD YGRD
LIST 17 AXES 1.0 ’VMAX [M/S]’ YZER XGRD YGRD
*=================================================================
FIN

log2plot mapk.epx

LOG2PLOT_MAPK
ECHO
*CONV WIN
LAGR CPLA
GEOM LIBR POIN 4 CAR1 1 TERM
1 0 1 1 0 1

0 0
1 2 3 4

MATE LINE RO 8000. YOUN 1.D11 NU 0.3

XMIN 0.0 XMAX 14.4E-4 DX 2.E-4

XMIN 0.0 XMAX 14.4E-4 DX 2.E-4

LECT 1 TERM
ECRI FICH ALIC FREQ 1
CALC TINI 0.0 TEND 1.0 NMAX 0
*=================================================================
SUIT
Post-treatment
ECHO
RESU ALIC GARD PSCR
SORT GRAP
AXTE 1.0 ’Time [s]’
FICH ’D7710600MAPK.log.pun’
RCOU 1 ’cpu’
FICH ’D7710600MAPK.log.pun’
RCOU 2 ’dtcrit’
FICH ’D7710600MAPK.log.pun’
RCOU 3 ’dee’
FICH ’D7710600MAPK.log.pun’
RCOU 4 ’dmmn’
FICH ’D7710600MAPK.log.pun’
RCOU 5 ’dmme’
FICH ’D7710600MAPK.log.pun’
RCOU 6 ’dtmx’
FICH ’D7710600MAPK.log.pun’
RCOU 7 ’vitmax’
RCOU 8 ’memory’
FICH ’D7710600MAPK.log.pun’
RCOU 9 ’mempeak’ FICH ’D7710600MAPK.log.pun’
TRAC 1 AXES 1.0 ’CPU [S]’ YZER XGRD YGRD
!
TRAC 2 AXES 1.0 ’DTCRIT [S]’ YZER XGRD YGRD
!
TRAC 3 AXES 1.0 ’DEE [-]’ YZER XGRD YGRD
!
TRAC 4 AXES 1.0 ’DMMN [-]’ YZER XGRD YGRD
!
TRAC 5 AXES 1.0 ’DMME [-]’ YZER XGRD YGRD
!
TRAC 6 AXES 1.0 ’DTMX [S]’ YZER XGRD YGRD
!
XMIN 0.0 XMAX 14.4E-4 DX 2.E-4
TRAC 7 AXES 1.0 ’VITMAX [M/S]’ YZER XGRD YGRD
!
XMIN 0.0 XMAX 14.4E-4 DX 2.E-4
TRAC 8 AXES 1.0 ’MEMORY [BYTE]’ YZER XGRD YGRD
!
XMIN 0.0 XMAX 14.4E-4 DX 2.E-4
TRAC 9 AXES 1.0 ’MEMPEAK [BYTE]’ YZER XGRD YGRD
!
XMIN 0.0 XMAX 14.4E-4 DX 2.E-4
TRAC 8 9 AXES 1.0 ’MEM [BYTE]’ YZER XGRD YGRD
COLO NOIR ROUG
TRAC 2 AXES 1.0 ’DTCRIT [S]’ YLOG YZER XGRD YGRD
!
LIST 1 AXES 1.0 ’CPU [S]’ YZER XGRD YGRD
LIST 2 AXES 1.0 ’DTCRIT [S]’ YZER XGRD YGRD
LIST 3 AXES 1.0 ’DEE [-]’ YZER XGRD YGRD
LIST 4 AXES 1.0 ’DMMN [-]’ YZER XGRD YGRD
LIST 5 AXES 1.0 ’DMME [-]’ YZER XGRD YGRD
LIST 6 AXES 1.0 ’DTMX [S]’ YZER XGRD YGRD
LIST 7 AXES 1.0 ’VITMAX [M/S]’ YZER XGRD YGRD

XMIN 0.0 XMAX 14.4E-4 DX 2.E-4

XMIN 0.0 XMAX 14.4E-4 DX 2.E-4

XMIN 0.0 XMAX 14.4E-4 DX 2.E-4

XMIN 0.0 XMAX 14.4E-4 DX 2.E-4

LIST 8 AXES 1.0 ’MEMORY [BYTE]’ YZER XGRD YGRD
LIST 9 AXES 1.0 ’MEMPEAK [BYTE]’ YZER XGRD YGRD
*
COUR 17 ’vmax’ ADDC 7 1.0
TRAC 17 AXES 1.0 ’VMAX [M/S]’ YLOG YZER XGRD YGRD
LIST 17 AXES 1.0 ’VMAX [M/S]’ YZER XGRD YGRD
*=================================================================
FIN

log2plot mapl.epx

LOG2PLOT_MAPL
ECHO
*CONV WIN
LAGR CPLA
GEOM LIBR POIN 4 CAR1 1 TERM
1 0 1 1 0 1

0 0
1 2 3 4

MATE LINE RO 8000. YOUN 1.D11 NU 0.3

XMIN 0.0 XMAX 14.4E-4 DX 2.E-4

XMIN 0.0 XMAX 14.4E-4 DX 2.E-4

XMIN 0.0 XMAX 14.4E-4 DX 2.E-4

XMIN 0.0 XMAX 14.4E-4 DX 2.E-4

LECT 1 TERM
ECRI FICH ALIC FREQ 1
CALC TINI 0.0 TEND 1.0 NMAX 0
*=================================================================
SUIT
Post-treatment
ECHO
RESU ALIC GARD PSCR
SORT GRAP
AXTE 1.0 ’Time [s]’
FICH ’D7710600MAPL.log.pun’
RCOU 1 ’cpu’
FICH ’D7710600MAPL.log.pun’
RCOU 2 ’dtcrit’
FICH ’D7710600MAPL.log.pun’
RCOU 3 ’dee’
FICH ’D7710600MAPL.log.pun’
RCOU 4 ’dmmn’
FICH ’D7710600MAPL.log.pun’
RCOU 5 ’dmme’
FICH ’D7710600MAPL.log.pun’
RCOU 6 ’dtmx’
FICH ’D7710600MAPL.log.pun’
RCOU 7 ’vitmax’
RCOU 8 ’memory’
FICH ’D7710600MAPL.log.pun’
RCOU 9 ’mempeak’ FICH ’D7710600MAPL.log.pun’
TRAC 1 AXES 1.0 ’CPU [S]’ YZER XGRL YGRD
!
TRAC 2 AXES 1.0 ’DTCRIT [S]’ YZER XGRD YGRD
!
TRAC 3 AXES 1.0 ’DEE [-]’ YZER XGRD YGRD
!
TRAC 4 AXES 1.0 ’DMMN [-]’ YZER XGRD YGRD
!
TRAC 5 AXES 1.0 ’DMME [-]’ YZER XGRD YGRD
!
TRAC 6 AXES 1.0 ’DTMX [S]’ YZER XGRD YGRD
!
XMIN 0.0 XMAX 14.4E-4 DX 2.E-4
TRAC 7 AXES 1.0 ’VITMAX [M/S]’ YZER XGRD YGRD
!
XMIN 0.0 XMAX 14.4E-4 DX 2.E-4
TRAC 8 AXES 1.0 ’MEMORY [BYTE]’ YZER XGRD YGRD
!
XMIN 0.0 XMAX 14.4E-4 DX 2.E-4
TRAC 9 AXES 1.0 ’MEMPEAK [BYTE]’ YZER XGRD YGRD
!
XMIN 0.0 XMAX 14.4E-4 DX 2.E-4
TRAC 8 9 AXES 1.0 ’MEM [BYTE]’ YZER XGRD YGRD
COLO NOIR ROUG
TRAC 2 AXES 1.0 ’DTCRIT [S]’ YLOG YZER XGRD YGRD
!
LIST 1 AXES 1.0 ’CPU [S]’ YZER XGRD YGRD
LIST 2 AXES 1.0 ’DTCRIT [S]’ YZER XGRD YGRD
LIST 3 AXES 1.0 ’DEE [-]’ YZER XGRD YGRD
LIST 4 AXES 1.0 ’DMMN [-]’ YZER XGRD YGRD
LIST 5 AXES 1.0 ’DMME [-]’ YZER XGRD YGRD
LIST 6 AXES 1.0 ’DTMX [S]’ YZER XGRD YGRD
LIST 7 AXES 1.0 ’VITMAX [M/S]’ YZER XGRD YGRD
LIST 8 AXES 1.0 ’MEMORY [BYTE]’ YZER XGRD YGRD
LIST 9 AXES 1.0 ’MEMPEAK [BYTE]’ YZER XGRD YGRD
*
COUR 17 ’vmax’ ADDC 7 1.0
TRAC 17 AXES 1.0 ’VMAX [M/S]’ YLOG YZER XGRD YGRD
LIST 17 AXES 1.0 ’VMAX [M/S]’ YZER XGRD YGRD
*=================================================================
FIN

XMIN 0.0 XMAX 14.4E-4 DX 2.E-4

XMIN 0.0 XMAX 14.4E-4 DX 2.E-4

log2plot mapn.epx

LOG2PLOT_MAPN
ECHO
*CONV WIN
LAGR CPLA
GEOM LIBR POIN 4 CAR1 1 TERM
1 0 1 1 0 1

0 0
1 2 3 4

MATE LINE RO 8000. YOUN 1.D11 NU 0.3

LECT 1 TERM
ECRI FICH ALIC FREQ 1
CALC TINI 0.0 TEND 1.0 NMAX 0
*=================================================================
SUIT
Post-treatment
ECHO
RESU ALIC GARD PSCR
SORT GRAP
AXTE 1.0 ’Time [s]’
RCOU 1 ’cpu’
RCOU 2 ’dtcrit’
RCOU 3 ’dee’
RCOU 4 ’dmmn’
RCOU 5 ’dmme’
RCOU 6 ’dtmx’

FICH ’D7710600MAPN.log.pun’
FICH ’D7710600MAPN.log.pun’
FICH ’D7710600MAPN.log.pun’
FICH ’D7710600MAPN.log.pun’
FICH ’D7710600MAPN.log.pun’
FICH ’D7710600MAPN.log.pun’

245

Friday 8th September, 2023 @ 14:00

RCOU 7 ’vitmax’
FICH ’D7710600MAPN.log.pun’
RCOU 8 ’memory’
FICH ’D7710600MAPN.log.pun’
FICH ’D7710600MAPN.log.pun’
RCOU 9 ’mempeak’
RCOU 10 ’cpupstep’ FICH ’D7710600MAPN.log.pun’
TRAC 1 AXES 1.0 ’CPU [S]’ YZER XGRD YGRD
TRAC 2 AXES 1.0 ’DTCRIT [S]’ YZER XGRD YGRD
TRAC 3 AXES 1.0 ’DEE [-]’ YZER XGRD YGRD
TRAC 4 AXES 1.0 ’DMMN [-]’ YZER XGRD YGRD
TRAC 5 AXES 1.0 ’DMME [-]’ YZER XGRD YGRD
TRAC 6 AXES 1.0 ’DTMX [S]’ YZER XGRD YGRD
TRAC 7 AXES 1.0 ’VITMAX [M/S]’ YZER XGRD YGRD
TRAC 8 AXES 1.0 ’MEMORY [BYTE]’ YZER XGRD YGRD
TRAC 9 AXES 1.0 ’MEMPEAK [BYTE]’ YZER XGRD YGRD
TRAC 10 AXES 1.0 ’CPUPSTEP [S]’ YZER XGRD YGRD
TRAC 8 9 AXES 1.0 ’MEM [BYTE]’ YZER XGRD YGRD
COLO NOIR ROUG
TRAC 2 AXES 1.0 ’DTCRIT [S]’ YLOG YZER XGRD YGRD
LIST 1 AXES 1.0 ’CPU [S]’ YZER XGRD YGRD
LIST 2 AXES 1.0 ’DTCRIT [S]’ YZER XGRD YGRD
LIST 3 AXES 1.0 ’DEE [-]’ YZER XGRD YGRD
LIST 4 AXES 1.0 ’DMMN [-]’ YZER XGRD YGRD
LIST 5 AXES 1.0 ’DMME [-]’ YZER XGRD YGRD
LIST 6 AXES 1.0 ’DTMX [S]’ YZER XGRD YGRD
LIST 7 AXES 1.0 ’VITMAX [M/S]’ YZER XGRD YGRD
LIST 8 AXES 1.0 ’MEMORY [BYTE]’ YZER XGRD YGRD
LIST 9 AXES 1.0 ’MEMPEAK [BYTE]’ YZER XGRD YGRD
LIST 10 AXES 1.0 ’CPUPSTEP [S]’ YZER XGRD YGRD
*
COUR 17 ’vmax’ ADDC 7 1.0
TRAC 17 AXES 1.0 ’VMAX [M/S]’ YLOG YZER XGRD YGRD
LIST 17 AXES 1.0 ’VMAX [M/S]’ YZER XGRD YGRD
*=================================================================
FIN

log2plot mapo.epx

LOG2PLOT_MAPO
ECHO
*CONV WIN
LAGR CPLA
GEOM LIBR POIN 4 CAR1 1 TERM
1 0 1 1 0 1

0 0
1 2 3 4

MATE LINE RO 8000. YOUN 1.D11 NU 0.3

LECT 1 TERM
ECRI FICH ALIC FREQ 1
CALC TINI 0.0 TEND 1.0 NMAX 0
*=================================================================
SUIT
Post-treatment
ECHO
RESU ALIC GARD PSCR
SORT GRAP
AXTE 1.0 ’Time [s]’
FICH ’D7710600MAPO.log.pun’
RCOU 1 ’cpu’
FICH ’D7710600MAPO.log.pun’
RCOU 2 ’dtcrit’
FICH ’D7710600MAPO.log.pun’
RCOU 3 ’dee’
FICH ’D7710600MAPO.log.pun’
RCOU 4 ’dmmn’
FICH ’D7710600MAPO.log.pun’
RCOU 5 ’dmme’
FICH ’D7710600MAPO.log.pun’
RCOU 6 ’dtmx’
FICH ’D7710600MAPO.log.pun’
RCOU 7 ’vitmax’
FICH ’D7710600MAPO.log.pun’
RCOU 8 ’memory’
RCOU 9 ’mempeak’
FICH ’D7710600MAPO.log.pun’
RCOU 10 ’cpupstep’ FICH ’D7710600MAPO.log.pun’
TRAC 1 AXES 1.0 ’CPU [S]’ YZER XGRD YGRD
TRAC 2 AXES 1.0 ’DTCRIT [S]’ YZER XGRD YGRD
TRAC 3 AXES 1.0 ’DEE [-]’ YZER XGRD YGRD
TRAC 4 AXES 1.0 ’DMMN [-]’ YZER XGRD YGRD
TRAC 5 AXES 1.0 ’DMME [-]’ YZER XGRD YGRD
TRAC 6 AXES 1.0 ’DTMX [S]’ YZER XGRD YGRD
TRAC 7 AXES 1.0 ’VITMAX [M/S]’ YZER XGRD YGRD
TRAC 8 AXES 1.0 ’MEMORY [BYTE]’ YZER XGRD YGRD
TRAC 9 AXES 1.0 ’MEMPEAK [BYTE]’ YZER XGRD YGRD
TRAC 10 AXES 1.0 ’CPUPSTEP [S]’ YZER XGRD YGRD
TRAC 8 9 AXES 1.0 ’MEM [BYTE]’ YZER XGRD YGRD
COLO NOIR ROUG
TRAC 2 AXES 1.0 ’DTCRIT [S]’ YLOG YZER XGRD YGRD
LIST 1 AXES 1.0 ’CPU [S]’ YZER XGRD YGRD
LIST 2 AXES 1.0 ’DTCRIT [S]’ YZER XGRD YGRD
LIST 3 AXES 1.0 ’DEE [-]’ YZER XGRD YGRD
LIST 4 AXES 1.0 ’DMMN [-]’ YZER XGRD YGRD
LIST 5 AXES 1.0 ’DMME [-]’ YZER XGRD YGRD
LIST 6 AXES 1.0 ’DTMX [S]’ YZER XGRD YGRD
LIST 7 AXES 1.0 ’VITMAX [M/S]’ YZER XGRD YGRD
LIST 8 AXES 1.0 ’MEMORY [BYTE]’ YZER XGRD YGRD
LIST 9 AXES 1.0 ’MEMPEAK [BYTE]’ YZER XGRD YGRD
LIST 10 AXES 1.0 ’CPUPSTEP [S]’ YZER XGRD YGRD
*
COUR 17 ’vmax’ ADDC 7 1.0
TRAC 17 AXES 1.0 ’VMAX [M/S]’ YLOG YZER XGRD YGRD
LIST 17 AXES 1.0 ’VMAX [M/S]’ YZER XGRD YGRD
*=================================================================
FIN

mamu01.epx

MAMU01
ECHO

!CONV WIN
DPLA EULE
GEOM LIBR POIN 202 Q4VF 100 TERM

0 0

0 1

1 0 2 0 3 0

10 0
7 0 8 0 9 0
4 0 5 0 6 0
20 0
11 0 12 0 13 0 14 0 15 0 16 0 17 0 18 0 19 0
30 0
21 0 22 0 23 0 24 0 25 0 26 0 27 0 28 0 29 0
40 0
31 0 32 0 33 0 34 0 35 0 36 0 37 0 38 0 39 0
50 0
41 0 42 0 43 0 44 0 45 0 46 0 47 0 48 0 49 0
60 0
51 0 52 0 53 0 54 0 55 0 56 0 57 0 58 0 59 0
70 0
61 0 62 0 63 0 64 0 65 0 66 0 67 0 68 0 69 0
80 0
71 0 72 0 73 0 74 0 75 0 76 0 77 0 78 0 79 0
81 0 82 0 83 0 84 0 85 0 86 0 87 0 88 0 89 0
90 0
91 0 92 0 93 0 94 0 95 0 96 0 97 0 98 0 99 0 100 0
10 1
7 1 8 1 9 1
4 1 5 1 6 1
20 1
11 1 12 1 13 1 14 1 15 1 16 1 17 1 18 1 19 1
30 1
21 1 22 1 23 1 24 1 25 1 26 1 27 1 28 1 29 1
40 1
31 1 32 1 33 1 34 1 35 1 36 1 37 1 38 1 39 1
50 1
41 1 42 1 43 1 44 1 45 1 46 1 47 1 48 1 49 1
60 1
51 1 52 1 53 1 54 1 55 1 56 1 57 1 58 1 59 1
70 1
61 1 62 1 63 1 64 1 65 1 66 1 67 1 68 1 69 1
80 1
71 1 72 1 73 1 74 1 75 1 76 1 77 1 78 1 79 1
81 1 82 1 83 1 84 1 85 1 86 1 87 1 88 1 89 1
90 1
91 1 92 1 93 1 94 1 95 1 96 1 97 1 98 1 99 1 100 1

1 1 2 1 3 1

2 103 102
1
3 104 103
2
4 105 104
3
5 106 105
4
6 107 106
5
7 108 107
6
8 109 108
7
8
9 110 109
9 10 111 110
10 11 112 111

11 12 113 112
12 13 114 113
13 14 115 114
14 15 116 115
15 16 117 116
16 17 118 117
17 18 119 118
18 19 120 119
19 20 121 120
20 21 122 121

21 22 123 122
22 23 124 123
23 24 125 124
24 25 126 125
25 26 127 126
26 27 128 127
27 28 129 128
28 29 130 129
29 30 131 130
30 31 132 131

31 32 133 132
32 33 134 133
33 34 135 134
34 35 136 135
35 36 137 136
36 37 138 137
37 38 139 138
38 39 140 139
39 40 141 140
40 41 142 141

41 42 143 142
42 43 144 143
43 44 145 144
44 45 146 145
45 46 147 146
46 47 148 147
47 48 149 148
48 49 150 149
49 50 151 150
50 51 152 151

51 52 153 152
52 53 154 153
53 54 155 154
54 55 156 155
55 56 157 156
56 57 158 157
57 58 159 158
58 59 160 159
59 60 161 160
60 61 162 161

61 62 163 162
62 63 164 163
63 64 165 164
64 65 166 165
65 66 167 166
66 67 168 167
67 68 169 168
68 69 170 169
69 70 171 170
70 71 172 171

71 72 173 172
72 73 174 173
73 74 175 174

246

Friday 8th September, 2023 @ 14:00

74
75
76
77
78
79
80

81
82
83
84
85
86
87
88
89
90

75 176 175
76 177 176
77 178 177
78 179 178
79 180 179
80 181 180
81 182 181

82 183 182
83 184 183
84 185 184
85 186 185
86 187 186
87 188 187
88 189 188
89 190 189
90 191 190
91 192 191

92 193 192
91
93 194 193
92
94 195 194
93
95 196 195
94
96 197 196
95
97 198 197
96
98 199 198
97
98
99 200 199
99 100 201 200
100 101 202 201

COMP GROU 2 ’hp’ LECT

50 TERM
’lp’ LECT 51 PAS 1 100 TERM

1 PAS 1

COUL ROUG LECT hp TERM
TURQ LECT lp TERM

MATE GAZP RO 13. PINI 1.E6 GAMM 1.402 PREF 1.E5

CV 713.3
LECT hp TERM

GAZP RO 1.3 PINI 1.E5 GAMM 1.402 PREF 1.E5

CV 713.3
LECT lp TERM

ECRI VFCC TFRE 10.E-3

FICH ALIC TFRE 10.E-3
FICH FORM MAPP OBJE LECT tous TERM TIME PROG 50.E-3 60.E-3 TERM

OPTI NOTE STEP IO LOG 1

VFCC FCON 6

CALC TINI 0. TFIN 80.E-3
SUIT
Post treatment
RESU ALIC GARD PSCR
SORT GRAP AXTE 1.0 ’T [s]’
SCOU 1 ’p00’ ECRO COMP 1 T 0.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 2 ’p10’ ECRO COMP 1 T 10.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 3 ’p20’ ECRO COMP 1 T 20.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 4 ’p30’ ECRO COMP 1 T 30.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 5 ’p40’ ECRO COMP 1 T 40.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 6 ’p50’ ECRO COMP 1 T 50.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 7 ’p60’ ECRO COMP 1 T 60.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 8 ’p70’ ECRO COMP 1 T 70.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 9 ’p80’ ECRO COMP 1 T 80.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
TRAC 1 2 3 4 5 6 7 8 9 AXES 1.0 ’PRES [PA]’
LIST 1 2 3 4 5 6 7 8 9 AXES 1.0 ’PRES [PA]’
SCOU 11 ’r00’ ECRO COMP 2 T 0.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 12 ’r10’ ECRO COMP 2 T 10.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 13 ’r20’ ECRO COMP 2 T 20.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 14 ’r30’ ECRO COMP 2 T 30.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 15 ’r40’ ECRO COMP 2 T 40.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 16 ’r50’ ECRO COMP 2 T 50.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 17 ’r60’ ECRO COMP 2 T 60.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 18 ’r70’ ECRO COMP 2 T 70.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 19 ’r80’ ECRO COMP 2 T 80.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
TRAC 11 12 13 14 15 16 17 18 19 AXES 1.0 ’DENS [KG/M3]’
LIST 11 12 13 14 15 16 17 18 19 AXES 1.0 ’DENS [KG/M3]’
FIN

matr01.epx

MATR01
ECHO
!CONV WIN
DPLA EULE
GEOM LIBR POIN 202 Q4VF 100 TERM

0 0

0 1

1 0 2 0 3 0

10 0
7 0 8 0 9 0
4 0 5 0 6 0
20 0
11 0 12 0 13 0 14 0 15 0 16 0 17 0 18 0 19 0
30 0
21 0 22 0 23 0 24 0 25 0 26 0 27 0 28 0 29 0
40 0
31 0 32 0 33 0 34 0 35 0 36 0 37 0 38 0 39 0
50 0
41 0 42 0 43 0 44 0 45 0 46 0 47 0 48 0 49 0
60 0
51 0 52 0 53 0 54 0 55 0 56 0 57 0 58 0 59 0
70 0
61 0 62 0 63 0 64 0 65 0 66 0 67 0 68 0 69 0
80 0
71 0 72 0 73 0 74 0 75 0 76 0 77 0 78 0 79 0
81 0 82 0 83 0 84 0 85 0 86 0 87 0 88 0 89 0
90 0
91 0 92 0 93 0 94 0 95 0 96 0 97 0 98 0 99 0 100 0
10 1
7 1 8 1 9 1
4 1 5 1 6 1
20 1
11 1 12 1 13 1 14 1 15 1 16 1 17 1 18 1 19 1
30 1
21 1 22 1 23 1 24 1 25 1 26 1 27 1 28 1 29 1
40 1
31 1 32 1 33 1 34 1 35 1 36 1 37 1 38 1 39 1
50 1
41 1 42 1 43 1 44 1 45 1 46 1 47 1 48 1 49 1
60 1
51 1 52 1 53 1 54 1 55 1 56 1 57 1 58 1 59 1
70 1
61 1 62 1 63 1 64 1 65 1 66 1 67 1 68 1 69 1
80 1
71 1 72 1 73 1 74 1 75 1 76 1 77 1 78 1 79 1
81 1 82 1 83 1 84 1 85 1 86 1 87 1 88 1 89 1
90 1
91 1 92 1 93 1 94 1 95 1 96 1 97 1 98 1 99 1 100 1

1 1 2 1 3 1

2 103 102
1
3 104 103
2
4 105 104
3
5 106 105
4
6 107 106
5
7 108 107
6
8 109 108
7
8
9 110 109
9 10 111 110
10 11 112 111

11 12 113 112
12 13 114 113
13 14 115 114
14 15 116 115
15 16 117 116
16 17 118 117
17 18 119 118
18 19 120 119
19 20 121 120
20 21 122 121

21 22 123 122
22 23 124 123
23 24 125 124
24 25 126 125
25 26 127 126
26 27 128 127
27 28 129 128
28 29 130 129
29 30 131 130
30 31 132 131

31 32 133 132
32 33 134 133
33 34 135 134
34 35 136 135
35 36 137 136
36 37 138 137
37 38 139 138
38 39 140 139
39 40 141 140
40 41 142 141

41 42 143 142
42 43 144 143
43 44 145 144
44 45 146 145
45 46 147 146
46 47 148 147
47 48 149 148
48 49 150 149
49 50 151 150
50 51 152 151

51 52 153 152
52 53 154 153
53 54 155 154
54 55 156 155
55 56 157 156
56 57 158 157
57 58 159 158
58 59 160 159
59 60 161 160
60 61 162 161

61 62 163 162
62 63 164 163
63 64 165 164
64 65 166 165
65 66 167 166
66 67 168 167
67 68 169 168
68 69 170 169
69 70 171 170
70 71 172 171

71 72 173 172
72 73 174 173
73 74 175 174
74 75 176 175
75 76 177 176
76 77 178 177
77 78 179 178
78 79 180 179
79 80 181 180
80 81 182 181

81 82 183 182
82 83 184 183
83 84 185 184
84 85 186 185
85 86 187 186
86 87 188 187
87 88 189 188
88 89 190 189
89 90 191 190
90 91 192 191

91 92 193 192
92 93 194 193
93 94 195 194
94 95 196 195

247

Friday 8th September, 2023 @ 14:00

96 197 196
95
97 198 197
96
98 199 198
97
98
99 200 199
99 100 201 200
100 101 202 201

COMP GROU 3 ’hp’ LECT

1 PAS 1

50 TERM
’lp’ LECT 51 PAS 1 100 TERM
’trigger’ LECT 81 TERM

COUL ROUG LECT hp TERM
TURQ LECT lp TERM

MATE GAZP RO 13. PINI 1.E6 GAMM 1.402 PREF 1.E5

CV 713.3
LECT hp TERM

GAZP RO 1.3 PINI 1.E5 GAMM 1.402 PREF 1.E5

CV 713.3
LECT lp TERM

ECRI VFCC TFRE 10.E-3

FICH ALIC TFRE 10.E-3
FICH FORM MAPP OBJE LECT tous TERM

TRIG ECRO 1 TVAL 1.1E5 LECT trigger TERM

! TIME PROG 50.E-3 TERM

OPTI NOTE STEP IO LOG 1

VFCC FCON 6

CALC TINI 0. TFIN 80.E-3
SUIT
Post treatment
RESU ALIC GARD PSCR
SORT GRAP AXTE 1.0 ’T [s]’
SCOU 1 ’p00’ ECRO COMP 1 T 0.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 2 ’p10’ ECRO COMP 1 T 10.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 3 ’p20’ ECRO COMP 1 T 20.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 4 ’p30’ ECRO COMP 1 T 30.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 5 ’p40’ ECRO COMP 1 T 40.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 6 ’p50’ ECRO COMP 1 T 50.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 7 ’p60’ ECRO COMP 1 T 60.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 8 ’p70’ ECRO COMP 1 T 70.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 9 ’p80’ ECRO COMP 1 T 80.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
TRAC 1 2 3 4 5 6 7 8 9 AXES 1.0 ’PRES [PA]’
LIST 1 2 3 4 5 6 7 8 9 AXES 1.0 ’PRES [PA]’
SCOU 11 ’r00’ ECRO COMP 2 T 0.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 12 ’r10’ ECRO COMP 2 T 10.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 13 ’r20’ ECRO COMP 2 T 20.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 14 ’r30’ ECRO COMP 2 T 30.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 15 ’r40’ ECRO COMP 2 T 40.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 16 ’r50’ ECRO COMP 2 T 50.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 17 ’r60’ ECRO COMP 2 T 60.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 18 ’r70’ ECRO COMP 2 T 70.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 19 ’r80’ ECRO COMP 2 T 80.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
TRAC 11 12 13 14 15 16 17 18 19 AXES 1.0 ’DENS [KG/M3]’
LIST 11 12 13 14 15 16 17 18 19 AXES 1.0 ’DENS [KG/M3]’
FIN

matr02.epx

MATR02
ECHO
!CONV WIN
DPLA EULE
GEOM LIBR POIN 202 Q4VF 100 TERM

0 0

0 1

1 0 2 0 3 0

10 0
7 0 8 0 9 0
4 0 5 0 6 0
20 0
11 0 12 0 13 0 14 0 15 0 16 0 17 0 18 0 19 0
30 0
21 0 22 0 23 0 24 0 25 0 26 0 27 0 28 0 29 0
40 0
31 0 32 0 33 0 34 0 35 0 36 0 37 0 38 0 39 0
50 0
41 0 42 0 43 0 44 0 45 0 46 0 47 0 48 0 49 0
60 0
51 0 52 0 53 0 54 0 55 0 56 0 57 0 58 0 59 0
70 0
61 0 62 0 63 0 64 0 65 0 66 0 67 0 68 0 69 0
80 0
71 0 72 0 73 0 74 0 75 0 76 0 77 0 78 0 79 0
81 0 82 0 83 0 84 0 85 0 86 0 87 0 88 0 89 0
90 0
91 0 92 0 93 0 94 0 95 0 96 0 97 0 98 0 99 0 100 0
7 1 8 1 9 1
4 1 5 1 6 1
10 1
11 1 12 1 13 1 14 1 15 1 16 1 17 1 18 1 19 1
20 1
21 1 22 1 23 1 24 1 25 1 26 1 27 1 28 1 29 1
30 1
31 1 32 1 33 1 34 1 35 1 36 1 37 1 38 1 39 1
40 1
41 1 42 1 43 1 44 1 45 1 46 1 47 1 48 1 49 1
50 1
51 1 52 1 53 1 54 1 55 1 56 1 57 1 58 1 59 1
60 1
61 1 62 1 63 1 64 1 65 1 66 1 67 1 68 1 69 1
70 1
71 1 72 1 73 1 74 1 75 1 76 1 77 1 78 1 79 1
80 1
90 1
81 1 82 1 83 1 84 1 85 1 86 1 87 1 88 1 89 1
91 1 92 1 93 1 94 1 95 1 96 1 97 1 98 1 99 1 100 1

1 1 2 1 3 1

2 103 102
1
3 104 103
2
4 105 104
3
5 106 105
4
6 107 106
5
7 108 107
6
8 109 108
7
8
9 110 109
9 10 111 110
11 112 111

10

11
12
13
14
15
16
17
18
19

12 113 112
13 114 113
14 115 114
15 116 115
16 117 116
17 118 117
18 119 118
19 120 119
20 121 120

20 21 122 121

21 22 123 122
22 23 124 123
23 24 125 124
24 25 126 125
25 26 127 126
26 27 128 127
27 28 129 128
28 29 130 129
29 30 131 130
30 31 132 131

31 32 133 132
32 33 134 133
33 34 135 134
34 35 136 135
35 36 137 136
36 37 138 137
37 38 139 138
38 39 140 139
39 40 141 140
40 41 142 141

41 42 143 142
42 43 144 143
43 44 145 144
44 45 146 145
45 46 147 146
46 47 148 147
47 48 149 148
48 49 150 149
49 50 151 150
50 51 152 151

51 52 153 152
52 53 154 153
53 54 155 154
54 55 156 155
55 56 157 156
56 57 158 157
57 58 159 158
58 59 160 159
59 60 161 160
60 61 162 161

61 62 163 162
62 63 164 163
63 64 165 164
64 65 166 165
65 66 167 166
66 67 168 167
67 68 169 168
68 69 170 169
69 70 171 170
70 71 172 171

71 72 173 172
72 73 174 173
73 74 175 174
74 75 176 175
75 76 177 176
76 77 178 177
77 78 179 178
78 79 180 179
79 80 181 180
80 81 182 181

81 82 183 182
82 83 184 183
83 84 185 184
84 85 186 185
85 86 187 186
86 87 188 187
87 88 189 188
88 89 190 189
89 90 191 190
90 91 192 191

91 92 193 192
92 93 194 193
93 94 195 194
94 95 196 195
95 96 197 196
96 97 198 197
97 98 199 198
98 99 200 199
99 100 201 200
100 101 202 201

COMP GROU 3 ’hp’ LECT

1 PAS 1

50 TERM
’lp’ LECT 51 PAS 1 100 TERM
’trigger’ LECT 81 TERM

COUL ROUG LECT hp TERM
TURQ LECT lp TERM

MATE GAZP RO 13. PINI 1.E6 GAMM 1.402 PREF 1.E5

CV 713.3
LECT hp TERM

GAZP RO 1.3 PINI 1.E5 GAMM 1.402 PREF 1.E5

CV 713.3
LECT lp TERM

ECRI VFCC TFRE 10.E-3

FICH ALIC TFRE 10.E-3
FICH FORM MAPP OBJE LECT tous TERM

248

Friday 8th September, 2023 @ 14:00

TRIG ECRO 1 TSTO TVAL 1.1E5 LECT trigger TERM

OPTI NOTE STEP IO LOG 1

VFCC FCON 6

CALC TINI 0. TFIN 80.E-3
SUIT
Post treatment
RESU ALIC GARD PSCR
SORT GRAP AXTE 1.0 ’T [s]’
SCOU 1 ’p00’ ECRO COMP 1 T 0.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 2 ’p10’ ECRO COMP 1 T 10.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 3 ’p20’ ECRO COMP 1 T 20.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 4 ’p30’ ECRO COMP 1 T 30.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 5 ’p40’ ECRO COMP 1 T 40.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 6 ’p50’ ECRO COMP 1 T 50.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 7 ’ptr’ ECRO COMP 1
NSTO 7 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
TRAC 1 2 3 4 5 6 7 AXES 1.0 ’PRES [PA]’
COLO NOIR NOIR NOIR NOIR NOIR NOIR ROUG
LIST 1 2 3 4 5 6 7 AXES 1.0 ’PRES [PA]’
SCOU 11 ’r00’ ECRO COMP 2 T 0.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 12 ’r10’ ECRO COMP 2 T 10.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 13 ’r20’ ECRO COMP 2 T 20.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 14 ’r30’ ECRO COMP 2 T 30.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 15 ’r40’ ECRO COMP 2 T 40.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 16 ’r50’ ECRO COMP 2 T 50.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 17 ’rtr’ ECRO COMP 2
NSTO 7 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
TRAC 11 12 13 14 15 16 17 AXES 1.0 ’DENS [KG/M3]’
COLO NOIR NOIR NOIR NOIR NOIR NOIR ROUG
LIST 11 12 13 14 15 16 17 AXES 1.0 ’DENS [KG/M3]’
FIN

matr03.epx

MATR03
ECHO
!CONV WIN
DPLA EULE
GEOM LIBR POIN 202 Q4VF 100 TERM

0 0

0 1

1 0 2 0 3 0

10 0
7 0 8 0 9 0
4 0 5 0 6 0
20 0
11 0 12 0 13 0 14 0 15 0 16 0 17 0 18 0 19 0
30 0
21 0 22 0 23 0 24 0 25 0 26 0 27 0 28 0 29 0
40 0
31 0 32 0 33 0 34 0 35 0 36 0 37 0 38 0 39 0
50 0
41 0 42 0 43 0 44 0 45 0 46 0 47 0 48 0 49 0
60 0
51 0 52 0 53 0 54 0 55 0 56 0 57 0 58 0 59 0
70 0
61 0 62 0 63 0 64 0 65 0 66 0 67 0 68 0 69 0
80 0
71 0 72 0 73 0 74 0 75 0 76 0 77 0 78 0 79 0
81 0 82 0 83 0 84 0 85 0 86 0 87 0 88 0 89 0
90 0
91 0 92 0 93 0 94 0 95 0 96 0 97 0 98 0 99 0 100 0
10 1
7 1 8 1 9 1
4 1 5 1 6 1
20 1
11 1 12 1 13 1 14 1 15 1 16 1 17 1 18 1 19 1
30 1
21 1 22 1 23 1 24 1 25 1 26 1 27 1 28 1 29 1
40 1
31 1 32 1 33 1 34 1 35 1 36 1 37 1 38 1 39 1
50 1
41 1 42 1 43 1 44 1 45 1 46 1 47 1 48 1 49 1
60 1
51 1 52 1 53 1 54 1 55 1 56 1 57 1 58 1 59 1
70 1
61 1 62 1 63 1 64 1 65 1 66 1 67 1 68 1 69 1
80 1
71 1 72 1 73 1 74 1 75 1 76 1 77 1 78 1 79 1
81 1 82 1 83 1 84 1 85 1 86 1 87 1 88 1 89 1
90 1
91 1 92 1 93 1 94 1 95 1 96 1 97 1 98 1 99 1 100 1

1 1 2 1 3 1

2 103 102
1
3 104 103
2
4 105 104
3
5 106 105
4
6 107 106
5
7 108 107
6
8 109 108
7
8
9 110 109
9 10 111 110
11 112 111

10

11
12
13
14
15
16
17
18
19
20

21
22
23
24
25
26
27
28
29
30

31
32
33
34
35
36
37
38
39
40

12 113 112
13 114 113
14 115 114
15 116 115
16 117 116
17 118 117
18 119 118
19 120 119
20 121 120
21 122 121

22 123 122
23 124 123
24 125 124
25 126 125
26 127 126
27 128 127
28 129 128
29 130 129
30 131 130
31 132 131

32 133 132
33 134 133
34 135 134
35 136 135
36 137 136
37 138 137
38 139 138
39 140 139
40 141 140
41 142 141

41 42 143 142
42 43 144 143
43 44 145 144
44 45 146 145
45 46 147 146
46 47 148 147
47 48 149 148
48 49 150 149
49 50 151 150
50 51 152 151

51 52 153 152
52 53 154 153
53 54 155 154
54 55 156 155
55 56 157 156
56 57 158 157
57 58 159 158
58 59 160 159
59 60 161 160
60 61 162 161

61 62 163 162
62 63 164 163
63 64 165 164
64 65 166 165
65 66 167 166
66 67 168 167
67 68 169 168
68 69 170 169
69 70 171 170
70 71 172 171

71 72 173 172
72 73 174 173
73 74 175 174
74 75 176 175
75 76 177 176
76 77 178 177
77 78 179 178
78 79 180 179
79 80 181 180
80 81 182 181

81 82 183 182
82 83 184 183
83 84 185 184
84 85 186 185
85 86 187 186
86 87 188 187
87 88 189 188
88 89 190 189
89 90 191 190
90 91 192 191

91 92 193 192
92 93 194 193
93 94 195 194
94 95 196 195
95 96 197 196
96 97 198 197
97 98 199 198
98 99 200 199
99 100 201 200
100 101 202 201

COMP GROU 3 ’hp’ LECT

1 PAS 1

50 TERM
’lp’ LECT 51 PAS 1 100 TERM
’trigger’ LECT 81 TERM

COUL ROUG LECT hp TERM
TURQ LECT lp TERM

MATE GAZP RO 13. PINI 1.E6 GAMM 1.402 PREF 1.E5

CV 713.3
LECT hp TERM

GAZP RO 1.3 PINI 1.E5 GAMM 1.402 PREF 1.E5

CV 713.3
LECT lp TERM

ECRI VFCC TFRE 10.E-3

FICH FORM MAPP OBJE LECT tous TERM

TRIG ECRO 1 TSTO TVAL 1.1E5 LECT trigger TERM

OPTI NOTE STEP IO LOG 1

VFCC FCON 6

CALC TINI 0. TFIN 80.E-3
FIN

matr04.epx

MATR04
ECHO
!CONV WIN
DPLA EULE
GEOM LIBR POIN 202 Q4VF 100 TERM

1 0 2 0 3 0

10 0
7 0 8 0 9 0
4 0 5 0 6 0
20 0
11 0 12 0 13 0 14 0 15 0 16 0 17 0 18 0 19 0
30 0
21 0 22 0 23 0 24 0 25 0 26 0 27 0 28 0 29 0
40 0
31 0 32 0 33 0 34 0 35 0 36 0 37 0 38 0 39 0
50 0
41 0 42 0 43 0 44 0 45 0 46 0 47 0 48 0 49 0
60 0
51 0 52 0 53 0 54 0 55 0 56 0 57 0 58 0 59 0
70 0
61 0 62 0 63 0 64 0 65 0 66 0 67 0 68 0 69 0
80 0
71 0 72 0 73 0 74 0 75 0 76 0 77 0 78 0 79 0
81 0 82 0 83 0 84 0 85 0 86 0 87 0 88 0 89 0
90 0
91 0 92 0 93 0 94 0 95 0 96 0 97 0 98 0 99 0 100 0
10 1

1 1 2 1 3 1

4 1 5 1 6 1

7 1 8 1 9 1

0 0

0 1

249

Friday 8th September, 2023 @ 14:00

20 1
11 1 12 1 13 1 14 1 15 1 16 1 17 1 18 1 19 1
30 1
21 1 22 1 23 1 24 1 25 1 26 1 27 1 28 1 29 1
40 1
31 1 32 1 33 1 34 1 35 1 36 1 37 1 38 1 39 1
50 1
41 1 42 1 43 1 44 1 45 1 46 1 47 1 48 1 49 1
60 1
51 1 52 1 53 1 54 1 55 1 56 1 57 1 58 1 59 1
70 1
61 1 62 1 63 1 64 1 65 1 66 1 67 1 68 1 69 1
80 1
71 1 72 1 73 1 74 1 75 1 76 1 77 1 78 1 79 1
81 1 82 1 83 1 84 1 85 1 86 1 87 1 88 1 89 1
90 1
91 1 92 1 93 1 94 1 95 1 96 1 97 1 98 1 99 1 100 1

1
2 103 102
2
3 104 103
3
4 105 104
4
5 106 105
5
6 107 106
6
7 108 107
7
8 109 108
9 110 109
8
9 10 111 110
10 11 112 111

11 12 113 112
12 13 114 113
13 14 115 114
14 15 116 115
15 16 117 116
16 17 118 117
17 18 119 118
18 19 120 119
19 20 121 120
20 21 122 121

21 22 123 122
22 23 124 123
23 24 125 124
24 25 126 125
25 26 127 126
26 27 128 127
27 28 129 128
28 29 130 129
29 30 131 130
30 31 132 131

31 32 133 132
32 33 134 133
33 34 135 134
34 35 136 135
35 36 137 136
36 37 138 137
37 38 139 138
38 39 140 139
39 40 141 140
40 41 142 141

41 42 143 142
42 43 144 143
43 44 145 144
44 45 146 145
45 46 147 146
46 47 148 147
47 48 149 148
48 49 150 149
49 50 151 150
50 51 152 151

51 52 153 152
52 53 154 153
53 54 155 154
54 55 156 155
55 56 157 156
56 57 158 157
57 58 159 158
58 59 160 159
59 60 161 160
60 61 162 161

61 62 163 162
62 63 164 163
63 64 165 164
64 65 166 165
65 66 167 166
66 67 168 167
67 68 169 168
68 69 170 169
69 70 171 170
70 71 172 171

71 72 173 172
72 73 174 173
73 74 175 174
74 75 176 175
75 76 177 176
76 77 178 177
77 78 179 178
78 79 180 179
79 80 181 180
80 81 182 181

81 82 183 182
82 83 184 183
83 84 185 184
84 85 186 185
85 86 187 186

86 87 188 187
87 88 189 188
88 89 190 189
89 90 191 190
90 91 192 191

91 92 193 192
92 93 194 193
93 94 195 194
94 95 196 195
95 96 197 196
96 97 198 197
97 98 199 198
98 99 200 199
99 100 201 200
100 101 202 201

COMP GROU 3 ’hp’ LECT

1 PAS 1

50 TERM
’lp’ LECT 51 PAS 1 100 TERM
’trigger’ LECT 81 TERM

COUL ROUG LECT hp TERM
TURQ LECT lp TERM

MATE GAZP RO 13. PINI 1.E6 GAMM 1.402 PREF 1.E5

CV 713.3
LECT hp TERM

GAZP RO 1.3 PINI 1.E5 GAMM 1.402 PREF 1.E5

CV 713.3
LECT lp TERM

ECRI VFCC TFRE 10.E-3

FICH FORM MAPP OBJE LECT tous TERM

TRIG ECRO 1 TSTO TVAL 1.1E5 LECT trigger TERM

FICH ALIC TFRE 10.E-3

OPTI NOTE STEP IO LOG 1

VFCC FCON 6

CALC TINI 0. TFIN 80.E-3
SUIT
Post treatment
RESU ALIC GARD PSCR
SORT GRAP AXTE 1.0 ’T [s]’
SCOU 1 ’p00’ ECRO COMP 1 T 0.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 2 ’p10’ ECRO COMP 1 T 10.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 3 ’p20’ ECRO COMP 1 T 20.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 4 ’p30’ ECRO COMP 1 T 30.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 5 ’p40’ ECRO COMP 1 T 40.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 6 ’p50’ ECRO COMP 1 T 50.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 7 ’ptr’ ECRO COMP 1
NSTO 7 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
TRAC 1 2 3 4 5 6 7 AXES 1.0 ’PRES [PA]’
COLO NOIR NOIR NOIR NOIR NOIR NOIR ROUG
LIST 1 2 3 4 5 6 7 AXES 1.0 ’PRES [PA]’
SCOU 11 ’r00’ ECRO COMP 2 T 0.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 12 ’r10’ ECRO COMP 2 T 10.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 13 ’r20’ ECRO COMP 2 T 20.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 14 ’r30’ ECRO COMP 2 T 30.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 15 ’r40’ ECRO COMP 2 T 40.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 16 ’r50’ ECRO COMP 2 T 50.E-3 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
SCOU 17 ’rtr’ ECRO COMP 2
NSTO 7 SAXE 1.0 ’ABSC’ LECT 1 PAS 1 101 TERM
TRAC 11 12 13 14 15 16 17 AXES 1.0 ’DENS [KG/M3]’
COLO NOIR NOIR NOIR NOIR NOIR NOIR ROUG
LIST 11 12 13 14 15 16 17 AXES 1.0 ’DENS [KG/M3]’
FIN

S2.dgibi

*$$$$ PX4CIR3D
*
* Pour generer le maillage 3D (plan) d’un quart de cercle
* avec seulement des quadrilateres a 4 noeuds.
* Le quart de cercle est defini par les deux extremes
* d’un arc (de 90 degrees), par le centre du cercle
* et par un autre point qui definit l’axe de rotation
* (axe perpendiculaire au plan du cercle, passant pour son centre).
*
* Input:
* =====
* P1 = premiere extremite de l’arc
* P2 = deuxieme extremite de l’arc
* PC = centre de l’arc
* PZ = autre point de l’axe
* N
* TOL= tolerance pour l’elimination des noeuds doubles
*
* Output:
* ======
* SUR = objet MAILLAGE d’elements de type QUA4
* IER = 0: pas d’erreur, .NE.0: erreur dans la generation de SUR
*
’DEBPROC’ PX4CIR3D P1*’POINT’ P2*’POINT’ PC*’POINT’ PZ*’POINT’

= nombre de mailles a generer sur chaque cote (doit etre pair)

N*’ENTIER’ TOL*’FLOTTANT’;

*------------------------------------------------------------------
*
ier=0;
n2 = n / 2;
p0 = 0 0 0;
pm1 = p1 plus p0;
depl pm1 tour 45 pc pz;
pm2 = 0.5*(pc plus p2);
pm3 = 0.5*(pc plus p1);
pm = 0.5*(pc plus pm1);
c1a = cerc n2 p1 pc pm1;
c1b = cerc n2 pm1 pc p2;
c2a = droi n2 p2 pm2;
c2b = droi n2 pm2 pc;

250

Friday 8th September, 2023 @ 14:00

c3a = droi n2 pc pm3;
c3b = droi n2 pm3 p1;
c4a = droi n2 pm pm1;
c4b = droi n2 pm pm2;
c4c = droi n2 pm pm3;
sur1 = dall plan c4c c3b c1a (inve c4a);
sur2 = dall plan c4a c1b c2a (inve c4b);
sur3 = dall plan c2b c3a (inve c4c) c4b;
sur = sur1 et sur2 et sur3;
*
elim tol sur;
*
’FINPROC’ sur ier;
************************************************************************
opti echo 1;
opti dime 3 elem cub8;
opti sauv form ’S2.msh’;
opti trac psc ftra ’S2_mesh.ps’;
*
* upper frame
*
ref = 2;
*
tol = 1.E-5;
p0 = 0 0 0;
pz = 0 0 1;
p1 = 0.150 0 0;
dhole = 0.025;
rhole = dhole / 2.0;
dhext = 0.045;
rhext = dhext / 2.0;
p2 = (0.260 - rhext) 0 0;
p3 = (0.260 + rhext) 0 0;
p4 = 0.325 0 0;
p5 = p4 tour 45.0 p0 pz;
p6 = p3 tour 45.0 p0 pz;
p7 = p2 tour 45.0 p0 pz;
p8 = 0.150 0.150 0;
*
c1 = p1 d (9*ref) p2;
pc1 = 0.260 0 0;
pz1 = pc1 plus pz;
p2b = p3 tour 90.0 pc1 pz1;
c2 = p2 c (2*ref) pc1 p2b c (2*ref) pc1 p3;
c3 = p3 d (4*ref) p4;
c4 = p4 c (13*ref) p0 p5;
c5 = p5 d (3*ref) p6;
pc2 = pc1 tour 45.0 p0 pz;
pz2 = pc2 plus pz;
p6b = p7 tour 90.0 pc2 pz2;
c6 = p6 c (2*ref) pc2 p6b c (2*ref) pc2 p7;
c7 = p7 d (3*ref) p8;
* attention, following line should not use ref!
c8 = p8 d 25 p1;
*
cc0 = c1 et c2 et c3 et c4 et c5 et c6 et c7 et c8;
elim tol cc0;
*
c9a = c2 tour 15.0 p0 pz;
c9b = c6 tour (0 - 30.0) p0 pz;
c9 = elim tol (c9a et c9b);
c10 = c9 tour 15.0 p0 pz;
cc = cc0 et c9 et c10;
*
bas1 = surf cc plan;
bas1 = orie bas1 dire pz;
*
c11 = ((0.260 + rhole) 0 0) d (1*ref) p3;
pre1 = c11 rota (4*ref) 180.0 pc1 pz1;
pre2a = pre1 tour 15.0 p0 pz;
pc3 = pc1 tour 15.0 p0 pz;
pre2b = pre2a tour 180.0 pc3 (pc3 plus pz);
pre2 = pre2a et pre2b;
pre3 = pre2 tour 15.0 p0 pz;
pre4 = pre2b tour 30.0 p0 pz;
baspr = pre1 et pre2 et pre3 et pre4;
baspr = orie baspr dire pz;
elim tol (bas1 et baspr);
*
bas2 = bas1 syme plan p8 p5 (p8 plus pz);
baspr2 = baspr syme plan p8 p5 (p8 plus pz);
bas = bas1 et baspr et bas2 et baspr2;
elim tol bas;
bas = orie bas dire pz;
trac bas;
*
gap = 0.0008;
gap2 = gap / 2.0;
ubas = bas plus (0 0 gap2);
thu = 0.025;
uframe = ubas volu tran (3) (0 0 thu);
trac cach uframe;
*
* plate
*
dpla = 0.3;
rpla = 0.5 * dpla;
*
* aux = 0.03*cos(45)
*
aux = 0.0212132;
auxa = 0.06 - aux;

auxb = 0.06 + aux;
*
p0s = 0 0 0;
p1s = rpla 0 0;
p2s = rpla rpla 0;
p3s = 0 rpla 0;
*
p4s = auxa 0 0;
p5s = auxb 0 0;
p6s = 0 auxa 0;
p7s = auxa auxa 0;
p8s = auxb auxa 0;
p9s = 0.15 0.03 0;
p10s = 0 auxb 0;
p11s = auxa auxb 0;
p12s = auxb auxb 0;
p13s = 0.15 0.09 0;
p14s = 0.03 0.15 0;
p15s = 0.09 0.15 0;
*
nrp1 = 5;
nrp2 = 10;
nrp3 = 10;
*
c1s = p0s d nrp1 p4s;
c2s = p4s d nrp1 p7s;
c3s = p7s d nrp1 p6s;
c4s = p6s d nrp1 p0s;
pla1 = dall c1s c2s c3s c4s plan;
c1s = p4s d nrp2 p5s;
c2s = p5s d nrp1 p8s;
c3s = p8s d nrp2 p7s;
c4s = p7s d nrp1 p4s;
pla2 = dall c1s c2s c3s c4s plan;
c1s = p5s d nrp3 p1s;
c2s = p1s d nrp1 p9s;
c3s = p9s d nrp3 p8s;
c4s = p8s d nrp1 p5s;
pla3 = dall c1s c2s c3s c4s plan;
c1s = p6s d nrp1 p7s;
c2s = p7s d nrp2 p11s;
c3s = p11s d nrp1 p10s;
c4s = p10s d nrp2 p6s;
pla4 = dall c1s c2s c3s c4s plan;
c1s = p8s d nrp3 p9s;
c2s = p9s d nrp2 p13s;
c3s = p13s d nrp3 p12s;
c4s = p12s d nrp2 p8s;
pla5 = dall c1s c2s c3s c4s plan;
c1s = p10s d nrp1 p11s;
c2s = p11s d nrp3 p14s;
c3s = p14s d nrp1 p3s;
c4s = p3s d nrp3 p10s;
pla6 = dall c1s c2s c3s c4s plan;
c1s = p11s d nrp2 p12s;
c2s = p12s d nrp3 p15s;
c3s = p15s d nrp2 p14s;
c4s = p14s d nrp3 p11s;
pla7 = dall c1s c2s c3s c4s plan;
c1s = p12s d nrp3 p13s;
c2s = p13s d nrp3 p2s;
c3s = p2s d nrp3 p15s;
c4s = p15s d nrp3 p12s;
pla8 = dall c1s c2s c3s c4s plan;
place = pla1 et pla2 et pla3 et pla4 et pla5 et pla6 et

pla7 et pla8;

elim tol place;
p16s = auxa auxa 0;
p17s = auxb auxa 0;
p18s = 0.06 0.06 0;
p19s = 0.06 0.06 1;
c1s = p16s d nrp2 p17s;
c2s = p17s d nrp2 p18s;
c3s = p18s d nrp2 p16s;
qu1 = surf (c1s et c2s et c3s) plan;
qu2 = qu1 tour 90 p18s p19s;
qu3 = qu2 tour 90 p18s p19s;
qu4 = qu3 tour 90 p18s p19s;
elim tol (place et qu1);
elim tol (place et qu2);
elim tol (place et qu3);
elim tol (place et qu4);
placen = place et qu1 et qu2 et qu3 et qu4;
*
p4p = 0.3125 0 0;
c3p = p3 d (3*ref) p4p;
p5p = 0.3125 0.3125 0;
c4p = p4p d (16*ref) p5p;
c5p = p5p d (9*ref) p6;
cc0p = c1 et c2 et c3p et c4p et c5p et c6 et c7 et c8;
*
ccp = cc0p et c9 et c10;
elim tol ccp;
*
bas1p = surf ccp plan;
bas1p = orie bas1p dire pz;
bas2p = bas1p syme plan p8 p5 (p8 plus pz);
elim tol (bas1p et baspr et bas2p et baspr2 et place);
plate = bas1p et baspr et bas2p et baspr2 et placen;
plate = orie plate dire pz;
trac plate;
trac cach (uframe et plate);
*

251

Friday 8th September, 2023 @ 14:00

* lower frame with bolts
*
dbolt = 0.0245;
rbolt = dbolt / 2.0;
*
lpb = (0.260 + rbolt) 0 0;
c11 = lpb d (1*ref) p3;
lpre1 = c11 rota (4*ref) 180.0 pc1 pz1;
lpre2a = lpre1 tour 15.0 p0 pz;
lpre2b = lpre2a tour 180.0 pc3 (pc3 plus pz);
lpre2 = lpre2a et lpre2b;
lpre3 = lpre2 tour 15.0 p0 pz;
lpre4 = lpre2b tour 30.0 p0 pz;
lbaspr = lpre1 et lpre2 et lpre3 et lpre4;
lbaspr = orie lbaspr dire pz;
elim tol (bas1 et lbaspr);
*
lbaspr2 = lbaspr syme plan p8 p5 (p8 plus pz);
lbas = bas1 et lbaspr et bas2 et lbaspr2;
elim tol lbas;
lbas = orie lbas dire pz;
trac lbas;
*
thl = 0.025;
lobas = lbas plus (0 0 (0 - gap2 - thl));
lframe = lobas volu tran (3) (0 0 thl);
trac cach lframe;
trac cach (uframe et lframe);
trac cach (uframe et plate et lframe);
*
lpb2 = lpb tour 90.0 pc1 pz1;
sur11 ier = PX4CIR3D lpb lpb2 pc1 pz1 (2*ref) 1.E-3;
sur12 = sur11 tour 90.0 pc1 pz1;
sur1 = sur11 et sur12;
elim tol sur1;
sur1 = orie sur1 dire pz;
*
sur2a = sur1 tour 30.0 p0 pz;
sur1s = sur1 syme plan pc1 lpb pz1;
sur1s = orie sur1s dire pz;
sur2b = sur1s tour 30.0 p0 pz;
sur2 = sur2a et sur2b;
elim tol sur2;
sur2 = orie sur2 dire pz;
sur3 = sur2 tour 30.0 p0 pz;
sur4 = sur1s tour 90.0 p0 pz;
sur1 = sur1 plus (0 0 (0 - gap2 - thl));
sur2 = sur2 plus (0 0 (0 - gap2 - thl));
sur3 = sur3 plus (0 0 (0 - gap2 - thl));
sur4 = sur4 plus (0 0 (0 - gap2 - thl));
*
hbolt = 0.06;
hboltu = hbolt - thl;
*
bolt1a = sur1 volu tran (3) (0 0 thl);
bolt1b = (sur1 plus (0 0 thl)) volu tran (4) (0 0 hboltu);
bolt1 = bolt1a et bolt1b;
elim tol (bolt1 et lframe);
bolt2a = sur2 volu tran (3) (0 0 thl);
bolt2b = (sur2 plus (0 0 thl)) volu tran (4) (0 0 hboltu);
bolt2 = bolt2a et bolt2b;
elim tol (bolt2 et lframe);
bolt3a = sur3 volu tran (3) (0 0 thl);
bolt3b = (sur3 plus (0 0 thl)) volu tran (4) (0 0 hboltu);
bolt3 = bolt3a et bolt3b;
elim tol (bolt3 et lframe);
bolt4a = sur4 volu tran (3) (0 0 thl);
bolt4b = (sur4 plus (0 0 thl)) volu tran (4) (0 0 hboltu);
bolt4 = bolt4a et bolt4b;
elim tol (bolt4 et lframe);
bolts = bolt1 et bolt2 et bolt3 et bolt4;
lframeb = lframe et bolts;
elim tol lframeb;
trac cach lframeb;
trac cach (lframeb et plate);
trac cach (lframeb et plate et uframe);
*
* pressurized clamping surfaces
*
presa = pre1 plus (0 0 (gap2 + thu));
presa = presa orie dire pz;
presb = pre3 plus (0 0 (gap2 + thu));
presb = presb orie dire pz;
presc = presb tour 30.0 p0 pz;
presd = (presa tour 90.0 p0 pz) syme plan p0 (0 1 0) pz;
presd = presd orie dire pz;
presur = presa et presb et presc et presd;
elim tol (presur et uframe);
trac cach (presur et uframe);
*
preplat = placen coul roug;
trac cach (plate et preplat);
*
oubl tol;
oubl p0;
oubl pz;
oubl p1;
oubl dhole;
oubl rhole;
oubl dext;
oubl rext;
oubl p2;

oubl p3;
oubl p4;
oubl p5;
oubl p6;
oubl p7;
oubl p8;
oubl c1;
oubl pc1;
oubl pz1;
oubl p2b;
oubl c2;
oubl c3;
oubl c4;
oubl c5;
oubl pc2;
oubl pz2;
oubl p6b;
oubl c6;
oubl c7;
oubl c8;
oubl cc0;
oubl c9a;
oubl c9b;
oubl c9;
oubl c10;
oubl cc;
oubl bas1;
oubl c11;
oubl pre1;
oubl pre2a;
oubl pc3;
oubl pre2b;
oubl pre2;
oubl pre3;
oubl pre4;
oubl baspr;
oubl bas2;
oubl baspr2;
oubl bas;
oubl gap;
oubl gap2;
oubl ubas;
oubl thu;
oubl cl2;
*
*oubl c12;
oubl dpla;
oubl rpla;
oubl p0s;
oubl p1s;
oubl p2s;
oubl p3s;
oubl p4s;
oubl p5s;
oubl p6s;
oubl p7s;
oubl p8s;
oubl p9s;
oubl p10s;
oubl p11s;
oubl p12s;
oubl p13s;
oubl p14s;
oubl p15s;
oubl p16s;
oubl p17s;
oubl p18s;
oubl p19s;
oubl nrp1;
oubl nrp2;
oubl nrp3;
*oubl qu1;
*oubl qu2;
*oubl qu3;
*oubl qu4;
oubl c1s;
oubl c2s;
oubl c3s;
oubl c4s;
oubl pla1;
oubl pla2;
oubl pla3;
oubl pla4;
oubl pla5;
oubl pla6;
oubl pla7;
oubl pla8;
oubl place;
oubl placen;
*
oubl p4p;
oubl c3p;
oubl p5p;
oubl c4p;
oubl c5p;
oubl cc0p;
oubl ccp;
oubl bas1p;
oubl bas2p;
oubl dbolt;
oubl rbolt;
oubl lpb;
oubl lpre1;

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Friday 8th September, 2023 @ 14:00

oubl lpre2a;
oubl lpre2b;
oubl lpre2;
oubl lpre3;
oubl lpre4;
oubl lbaspr;
oubl lbaspr2;
oubl lbas;
oubl thl;
oubl lobas;
oubl lframe;
oubl lpb2;
oubl sur11;
oubl ier;
oubl sur12;
oubl sur1;
oubl sur2a;
oubl sur1s;
oubl sur2b;
oubl sur2;
oubl sur3;
oubl sur4;
oubl hbolt;
oubl hboltu;
oubl bolt1a;
oubl bolt1b;
oubl bolt1;
oubl bolt2a;
oubl bolt2b;
oubl bolt2;
oubl bolt3a;
oubl bolt3b;
oubl bolt3;
oubl bolt4a;
oubl bolt4b;
oubl bolt4;
oubl bolts;
oubl presa;
oubl presb;
oubl presc;
oubl presd;
oubl ref;
list;
*
nplate = chan poi1 plate;
*
ecub8 = (lframeb et uframe) elem cub8;
epri6 = (lframeb et uframe) elem pri6;
equa4 = plate elem qua4;
etri3 = plate elem tri3;
ppqua4 = preplat elem qua4;
pptri3 = preplat elem tri3;
*
spec = lframeb et plate et uframe et presur et ppqua4 et pptri3

et nplate et ecub8 et epri6 et equa4 et etri3;

*
* We use the "DEPL spec TOUR ..." directive to rotate
* the entire mesh (spec)
* (together with its components: points/lines/parts)
* to become oriented like the fluid model, ready to be used
* (also) in a FSI calculation.
* One should NOT use the form "spec = spec TOUR ..." because only
* the main object (and NOT its components) would be rotated.
*
depl spec tour 90 (0 0 0) (0 -1 0);
*
tass spec noop;
sauv form spec;
trac cach spec;
list;
*
fin;

S2 FSI.dgibi

opti echo 0;
*opti donn ’px4cir3d.proc’;
*$$$$ PX4CIR3D
*
* Pour generer le maillage 3D (plan) d’un quart de cercle
* avec seulement des quadrilateres a 4 noeuds.
* Le quart de cercle est defini par les deux extremes
* d’un arc (de 90 degrees), par le centre du cercle
* et par un autre point qui definit l’axe de rotation
* (axe perpendiculaire au plan du cercle, passant pour son centre).
*
* Input:
* =====
* P1 = premiere extremite de l’arc
* P2 = deuxieme extremite de l’arc
* PC = centre de l’arc
* PZ = autre point de l’axe
* N
* TOL= tolerance pour l’elimination des noeuds doubles
*
* Output:
* ======
* SUR = objet MAILLAGE d’elements de type QUA4
* IER = 0: pas d’erreur, .NE.0: erreur dans la generation de SUR
*

= nombre de mailles a generer sur chaque cote (doit etre pair)

’DEBPROC’ PX4CIR3D P1*’POINT’ P2*’POINT’ PC*’POINT’ PZ*’POINT’

N*’ENTIER’ TOL*’FLOTTANT’;

*------------------------------------------------------------------
*
ier=0;
n2 = n / 2;
p0 = 0 0 0;
pm1 = p1 plus p0;
depl pm1 tour 45 pc pz;
pm2 = 0.5*(pc plus p2);
pm3 = 0.5*(pc plus p1);
pm = 0.5*(pc plus pm1);
c1a = cerc n2 p1 pc pm1;
c1b = cerc n2 pm1 pc p2;
c2a = droi n2 p2 pm2;
c2b = droi n2 pm2 pc;
c3a = droi n2 pc pm3;
c3b = droi n2 pm3 p1;
c4a = droi n2 pm pm1;
c4b = droi n2 pm pm2;
c4c = droi n2 pm pm3;
sur1 = dall plan c4c c3b c1a (inve c4a);
sur2 = dall plan c4a c1b c2a (inve c4b);
sur3 = dall plan c2b c3a (inve c4c) c4b;
sur = sur1 et sur2 et sur3;
*
elim tol sur;
*
’FINPROC’ sur ier;
************************************************************************
************************************************************************
’DEBPROC’ pxextr3d m*’MAILLAGE’ x1*’FLOTTANT’ x2*’FLOTTANT’

y1*’FLOTTANT’ y2*’FLOTTANT’
z1*’FLOTTANT’ z2*’FLOTTANT’;

: 3D mesh

box : mesh contained in the box

*
*--------------------------------------------------
* Extracts from the 3D mesh m the elements whose nodes are
* located in the box [x1-x2,y1-y2,z1-z2].
*
* Input :
* -----
m
*
*
x1, x2, y1, y2, z1, z2 : extremes of the box
* Output :
* ------
*
*--------------------------------------------------
*
x = coor 1 m;
sx = x POIN COMP x1 x2;
y = coor 2 sx;
sy = y POIN COMP y1 y2;
z = coor 3 sy;
sz = z POIN COMP z1 z2;
box = m ELEM APPU STRI sz NOVE;
*
finproc box;
************************************************************************
*
*opti donn ’px4car3d.proc’;
*$$$$ PX4CAR3D
*
* This procedure is similar to PX4CIR3D but instead of a fourth
* of a circle it generates a (fourth of a) square, homeomorphic
* to the fourth of a circle that would be generated by PX4CIR3D
* by using the same input parameters (except for PZ which is
* unused in this case).
* In this way the two surfaces (the circle and the square)
* can be connected volumetrically by the VOLU operator:
*
*
* Input:
* =====
* P1 = premiere extremite de l’arc (cote du quadrangle, ici)
* P2 = deuxieme extremite de l’arc (cote du quadrangle, ici)
* PC = centre de l’arc (quadrangle, ici)
* N
* TOL= tolerance pour l’elimination des noeuds doubles
*
* Output:
* ======
* SUR = objet MAILLAGE d’elements de type QUA4
* IER = 0: pas d’erreur, .NE.0: erreur dans la generation de SUR
*
’DEBPROC’ PX4CAR3D P1*’POINT’ P2*’POINT’ PC*’POINT’

= nombre de mailles a generer sur chaque cote (doit etre pair)

vol = cir VOLU n squ;

N*’ENTIER’ TOL*’FLOTTANT’;

*------------------------------------------------------------------
*
ier=0;
n2 = n / 2;
p0 = 0 0 0;
pm1 = p1 plus (p2 moin pc);
pm2 = 0.5*(pc plus p2);
pm3 = 0.5*(pc plus p1);
pm = 0.5*(pc plus pm1);
c1a = droi n2 p1 pm1;
c1b = droi n2 pm1 p2;
c2a = droi n2 p2 pm2;
c2b = droi n2 pm2 pc;
c3a = droi n2 pc pm3;
c3b = droi n2 pm3 p1;
c4a = droi n2 pm pm1;
c4b = droi n2 pm pm2;

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c4c = droi n2 pm pm3;
sur1 = dall plan c4c c3b c1a (inve c4a);
sur2 = dall plan c4a c1b c2a (inve c4b);
sur3 = dall plan c2b c3a (inve c4c) c4b;
sur = sur1 et sur2 et sur3;
*
elim tol sur;
*
’FINPROC’ sur ier;
************************************************************************
opti echo 1;
*
opti dime 3 elem cub8;
opti sauv form ’S2_FSI.msh’;
opti trac psc ftra ’S2_FSI_mesh.ps’;
*
tol = 1.E-5;
dia = 0.331E0;
rad = 0.5D0*dia;
cot = 0.300E0;
co2 = 0.5D0*cot;
ldr = 0.77E0;
lf1 = 0.07E0;
lf2 = 0.07E0;
ltublp = 16.195;
ltra = 0.60E0;
lp3xd = 3.5E0;
lp3x= lp3xd - ltra;
*lext= ltublp - ltra;
lext = ltublp - lp3xd;
X0 = 0.0 - (ltublp + lf1 + lf2 + ldr);
p0 = X0 0 0;
py = X0 rad 0;
pz = X0 0 rad;
p0b = X0 0 0;
pyb = X0 co2 0;
pzb = X0 0 co2;
px = ldr 0 0;
nr = 16;
h = 0.01E0;
ndr = enti ((ldr+tol) / h);
nf1 = enti ((lf1+tol) / h);
nf2 = enti ((lf2+tol) / h);
ntra = enti ((ltra+tol) / h);
n3x = enti ((lp3x+tol) / h);
fond ier = PX4CIR3D py pz p0 px nr tol;
bout ier = PX4CAR3D pyb pzb p0b nr tol;
bout = bout plus ((ldr + lf1 + lf2 + ltra) 0 0);
driver = fond volu tran ndr (ldr 0 0);
fir1 = (fond plus (ldr 0 0)) volu tran nf1 (lf1 0 0);
fir1 = coul vert (fir1);
fir2 = (fond plus ((ldr + lf1) 0 0)) volu tran nf2 (lf2 0 0);
fir2 = coul bleu (fir2);
tra = (fond plus ((ldr + lf1 + lf2) 0 0)) volu ntra bout;
trac cach qual (tra et fir1 et fir2 et driver);
*
************************************************************************
* Spurious contact surface/tube/trans for membranes
************************************************************************
*
ddr = 0.0025;
rsh = ddr;
pst1 = p0 PLUS (0 0 0);
pst2 = py PLUS (0 rsh 0);
pst3 = pz PLUS (0 0 rsh);
pst4 = px PLUS (0 0 0);
*
fondd ier = PX4CIR3D pst2 pst3 pst1 pst4 (nr) tol;
*
pst5 = p0b PLUS (0 0 0);
pst6 = pyb PLUS (0 rsh 0);
pst7 = pzb PLUS (0 0 rsh);
*
boutd ier = PX4CAR3D pst6 pst7 pst5 (nr) tol;
boutd = boutd plus ((ldr + lf1 + lf2 + ltra) 0 0);
*
tradd = (fondd plus ((ldr + lf1 + lf2) 0 0)) volu (ntra) boutd;
ndum = nf1;
fird1 = (fondd plus ((ldr-0.01) 0 0)) volu tran (ndum+1)
((lf1+0.01) 0 0);
fird2 = (fondd plus ((ldr + lf1) 0 0)) volu tran (nf2) (lf2 0 0);
*
trad = tradd et fird1 et fird2;
elim tol trad;
*
tras = enve trad;
trac cach qual trad;
*trac cach qual tras;
trac cach qual (fondd et boutd);
trac cach qual (fondd et boutd et tras);
*
************************************************************************
* Extract non-outward-directed walls from tras
************************************************************************
*
nout1 = (pxextr3d tras -16.347 -16.343 -0.001 0.175 -0.001 0.175)

COUL VERT;

nout2 = (pxextr3d tras -15.597 -15.593 -0.001 0.175 -0.001 0.175)

COUL VERT;

nout3 = (pxextr3d tras -16.347 -15.593 -0.001 0.175 -0.001 0.001)

COUL VERT;

nout4 = (pxextr3d tras -16.347 -15.593 -0.001 0.001 -0.001 0.175)

COUL VERT;

nout = nout1 et nout2 et nout3 et nout4;
pinbcm = (tras DIFF nout) COUL ROUG;
npincm = chan poi1 pinbcm;
trac cach qual (nout1 et nout2 et nout3);
trac cach qual nout;
trac cach qual pinbcm;
trac cach qual (fondd et boutd et pinbcm);
trac cach qual (tra et pinbcm);
trac cach qual (tra et npincm);
*
************************************************************************
*
boutx = bout plus ((lp3x) 0 0);
lp3xl = bout volu n3x boutx;
*
flui3d = driver et fir1 et fir2 et tra et lp3xl;
elim tol flui3d;
trac cach qual flui3d;
trac cach qual (flui3d et pinbcm);
list (nbel flui3d);
list (nbel (flui3d elem cub8));
mem1 = fond plus (ldr 0 0);
mem2 = mem1 plus (lf1 0 0);
mem3 = mem2 plus (lf2 0 0);
mems = mem1 et mem2 et mem3;
pre1 = mem1 coul jaun;
pre2 = mem2 coul jaun;
pre3 = mem3 coul jaun;
pre = pre1 et pre2 et pre3;
*
*face3d = bout PLUS (0 0 0);
face3d = boutx PLUS (0 0 0);
pface3d = chan poi1 face3d;
elim tol (pface3d et flui3d);
p1a = (0 - lext) 0 0;
trac cach qual (p1a et face3d et pinbcm);
rac3d1d = manu supe (p1a et face3d);
list (nbno rac3d1d);
list (nbno face3d);
mesh1 = mems et flui3d et pre et face3d et rac3d1d;
*
************************************************************************
*
dtub = 0.3;
rtub = 0.5 * dtub;
dext = 0.625;
rext = 0.5 * dext;
dtank = 1.6;
rtank = 0.5 * dtank;
ltan0 = -0.7;
ltan1 = 0.9;
ltanopen = 1.4;
ltan2 = 1.5;
*
*ltubhp = 0.27;
*ltublp = 16.195;
*ltube = ltubhp + ltublp;
*
nrtub = 15;
tol = 0.01 * dtub / nrtub;
*
p0 = 0 0 0;
p1 = 0 rtub 0;
p2 = 0 rtub rtub;
p3 = 0 0 rtub;
*
c1 = p0 d nrtub p1;
c2 = p1 d nrtub p2;
c3 = p2 d nrtub p3;
c4 = p3 d nrtub p0;
sflu1 = dall c1 c2 c3 c4 plan;
*
paxis = 1 0 0;
p4 = 0 rext 0;
p5 = p4 tour 45 p0 paxis;
p6 = 0 0 rext;
*
c5 = p1 d nrtub p4;
c6 = p4 c nrtub p0 p5;
c7 = p5 d nrtub p2;
c8 = p2 d nrtub p1;
sflu2 = dall c5 c6 c7 c8 plan;
*
c9 = p2 d nrtub p5;
c10 = p5 c nrtub p0 p6;
c11 = p6 d nrtub p3;
c12 = p3 d nrtub p2;
sflu3 = dall c9 c10 c11 c12 plan;
*
p7 = 0 rtank 0;
p8 = p7 tour 45 p0 paxis;
p9 = 0 0 rtank;
*
din = (rext - rtub) / nrtub;
dfi = din * dtank / dext;
dfi = dfi * 4;
c13 = p4 d p7 dini din dfin dfi;
sflu4 = c13 rota nrtub 45 p0 paxis;
*
sflu5 = sflu4 tour 45 p0 paxis;
*
sflu0 = sflu4 et sflu5;

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Friday 8th September, 2023 @ 14:00

sflu = sflu1 et sflu2 et sflu3 et sflu0;
elim tol sflu;
*
d1 = 0.01;
d2 = d1 * 8;
d3 = d2;
vtan0 = (sflu0 plus (ltan0 0 0)) volu dini d2 dfin d1

tran ((0-ltan0) 0 0);

vtan1a = sflu volu dini d1 dfin d1 tran (dtub 0 0);
vtan1b = (sflu plus (dtub 0 0)) volu dini d1 dfin d2

tran ((ltan1 - dtub) 0 0);

vtan1 = vtan1a et vtan1b;
vtanopen = (sflu plus (ltan1 0 0)) volu dini d2 dfin d3

tran (ltanopen 0 0);

vtan2 = (sflu plus ((ltan1+ltanopen) 0 0)) volu dini d3 dfin d3

tran (ltan2 0 0);

tank = vtan0 et vtan1 et vtanopen et vtan2;
elim tol tank;
*
pa1 = ltan1 rtank 0;
pa2 = (ltan1 + ltanopen) rtank 0;
cab = d pa1 pa2 dini d2 dfin d3;
abso = cab rota (2*nrtub) 90 p0 paxis;
elim tol (abso et tank);
*
************************************************************************
*
*
*p1d1 = (0 - ltube) 0 0;
*p1d2 = p1d1 plus (ltubhp 0 0);
*tubehp = p1d1 d p1d2 dini d1 dfin d1;
*lenlp3d = 0.6;
*p1d3 = (0 - lenlp3d) 0 0;
*tubelp1 = p1d2 d p1d3 dini d1 dfin d1;
*stub3d = sflu1 plus p1d3;
*tubelp3 = stub3d volu dini d1 dfin d1 tran (lenlp3d 0 0);
*tubelp = tubelp1 et tubelp3;
*
*raclp = manu supe (p1d3 et stub3d);
*
*tube = tubehp et tubelp;
*
*
p1d1 = (0 - lext) 0 0;
*p1d3 = 0 0 0;
lenlp3d = 0.6;
p1d3 = (0 - lenlp3d) 0 0;
tubelp1 = p1d1 d p1d3 dini h dfin h;
stub3d = sflu1 plus p1d3;
tubelp3 = stub3d volu dini d1 dfin d1 tran (lenlp3d 0 0);
trac cach qual (tubelp3 ET tubelp1 ET fir1);
tubelp = tubelp1 et tubelp3;
*
raclp = manu supe (p1d3 et stub3d);
*
trac cach qual (p1a et face3d et pinbcm et tubelp);
*
*tube = tubelp1;
tube = tubelp;
*
trac cach qual (tubelp1 ET p1d1 ET p1d3);
trac cach qual (tubelp1 ET p1d1 ET p1d3 et pinbcm);
*
flui = tube et tank;
elim tol flui;
trac cach tank;
trac cach flui;
*
list (nbel flui);
list (nbno flui);
list (nbel tube);
list (nbel tank);
*
elim tol (p1a et tubelp1);
*
oubl dtub;
oubl rtub;
oubl dext;
oubl rext;
oubl dtank;
oubl rtank;
oubl ltan0;
oubl ltan1;
oubl ltanopen;
oubl ltan2;
oubl ltubhp;
oubl ltube;
oubl nrpla;
oubl nrtub;
oubl tol;
oubl p0;
oubl p1;
oubl p2;
oubl p3;
oubl c1;
oubl c2;
oubl c3;
oubl c4;
oubl sflu1;
oubl p4;
oubl p5;
oubl p6;

oubl c5;
oubl c6;
oubl c7;
oubl c8;
oubl sflu2;
oubl c9;
oubl c10;
oubl c11;
oubl c12;
oubl sflu3;
oubl p7;
oubl p8;
oubl p9;
oubl din;
oubl dfi;
oubl c13;
oubl sflu4;
oubl sflu5;
oubl sflu0;
oubl sflu;
oubl d1;
oubl d2;
oubl d3;
oubl vtan0;
oubl vtan1a;
oubl vtan1b;
oubl vtan1;
oubl vtanopen;
oubl vtan2;
oubl pa1;
oubl pa2;
oubl cab;
oubl p1d1;
oubl p1d2;
oubl lenlp3d;
oubl paxis;
*
devi = flui et abso et raclp;
*
* we add a fake triangle to host a fake pinball which is never eroded
* (to avoid a bug in the code)
pfake1 = -16.300 0 0;
pfake2 = -16.297 0 0;
pfake3 = -16.2985 0.003 0;
fake = manu tri3 pfake1 pfake2 pfake3;
*
*opti rest form ’FP_LC.msh’;
*opti rest form ’FP_LAG_35.msh’;
opti rest form ’S2.msh’;
*
rest form;
*list;
mesh = devi et spec et mesh1 et fake et pinbcm et npincm;
tass mesh noop;
sauv form mesh;
list;
trac cach mesh;
*mesh = tube et mesh1 et fake et pinbcm et npincm;
*trac cach qual mesh;
*tass mesh noop;
*sauv form mesh;
*list;
*
fin;

ST EUL 10.dgibi

opti echo 0;
*opti donn ’px4cir3d.proc’;
*$$$$ PX4CIR3D
*
* Pour generer le maillage 3D (plan) d’un quart de cercle
* avec seulement des quadrilateres a 4 noeuds.
* Le quart de cercle est defini par les deux extremes
* d’un arc (de 90 degrees), par le centre du cercle
* et par un autre point qui definit l’axe de rotation
* (axe perpendiculaire au plan du cercle, passant pour son centre).
*
* Input:
* =====
* P1 = premiere extremite de l’arc
* P2 = deuxieme extremite de l’arc
* PC = centre de l’arc
* PZ = autre point de l’axe
* N
* TOL= tolerance pour l’elimination des noeuds doubles
*
* Output:
* ======
* SUR = objet MAILLAGE d’elements de type QUA4
* IER = 0: pas d’erreur, .NE.0: erreur dans la generation de SUR
*
’DEBPROC’ PX4CIR3D P1*’POINT’ P2*’POINT’ PC*’POINT’ PZ*’POINT’

= nombre de mailles a generer sur chaque cote (doit etre pair)

N*’ENTIER’ TOL*’FLOTTANT’;

*------------------------------------------------------------------
*
ier=0;
n2 = n / 2;
p0 = 0 0 0;
pm1 = p1 plus p0;
depl pm1 tour 45 pc pz;
pm2 = 0.5*(pc plus p2);
pm3 = 0.5*(pc plus p1);

255

Friday 8th September, 2023 @ 14:00

pm = 0.5*(pc plus pm1);
c1a = cerc n2 p1 pc pm1;
c1b = cerc n2 pm1 pc p2;
c2a = droi n2 p2 pm2;
c2b = droi n2 pm2 pc;
c3a = droi n2 pc pm3;
c3b = droi n2 pm3 p1;
c4a = droi n2 pm pm1;
c4b = droi n2 pm pm2;
c4c = droi n2 pm pm3;
sur1 = dall plan c4c c3b c1a (inve c4a);
sur2 = dall plan c4a c1b c2a (inve c4b);
sur3 = dall plan c2b c3a (inve c4c) c4b;
sur = sur1 et sur2 et sur3;
*
elim tol sur;
*
’FINPROC’ sur ier;
************************************************************************
************************************************************************
’DEBPROC’ pxextr3d m*’MAILLAGE’ x1*’FLOTTANT’ x2*’FLOTTANT’

y1*’FLOTTANT’ y2*’FLOTTANT’
z1*’FLOTTANT’ z2*’FLOTTANT’;

: 3D mesh

box : mesh contained in the box

*
*--------------------------------------------------
* Extracts from the 3D mesh m the elements whose nodes are
* located in the box [x1-x2,y1-y2,z1-z2].
*
* Input :
* -----
m
*
*
x1, x2, y1, y2, z1, z2 : extremes of the box
* Output :
* ------
*
*--------------------------------------------------
*
x = coor 1 m;
sx = x POIN COMP x1 x2;
y = coor 2 sx;
sy = y POIN COMP y1 y2;
z = coor 3 sy;
sz = z POIN COMP z1 z2;
box = m ELEM APPU STRI sz NOVE;
*
finproc box;
************************************************************************
*
*opti donn ’px4car3d.proc’;
*$$$$ PX4CAR3D
*
* This procedure is similar to PX4CIR3D but instead of a fourth
* of a circle it generates a (fourth of a) square, homeomorphic
* to the fourth of a circle that would be generated by PX4CIR3D
* by using the same input parameters (except for PZ which is
* unused in this case).
* In this way the two surfaces (the circle and the square)
* can be connected volumetrically by the VOLU operator:
*
*
* Input:
* =====
* P1 = premiere extremite de l’arc (cote du quadrangle, ici)
* P2 = deuxieme extremite de l’arc (cote du quadrangle, ici)
* PC = centre de l’arc (quadrangle, ici)
* N
* TOL= tolerance pour l’elimination des noeuds doubles
*
* Output:
* ======
* SUR = objet MAILLAGE d’elements de type QUA4
* IER = 0: pas d’erreur, .NE.0: erreur dans la generation de SUR
*
’DEBPROC’ PX4CAR3D P1*’POINT’ P2*’POINT’ PC*’POINT’

= nombre de mailles a generer sur chaque cote (doit etre pair)

vol = cir VOLU n squ;

N*’ENTIER’ TOL*’FLOTTANT’;

*------------------------------------------------------------------
*
ier=0;
n2 = n / 2;
p0 = 0 0 0;
pm1 = p1 plus (p2 moin pc);
pm2 = 0.5*(pc plus p2);
pm3 = 0.5*(pc plus p1);
pm = 0.5*(pc plus pm1);
c1a = droi n2 p1 pm1;
c1b = droi n2 pm1 p2;
c2a = droi n2 p2 pm2;
c2b = droi n2 pm2 pc;
c3a = droi n2 pc pm3;
c3b = droi n2 pm3 p1;
c4a = droi n2 pm pm1;
c4b = droi n2 pm pm2;
c4c = droi n2 pm pm3;
sur1 = dall plan c4c c3b c1a (inve c4a);
sur2 = dall plan c4a c1b c2a (inve c4b);
sur3 = dall plan c2b c3a (inve c4c) c4b;
sur = sur1 et sur2 et sur3;
*
elim tol sur;
*
’FINPROC’ sur ier;
************************************************************************

opti echo 1;
*
opti dime 3 elem cub8;
opti sauv form ’ST_EUL_10.msh’;
opti trac psc ftra ’ST_EUL_mesh.ps’;
*
tol = 1.E-5;
dia = 0.331E0;
rad = 0.5D0*dia;
cot = 0.300E0;
co2 = 0.5D0*cot;
ldr = 0.77E0;
lf1 = 0.07E0;
lf2 = 0.07E0;
ltublp = 16.195;
ltra = 0.60E0;
lp3xd = 3.5E0;
lp3x= lp3xd - ltra;
*lext= ltublp - ltra;
lext = ltublp - lp3xd;
X0 = 0.0 - (ltublp + lf1 + lf2 + ldr);
p0 = X0 0 0;
py = X0 rad 0;
pz = X0 0 rad;
p0b = X0 0 0;
pyb = X0 co2 0;
pzb = X0 0 co2;
px = ldr 0 0;
nr = 16;
h = 0.01E0;
ndr = enti ((ldr+tol) / h);
nf1 = enti ((lf1+tol) / h);
nf2 = enti ((lf2+tol) / h);
ntra = enti ((ltra+tol) / h);
n3x = enti ((lp3x+tol) / h);
fond ier = PX4CIR3D py pz p0 px nr tol;
bout ier = PX4CAR3D pyb pzb p0b nr tol;
bout = bout plus ((ldr + lf1 + lf2 + ltra) 0 0);
driver = fond volu tran ndr (ldr 0 0);
fir1 = (fond plus (ldr 0 0)) volu tran nf1 (lf1 0 0);
fir1 = coul vert (fir1);
fir2 = (fond plus ((ldr + lf1) 0 0)) volu tran nf2 (lf2 0 0);
fir2 = coul bleu (fir2);
tra = (fond plus ((ldr + lf1 + lf2) 0 0)) volu ntra bout;
trac cach qual (tra et fir1 et fir2 et driver);
*
************************************************************************
* Spurious contact surface/tube/trans for membranes
************************************************************************
*
ddr = 0.0025;
rsh = ddr;
pst1 = p0 PLUS (0 0 0);
pst2 = py PLUS (0 rsh 0);
pst3 = pz PLUS (0 0 rsh);
pst4 = px PLUS (0 0 0);
*
fondd ier = PX4CIR3D pst2 pst3 pst1 pst4 (nr) tol;
*
pst5 = p0b PLUS (0 0 0);
pst6 = pyb PLUS (0 rsh 0);
pst7 = pzb PLUS (0 0 rsh);
*
boutd ier = PX4CAR3D pst6 pst7 pst5 (nr) tol;
boutd = boutd plus ((ldr + lf1 + lf2 + ltra) 0 0);
*
tradd = (fondd plus ((ldr + lf1 + lf2) 0 0)) volu (ntra) boutd;
ndum = nf1;
fird1 = (fondd plus ((ldr-0.01) 0 0)) volu tran (ndum+1)
((lf1+0.01) 0 0);
fird2 = (fondd plus ((ldr + lf1) 0 0)) volu tran (nf2) (lf2 0 0);
*
trad = tradd et fird1 et fird2;
elim tol trad;
*
tras = enve trad;
trac cach qual trad;
*trac cach qual tras;
trac cach qual (fondd et boutd);
trac cach qual (fondd et boutd et tras);
*
************************************************************************
* Extract non-outward-directed walls from tras
************************************************************************
*
nout1 = (pxextr3d tras -16.347 -16.343 -0.001 0.175 -0.001 0.175)

COUL VERT;

nout2 = (pxextr3d tras -15.597 -15.593 -0.001 0.175 -0.001 0.175)

COUL VERT;

nout3 = (pxextr3d tras -16.347 -15.593 -0.001 0.175 -0.001 0.001)

COUL VERT;

nout4 = (pxextr3d tras -16.347 -15.593 -0.001 0.001 -0.001 0.175)

COUL VERT;

nout = nout1 et nout2 et nout3 et nout4;
pinbcm = (tras DIFF nout) COUL ROUG;
npincm = chan poi1 pinbcm;
trac cach qual (nout1 et nout2 et nout3);
trac cach qual nout;
trac cach qual pinbcm;
trac cach qual (fondd et boutd et pinbcm);
trac cach qual (tra et pinbcm);
trac cach qual (tra et npincm);
*

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Friday 8th September, 2023 @ 14:00

************************************************************************
*
boutx = bout plus ((lp3x) 0 0);
lp3xl = bout volu n3x boutx;
*
flui3d = driver et fir1 et fir2 et tra et lp3xl;
elim tol flui3d;
trac cach qual flui3d;
trac cach qual (flui3d et pinbcm);
list (nbel flui3d);
list (nbel (flui3d elem cub8));
mem1 = fond plus (ldr 0 0);
mem2 = mem1 plus (lf1 0 0);
mem3 = mem2 plus (lf2 0 0);
mems = mem1 et mem2 et mem3;
pre1 = mem1 coul jaun;
pre2 = mem2 coul jaun;
pre3 = mem3 coul jaun;
pre = pre1 et pre2 et pre3;
*
*face3d = bout PLUS (0 0 0);
face3d = boutx PLUS (0 0 0);
pface3d = chan poi1 face3d;
elim tol (pface3d et flui3d);
p1a = (0 - lext) 0 0;
trac cach qual (p1a et face3d et pinbcm);
rac3d1d = manu supe (p1a et face3d);
list (nbno rac3d1d);
list (nbno face3d);
mesh1 = mems et flui3d et pre et face3d et rac3d1d;
*
************************************************************************
*
dtub = 0.3;
rtub = 0.5 * dtub;
dext = 0.625;
rext = 0.5 * dext;
dtank = 1.6;
rtank = 0.5 * dtank;
ltan0 = -0.7;
ltan1 = 0.9;
ltanopen = 1.4;
ltan2 = 1.6;
*
*ltubhp = 0.27;
*ltublp = 16.195;
*ltube = ltubhp + ltublp;
*
*nrtub = 15;
nrtub = 2 * 15;
tol = 0.01 * dtub / nrtub;
*
p0 = 0 0 0;
p1 = 0 rtub 0;
p2 = 0 rtub rtub;
p3 = 0 0 rtub;
*
c1 = p0 d nrtub p1;
c2 = p1 d nrtub p2;
c3 = p2 d nrtub p3;
c4 = p3 d nrtub p0;
sflu1 = dall c1 c2 c3 c4 plan;
*
trac cach qual sflu1;
*
paxis = 1 0 0;
p4 = 0 rext 0;
p5 = p4 tour 45 p0 paxis;
p6 = 0 0 rext;
*
c5 = p1 d nrtub p4;
c6 = p4 c nrtub p0 p5;
c7 = p5 d nrtub p2;
c8 = p2 d nrtub p1;
*sflu2 = dall c5 c6 c7 c8 plan;
*
*trac cach qual sflu2;
*trac cach qual (sflu1 et sflu2);
*
c9 = p2 d nrtub p5;
c10 = p5 c nrtub p0 p6;
c11 = p6 d nrtub p3;
c12 = p3 d nrtub p2;
*sflu3 = dall c9 c10 c11 c12 plan;
*
*trac cach qual sflu3;
*trac cach qual (sflu1 et sflu2 et sflu3);
*
p7 = 0 rtank 0;
p8 = p7 tour 45 p0 paxis;
p9 = 0 0 rtank;
*
din = (rext - rtub) / nrtub;
dfi = din * dtank / dext;
*dfi = dfi * 4;
dfi = dfi * 4 * 2;
c13 = p4 d p7 dini din dfin dfi;
*sflu4 = c13 rota nrtub 45 p0 paxis;
*
*trac cach qual sflu4;
*trac cach qual (sflu1 et sflu2 et sflu3 et sflu4);
*

tran (ltan2 0 0);

tran (ltan2 0 0);

tran (ltanopen 0 0);

tran ((0-ltan0) 0 0);

tran ((dtub-(2*dp1)) 0 0);

tran ((ltan1 - dtub) 0 0);

*sflu5 = sflu4 tour 45 p0 paxis;
*
*sflu0 = sflu4 et sflu5;
*sflu = sflu1 et sflu2 et sflu3 et sflu0;
sflu = sflu1;
*
*trac cach qual sflu5;
*trac cach qual (sflu);
*elim tol sflu;
*
*d1 = 0.01;
d1 = 0.005;
d2 = d1 * 8;
d3 = d2;
dp1 = 0.03;
*vtan0 = (sflu0 plus (ltan0 0 0)) volu dini d2 dfin d1
*
*vtan01 = sflu0 volu dini d1 dfin d1 tran ((2*dp1) 0 0);
*vtan03 = (sflu1 plus (dp1 0 0)) volu dini d1 dfin d1 tran (dp1 0 0);
*vtan1a = (sflu plus ((2*dp1) 0 0)) volu dini d1 dfin d1
*
*vtan1b = (sflu plus (dtub 0 0)) volu dini d1 dfin d2
*
*vtan1 = vtan1a et vtan1b;
**vtanopen = (sflu plus (ltan1 0 0)) volu dini d2 dfin d3
**
**vtan2 = (sflu plus ((ltan1+ltanopen) 0 0)) volu dini d3 dfin d3
**
*vtan2 = (sflu plus (ltan1 0 0)) volu dini d3 dfin d3
*
*
*p0 = 0 0 0;
*p1 = 0 rtub 0;
*p2 = 0 rtub rtub;
*p3 = 0 0 rtub;
*
*p4s = 0 0.06 0;
*p6s = 0 0 0.06;
*p7s = 0 0.06 0.06;
*
*nrp2 = 6;
*nrp2 = 2 * 6;
*
*c1s = p0 d nrp2 p4s;
*c2s = p4s d nrp2 p7s;
*c3s = p7s d nrp2 p6s;
*c4s = p6s d nrp2 p0;
*
*pla1 = dall c1s c2s c3s c4s plan;
*
*vtan02 = pla1 volu dini d1 dfin d1 tran (dp1 0 0);
*
*tank = vtan0 et vtan1 et vtanopen et vtan2 et vtan01 et vtan02;
*tank = vtan0 et vtan1 et vtan2 et vtan01 et vtan02 et vtan03;
*
*trac cach qual tank;
*
*trac cach qual sflu5;
*trac cach qual (sflu);
*trac cach qual (sflu et vtan0);
*trac cach qual (sflu et vtan0 et vtan01);
*trac cach qual (sflu et vtan0 et vtan01 et vtan02);
*trac cach qual (sflu et vtan0 et vtan01 et vtan02 et vtan03);
*trac cach qual (sflu et vtan0 et vtan01 et vtan02 et vtan03
*
*trac cach qual (sflu et vtan0 et vtan1a et vtan1);
*trac cach qual (sflu et vtan0 et vtan1a et vtan1 et vtan2);
*trac cach qual (sflu et vtan0 et vtan1a et vtan1 et vtanopen et vtan2);
*elim tol tank;
*trac cach qual (sflu et vtan0 et vtan1a et vtan1 et vtanopen et vtan2);
*trac cach qual (sflu et vtan0 et vtan1a et vtan1 et vtan2);
*elim tol tank;
*trac cach qual (sflu et vtan0 et vtan1a et vtan1 et vtan2);
*trac cach qual tank;
*
*pa1 = ltan1 rtank 0;
*pa2 = (ltan1 + ltanopen) rtank 0;
*pa2 = (ltan1 + ltanopen) rtank 0;
*cab = d pa1 pa2 dini d2 dfin d3;
*abso = cab rota (2*nrtub) 90 p0 paxis;
*elim tol (abso et tank);
*
************************************************************************
*
*
*p1d1 = (0 - ltube) 0 0;
*p1d2 = p1d1 plus (ltubhp 0 0);
*tubehp = p1d1 d p1d2 dini d1 dfin d1;
*lenlp3d = 0.6;
*p1d3 = (0 - lenlp3d) 0 0;
*tubelp1 = p1d2 d p1d3 dini d1 dfin d1;
*stub3d = sflu1 plus p1d3;
*tubelp3 = stub3d volu dini d1 dfin d1 tran (lenlp3d 0 0);
*tubelp = tubelp1 et tubelp3;
*
*raclp = manu supe (p1d3 et stub3d);
*
*tube = tubehp et tubelp;
*
*
p1d1 = (0 - lext) 0 0;
*p1d3 = 0 0 0;
lenlp3d = 0.6;

et vtan1a);

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Friday 8th September, 2023 @ 14:00

p1d3 = (0 - lenlp3d) 0 0;
tubelp1 = p1d1 d p1d3 dini h dfin h;
stub3d = sflu1 plus p1d3;
tubelp3 = stub3d volu dini d1 dfin d1 tran (lenlp3d 0 0);
*
trac cach qual stub3d;
trac cach qual (sflu et stub3d);
trac cach qual (sflu et stub3d et tubelp3);
*
trac cach qual (tubelp3 ET tubelp1 ET fir1);
tubelp = tubelp1 et tubelp3;
*
trac cach qual (sflu et stub3d et tubelp3 et tubelp1);
*
raclp = manu supe (p1d3 et stub3d);
*
list (nbno raclp);
list (nbno stub3d);
*
trac cach qual (p1a et face3d et pinbcm et tubelp);
*
*tube = tubelp1;
tube = tubelp;
*
trac cach qual (tubelp1 ET p1d1 ET p1d3);
trac cach qual (tubelp1 ET p1d1 ET p1d3 et pinbcm);
*
*flui = tube et tank;
flui = tube;
elim tol flui;
*trac cach tank;
trac cach flui;
*
list (nbel flui);
list (nbno flui);
list (nbel tube);
*list (nbel tank);
*
elim tol (p1a et tubelp1);
*
oubl dtub;
oubl rtub;
oubl dext;
oubl rext;
oubl dtank;
oubl rtank;
oubl ltan0;
oubl ltan1;
oubl ltanopen;
oubl ltan2;
oubl ltubhp;
oubl ltube;
oubl nrpla;
oubl nrtub;
oubl tol;
oubl p0;
oubl p1;
oubl p2;
oubl p3;
oubl c1;
oubl c2;
oubl c3;
oubl c4;
oubl sflu1;
oubl p4;
oubl p5;
oubl p6;
oubl c5;
oubl c6;
oubl c7;
oubl c8;
*oubl sflu2;
oubl c9;
oubl c10;
oubl c11;
oubl c12;
*oubl sflu3;
oubl p7;
oubl p8;
oubl p9;
oubl din;
oubl dfi;
oubl c13;
*oubl sflu4;
*oubl sflu5;
*oubl sflu0;
oubl sflu;
oubl d1;
oubl d2;
oubl d3;
*oubl vtan0;
*oubl vtan1a;
*oubl vtan1b;
*oubl vtan1;
*oubl vtanopen;
*oubl vtan2;
*oubl pa1;
*oubl pa2;
oubl cab;
oubl p1d1;
oubl p1d2;
oubl lenlp3d;

oubl paxis;
*
*devi = flui et abso et raclp;
devi = flui et raclp;
*
* we add a fake triangle to host a fake pinball which is never eroded
* (to avoid a bug in the code)
*pfake1 = -16.300 0 0;
*pfake2 = -16.297 0 0;
*pfake3 = -16.2985 0.003 0;
*fake = manu tri3 pfake1 pfake2 pfake3;
*
*opti rest form ’P1.msh’;
*rest form;
*list;
*mesh = devi et spec et mesh1 et fake et pinbcm et npincm;
mesh = devi et mesh1 et pinbcm et npincm;
tass mesh noop;
sauv form mesh;
list;
trac cach mesh;
*mesh = tube et mesh1 et fake et pinbcm et npincm;
*trac cach qual mesh;
*tass mesh noop;
*sauv form mesh;
*list;
*
fin;

ST EUL 10.epx

ST_EUL_10
ECHO
!CONV win
CAST mesh
TRID EULE
!EROS 1.0
DIME

JONC 1180 ! Total n. of nodes in a TUBM juncton
NALE 1 NBLE 1
TERM

GEOM ! T3GS fake

CUVF flui3d tubelp3 ! tank
TUVF tubelp1
CL3D face3d stub3d ! pre
TUBM rac3d1d raclp

TERM
COMP ! EPAI 3.00E-3 LECT fake TERM

DIAM DROI 0.1692568 LECT tubelp1 TERM
RACC TUBM LECT rac3d1d TERM

NTUB LECT p1a
FACE LECT face3d TERM COEF 1.0

TERM DTUB 0.1692568

RACC TUBM LECT raclp

NTUB LECT p1d3
FACE LECT stub3d TERM COEF 1.0

TERM
TERM DTUB 0.1692568

! Attention: the TUBM element (raclp) is NOT included
! in the "mesh" object (although it IS indeed passed in from Cast3m).
! For this reason we must add it explicitly in the GROU directive below
! if we want to have it in the extracted element groups.

GROU 17 ’endtube’ LECT tube TERM COND XB GT -0.6

’trigger’ LECT tube TERM COND NEAR POIN -0.1501 0 0
’frefine’ LECT flui TERM COND XB GT -0.3
1.0

COND XB LT

’S1’ LECT tube TERM COND NEAR POIN 0 0 0.12
’S2’ LECT tube TERM COND NEAR POIN 0 0 0.06
’S3’ LECT tube TERM COND NEAR POIN 0 0 0
’S4’ LECT tube TERM COND NEAR POIN 0 0.06 0.12
’S5’ LECT tube TERM COND NEAR POIN 0 0.06 0.06
’S6’ LECT tube TERM COND NEAR POIN 0 0.06 0
’S7’ LECT tube TERM COND NEAR POIN 0 0.12 0.12
’S8’ LECT tube TERM COND NEAR POIN 0 0.12 0.06
’S9’ LECT tube TERM COND NEAR POIN 0 0.12 0
’S01’ LECT tube TERM COND NEAR POIN -0.245 0 0.15
’S02’ LECT tube TERM COND NEAR POIN -0.345 0 0.15
’epar1’ LECT tubelp1 TERM COND NEAR NODE LECT p1a TERM
’epar2’ LECT tubelp1 TERM COND NEAR NODE LECT p1d3 TERM
’tubelpp’ LECT tubelp1 DIFF epar1 epar2 TERM

NGRO 1 ’pt0’ LECT tube TERM COND NEAR POIN -16.19999 0.0 0.0
COUL TURQ LECT tube tra lp3xl TERM

VERT LECT fir2 TERM
ROSE LECT fir1 TERM
ROUG LECT driver TERM

ROSE LECT S1 S2 S3 S4 S5 S6 S7 S8 S9 S01 S02 TERM

MATE

!LOI 2

GAZP RO 13.445 GAMM 1.4 CV 719.286 PINI 11.36E5 PREF 9.968E4

LECT none TERM

!LOI 3

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 4

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT none TERM

!LOI 5

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT flui3d TERM ! _cuvf TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT epar1 epar2 TERM

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT rac3d1d raclp tubelpp TERM

PARO PSIL 0.02

LECT tubelpp TERM
MULT 6 7 LECT tubelpp TERM

258

Friday 8th September, 2023 @ 14:00

! In order to obtain a printout at least of the 3D VFCCs I am obliged
! to use a different material for tubelp3 and other 3D parts, but with
! the same characteristics as the material used for tubelp1

GAZP RO 1.179 GAMM 1.4 CV 719.286 PINI 9.968E4 PREF 9.968E4

LECT tubelp3 _cuvf TERM ! tank _cuvf TERM

INIT MAPP FORM ’D7710600mape_01.map’ MATC OBJE LECT flui3d tubelp1 TERM
ECRI DEPL VITE ECRO FAIL TFRE 0.25E-3
POIN LECT pt0 TERM
ELEM LECT S1 TERM

FICH ALIC TEMP TFRE 1.e-5

FICH ALIT ’./D7710600eule.alt’ FREQ 0 TFRE 0.D0
FICH ALIT FREQ 0 TFRE 0.D0

TIME PROG 0.D0 PAS 0.5D-3 22.D-3 PAS 0.01D-3 60.D-3
PAS 1.D-3 120.D-3
POIN LECT pt0 TERM
ELEM LECT S1 S2 S3 S4 S5 S6 S7 S8 S9 S01 S02 TERM

FICH PVTK ’./D7710600eule.pvd’ FREQ 0 TFRE 0.D0
Fichier PVTK TFREQ

10.0e-3

GROU AUTO
VARI DEPL VITE FAIL ACCE VCVI CONT ECRO FLIA

!
!
!
!

!
!
!
!

FICH SPLI ALIC TFRE 0.5E-3

OPTI NOTE CSTA 0.25

LOG 1
VFCC FCON 6 ! hllc solver

ORDR 2 ! order in space
STPS 2 ! order in time
RECO 1
NTIL
CALC TINI 0 TEND 44.0E-3
FIN

ST EUL 10p.epx

ST_EUL_10p
ECHO
RESU SPLI ALIC TEMP ’ST_EUL_10.alt’ GARD PSCR
SORT GRAP
AXTE 1.0 ’Time [s]’
COUR 1 ’S1’ ECRO COMP 1 LECT S1 TERM ! Sensors 1 to 0
COUR 2 ’S2’ ECRO COMP 1 LECT S2 TERM
COUR 3 ’S3’ ECRO COMP 1 LECT S3 TERM
COUR 4 ’S4’ ECRO COMP 1 LECT S4 TERM
COUR 5 ’S5’ ECRO COMP 1 LECT S5 TERM
COUR 6 ’S6’ ECRO COMP 1 LECT S6 TERM
COUR 7 ’S7’ ECRO COMP 1 LECT S7 TERM
COUR 8 ’S8’ ECRO COMP 1 LECT S8 TERM
COUR 9 ’S9’ ECRO COMP 1 LECT S9 TERM
TRAC 1 2 3 4 5 6 7 8 9 AXES 1.0 ’Sensors’

XMIN 32.E-3 XMAX 44.E-3 NX 12 YZER
COLO turq rose roug bleu noir vert turq rose roug
THIC 0.8 0.8 0.8 0.8 0.8 0.8 0.8 0.8 0.8

COUR 10 ’Pave’ MEAN 9 1 2 3 4 5 6 7 8 9 ! Take the average
TRAC 10 AXES 1.0 ’Average’

XMIN 32.E-3 XMAX 44.E-3 NX 12 YZER

COUR 11 ’Sub’ SUBC 10 0.9968e5
COUR 12 ’Pressure’ MOVE 11 -33.0e-3
TRAC 12 AXES 1.0 ’Pres [Pa]’ YZER

! Subtract ambient pressure
! Shift in time
! This is the final result

COLO BLEU
THIC 0.8

LIST 12 AXES 1.0 ’Pres [Pa]’ YZER
QUAL COUR 12 REFE
FIN

0.00000E+00 TOLE 1.E-2

259

Friday 8th September, 2023 @ 14:00

List of input ﬁles

Symbols
1d3d14.dgibi . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 161
1d3d14.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 161
1d3d14p.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 161
1d3d24.dgibi . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 161
1d3d24.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 162
1d3d24p.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 162
1d3d34.dgibi . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 162
1d3d34.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 162
1d3d34p.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 163
1d3d44.dgibi . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 163
1d3d44.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 163
1d3d44p.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 163
1d3d54.dgibi . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 163
1d3d54.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 164
1d3d54p.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 164
1d3d64.dgibi . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 164
1d3d64.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 164
1d3d64p.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 165

D
D14 S2 10.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 165
D14 S2 10 FP.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 165
D14 S2 10 FPw.epx . . . . . . . . . . . . . . . . . . . . . . . . . 167
D14 S2 10 FPx.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 167
D14 S2 10 FPy.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 167
D14 S2 10 FPyy.epx . . . . . . . . . . . . . . . . . . . . . . . . . 167
D14 S2 10 FPz1.epx . . . . . . . . . . . . . . . . . . . . . . . . . 168
D14 S2 10 FPz2.epx . . . . . . . . . . . . . . . . . . . . . . . . . 168
D14 S2 10 z1.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . 168
D14 S2 10 z2.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . 168
D14 S2 10f.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 169
D14 S2 15.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 169
D14 S2 15 FP.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 170
D14 S2 15 FPw.epx . . . . . . . . . . . . . . . . . . . . . . . . . 171
D14 S2 15 FPx.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 171
D14 S2 15 FPy.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 171
D14 S2 15 FPyy.epx . . . . . . . . . . . . . . . . . . . . . . . . . 171
D14 S2 15 FPz1.epx . . . . . . . . . . . . . . . . . . . . . . . . . 172
D14 S2 15 FPz2.epx . . . . . . . . . . . . . . . . . . . . . . . . . 172
D14 S2 15 z1.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . 172
D14 S2 15 z2.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . 172
D14 S2 15f.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 173
D14 S2 25.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 173
D14 S2 25 FP.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 174
D14 S2 25 FPw.epx . . . . . . . . . . . . . . . . . . . . . . . . . 175
D14 S2 25 FPx.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 175
D14 S2 25 FPy.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 175
D14 S2 25 FPyy.epx . . . . . . . . . . . . . . . . . . . . . . . . . 175
D14 S2 25 FPz1.epx . . . . . . . . . . . . . . . . . . . . . . . . . 175
D14 S2 25 FPz2.epx . . . . . . . . . . . . . . . . . . . . . . . . . 176

D14 S2 25 z1.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . 176
D14 S2 25 z2.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . 176
D14 S2 25f.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 177
D14 S2 35.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 177
D14 S2 35 FPN.epx . . . . . . . . . . . . . . . . . . . . . . . . . 178
D14 S2 35 FPNw.epx. . . . . . . . . . . . . . . . . . . . . . . .179
D14 S2 35 FPNx.epx . . . . . . . . . . . . . . . . . . . . . . . . 179
D14 S2 35 FPNy.epx . . . . . . . . . . . . . . . . . . . . . . . . 179
D14 S2 35 FPNyy.epx . . . . . . . . . . . . . . . . . . . . . . . 179
D14 S2 35 FPNz1.epx . . . . . . . . . . . . . . . . . . . . . . . 180
D14 S2 35 FPNz2.epx . . . . . . . . . . . . . . . . . . . . . . . 180
D14 S2 35 z1.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . 180
D14 S2 35 z2.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . 180
D14 S2 35f.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 181
D6 S2 10.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 181
D6 S2 10 FP.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . 182
D6 S2 10 FPw.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 183
D6 S2 10 FPx.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 183
D6 S2 10 FPy.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 183
D6 S2 10 FPyy.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 183
D6 S2 10 FPz1.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 184
D6 S2 10 FPz2.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 184
D6 S2 10 z1.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 184
D6 S2 10 z2.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 185
D6 S2 10f.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 185
D6 S2 15.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 185
D6 S2 15 FP.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . 186
D6 S2 15 FPw.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 187
D6 S2 15 FPx.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 187
D6 S2 15 FPy.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 187
D6 S2 15 FPyy.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 187
D6 S2 15 FPz1.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 188
D6 S2 15 FPz2.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 188
D6 S2 15 z1.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 188
D6 S2 15 z2.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 189
D6 S2 15f.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 189
D6 S2 25.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 189
D6 S2 25 FP.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . 190
D6 S2 25 FPw.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 191
D6 S2 25 FPx.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 191
D6 S2 25 FPy.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 191
D6 S2 25 FPyy.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 191
D6 S2 25 FPz1.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 192
D6 S2 25 FPz2.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 192
D6 S2 25 z1.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 192
D6 S2 25 z2.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 193
D6 S2 25f.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 193
D6 S2 35.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 193
D6 S2 35 FG.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . 194
D6 S2 35 FG2.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 195

260

Friday 8th September, 2023 @ 14:00

D6 S2 35 FG2 C.epx . . . . . . . . . . . . . . . . . . . . . . . . 196
D6 S2 35 FG2 Cw.epx. . . . . . . . . . . . . . . . . . . . . . .197
D6 S2 35 FG2 Cx.epx . . . . . . . . . . . . . . . . . . . . . . . 197
D6 S2 35 FG2 Cy.epx . . . . . . . . . . . . . . . . . . . . . . . 197
D6 S2 35 FG2 Cyy.epx . . . . . . . . . . . . . . . . . . . . . . 197
D6 S2 35 FG2w.epx . . . . . . . . . . . . . . . . . . . . . . . . . 198
D6 S2 35 FG2x.epx . . . . . . . . . . . . . . . . . . . . . . . . . 198
D6 S2 35 FG2y.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 198
D6 S2 35 FG2yy.epx . . . . . . . . . . . . . . . . . . . . . . . . 198
D6 S2 35 FG C.epx . . . . . . . . . . . . . . . . . . . . . . . . . 199
D6 S2 35 FG CSVF.epx . . . . . . . . . . . . . . . . . . . . . 200
D6 S2 35 FG CSVFw.epx . . . . . . . . . . . . . . . . . . . 201
D6 S2 35 FG CSVFx.epx . . . . . . . . . . . . . . . . . . . . 201
D6 S2 35 FG CSVFy.epx . . . . . . . . . . . . . . . . . . . . 201
D6 S2 35 FG CSVFyy.epx . . . . . . . . . . . . . . . . . . . 201
D6 S2 35 FG Cw.epx . . . . . . . . . . . . . . . . . . . . . . . . 202
D6 S2 35 FG Cx.epx . . . . . . . . . . . . . . . . . . . . . . . . 202
D6 S2 35 FG Cy.epx . . . . . . . . . . . . . . . . . . . . . . . . 202
D6 S2 35 FG Cyy.epx . . . . . . . . . . . . . . . . . . . . . . . 202
D6 S2 35 FGw.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 203
D6 S2 35 FGx.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 203
D6 S2 35 FGy.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 203
D6 S2 35 FGyy.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 203
D6 S2 35 FP.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . 204
D6 S2 35 FP C.epx. . . . . . . . . . . . . . . . . . . . . . . . . .205
D6 S2 35 FP Cw.epx . . . . . . . . . . . . . . . . . . . . . . . . 206
D6 S2 35 FP Cx.epx . . . . . . . . . . . . . . . . . . . . . . . . 206
D6 S2 35 FP Cy.epx. . . . . . . . . . . . . . . . . . . . . . . . .206
D6 S2 35 FP Cyy.epx . . . . . . . . . . . . . . . . . . . . . . . 207
D6 S2 35 FPN.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 207
D6 S2 35 FPNw.epx . . . . . . . . . . . . . . . . . . . . . . . . . 208
D6 S2 35 FPNx.epx . . . . . . . . . . . . . . . . . . . . . . . . . 208
D6 S2 35 FPNy.epx . . . . . . . . . . . . . . . . . . . . . . . . . 208
D6 S2 35 FPNyy.epx . . . . . . . . . . . . . . . . . . . . . . . . 208
D6 S2 35 FPNz1.epx . . . . . . . . . . . . . . . . . . . . . . . . 209
D6 S2 35 FPNz2.epx . . . . . . . . . . . . . . . . . . . . . . . . 209
D6 S2 35 FPw.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 209
D6 S2 35 FPx.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 210
D6 S2 35 FPy.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 210
D6 S2 35 FPyy.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 210
D6 S2 35 z1.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 210
D6 S2 35 z2.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 210
D6 S2 35f.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 211
D7705600map.dgibi. . . . . . . . . . . . . . . . . . . . . . . . . .211
D7705600map.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 213
D7705600mapw.epx . . . . . . . . . . . . . . . . . . . . . . . . . 214
D7705600mapx.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 214
D7705600mapy.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 214
D7710600mapa.dgibi . . . . . . . . . . . . . . . . . . . . . . . . 214
D7710600mapa.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 216
D7710600mapaw.epx . . . . . . . . . . . . . . . . . . . . . . . . 217
D7710600mapax.epx . . . . . . . . . . . . . . . . . . . . . . . . . 217
D7710600mapay.epx . . . . . . . . . . . . . . . . . . . . . . . . . 217

D7710600mapb.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 217
D7710600mapbw.epx . . . . . . . . . . . . . . . . . . . . . . . . 219
D7710600mapbx.epx . . . . . . . . . . . . . . . . . . . . . . . . . 219
D7710600mapby.epx . . . . . . . . . . . . . . . . . . . . . . . . . 219
D7710600mapc.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 219
D7710600mapcw.epx . . . . . . . . . . . . . . . . . . . . . . . . 220
D7710600mapcx.epx . . . . . . . . . . . . . . . . . . . . . . . . . 221
D7710600mapcy.epx . . . . . . . . . . . . . . . . . . . . . . . . . 221
D7710600mapd.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 221
D7710600mapdw.epx . . . . . . . . . . . . . . . . . . . . . . . . 222
D7710600mapdx.epx. . . . . . . . . . . . . . . . . . . . . . . . .222
D7710600mapdy.epx . . . . . . . . . . . . . . . . . . . . . . . . . 222
D7710600mape.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 223
D7710600mapew.epx . . . . . . . . . . . . . . . . . . . . . . . . 224
D7710600mapex.epx . . . . . . . . . . . . . . . . . . . . . . . . . 224
D7710600mapey.epx . . . . . . . . . . . . . . . . . . . . . . . . . 224
D7710600mapey2.epx . . . . . . . . . . . . . . . . . . . . . . . . 224
D7710600mapey3.epx . . . . . . . . . . . . . . . . . . . . . . . . 225
D7710600mapf.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 225
D7710600mapfw.epx . . . . . . . . . . . . . . . . . . . . . . . . . 226
D7710600mapfx.epx . . . . . . . . . . . . . . . . . . . . . . . . . 226
D7710600mapfy.epx . . . . . . . . . . . . . . . . . . . . . . . . . 226
D7710600mapg.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 227
D7710600mapgm.epx . . . . . . . . . . . . . . . . . . . . . . . . 228
D7710600mapgw.epx . . . . . . . . . . . . . . . . . . . . . . . . 228
D7710600mapgx.epx . . . . . . . . . . . . . . . . . . . . . . . . . 228
D7710600mapgy.epx . . . . . . . . . . . . . . . . . . . . . . . . . 228
D7710600maph.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 228
D7710600maphw.epx . . . . . . . . . . . . . . . . . . . . . . . . 230
D7710600maphx.epx. . . . . . . . . . . . . . . . . . . . . . . . .230
D7710600maphy.epx . . . . . . . . . . . . . . . . . . . . . . . . . 230
D7710600mapi.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 230
D7710600mapiw.epx . . . . . . . . . . . . . . . . . . . . . . . . . 231
D7710600mapix.epx . . . . . . . . . . . . . . . . . . . . . . . . . 232
D7710600mapiy.epx . . . . . . . . . . . . . . . . . . . . . . . . . 232
D7710600mapj.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 232
D7710600mapjv.epx . . . . . . . . . . . . . . . . . . . . . . . . . 233
D7710600mapjw.epx. . . . . . . . . . . . . . . . . . . . . . . . .234
D7710600mapjx.epx . . . . . . . . . . . . . . . . . . . . . . . . . 234
D7710600mapjy.epx . . . . . . . . . . . . . . . . . . . . . . . . . 234
D7710600mapjzz.epx . . . . . . . . . . . . . . . . . . . . . . . . 234
D7710600mapk.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 235
D7710600mapkw.epx . . . . . . . . . . . . . . . . . . . . . . . . 236
D7710600mapkx.epx . . . . . . . . . . . . . . . . . . . . . . . . . 236
D7710600mapky.epx . . . . . . . . . . . . . . . . . . . . . . . . . 236
D7710600mapl.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 236
D7710600maplw.epx . . . . . . . . . . . . . . . . . . . . . . . . . 237
D7710600maplx.epx . . . . . . . . . . . . . . . . . . . . . . . . . 238
D7710600maply.epx . . . . . . . . . . . . . . . . . . . . . . . . . 238
D7710600maply2.epx . . . . . . . . . . . . . . . . . . . . . . . . 238
D7710600mapmy3.epx . . . . . . . . . . . . . . . . . . . . . . . 238
D7710600mapn.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 239
D7710600mapnw.epx . . . . . . . . . . . . . . . . . . . . . . . . 240

261

Friday 8th September, 2023 @ 14:00

D7710600mapnx.epx. . . . . . . . . . . . . . . . . . . . . . . . .240
D7710600mapny.epx . . . . . . . . . . . . . . . . . . . . . . . . . 240
D7710600mapnzz.epx . . . . . . . . . . . . . . . . . . . . . . . . 240
D7710600mapo.epx . . . . . . . . . . . . . . . . . . . . . . . . . . 241
D7710600mapov.epx . . . . . . . . . . . . . . . . . . . . . . . . . 242
D7710600mapow.epx . . . . . . . . . . . . . . . . . . . . . . . . 242
D7710600mapox.epx . . . . . . . . . . . . . . . . . . . . . . . . . 242
D7710600mapoy.epx . . . . . . . . . . . . . . . . . . . . . . . . . 243
D7710600mapozz.epx . . . . . . . . . . . . . . . . . . . . . . . . 243
dero00.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 243
dero01.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 243
dero02.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 243
dero03.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 244

L
log2plot mape.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 244
log2plot mapf.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 244
log2plot mapj.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 244
log2plot mapk.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 245
log2plot mapl.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 245
log2plot mapn.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 245
log2plot mapo.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . 246

M
mamu01.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 246
matr01.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 247
matr02.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 248
matr03.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 249
matr04.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 249

S
S2.dgibi . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 250
S2 FSI.dgibi . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 253
ST EUL 10.dgibi . . . . . . . . . . . . . . . . . . . . . . . . . . . . 255
ST EUL 10.epx. . . . . . . . . . . . . . . . . . . . . . . . . . . . . .258
ST EUL 10p.epx . . . . . . . . . . . . . . . . . . . . . . . . . . . . 259

262

GETTING IN TOUCH WITH THE EU 

In person 

All  over  the  European  Union  there  are  hundreds  of  Europe  Direct  centres.  You  can  find  the  address  of  the  centre 
nearest you online (european-union.europa.eu/contact-eu/meet-us_en). 

On the phone or in writing 

Europe Direct is a service that answers your questions about the European Union. You can contact this service: 

— by freephone: 00 800 6 7 8 9 10 11 (certain operators may charge for these calls), 

— at the following standard number: +32 22999696, 

— via the following form: european-union.europa.eu/contact-eu/write-us_en. 

FINDING INFORMATION ABOUT THE EU 

Online 

Information  about  the  European  Union  in  all  the  official  languages  of  the  EU  is  available  on  the  Europa  website 
(european-union.europa.eu). 

EU publications 

You  can  view  or  order  EU  publications  at  op.europa.eu/en/publications.  Multiple  copies  of  free  publications  can  be 
obtained by contacting Europe Direct or your local documentation centre (european-union.europa.eu/contact-eu/meet-
us_en). 

EU law and related documents 

For access to legal information from the EU, including all EU law since 1951 in all the official language versions, go to 
EUR-Lex (eur-lex.europa.eu). 

Open data from the EU 

The portal data.europa.eu provides access to open datasets from the EU institutions, bodies and agencies. These can 
be  downloaded  and  reused  for  free,  for  both  commercial  and  non-commercial  purposes.  The  portal  also  provides 
access to a wealth of datasets from European countries.