mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a pretreated extruded 6060X type aluminum soft alloy comprising besides Mg and Si, in an amount between 0,2 and 0,6 wt %, also Fe, Mn, Zn and Cu as alloying elements each independently present in an amount of between 0,015 and 0,35 wt % of total wt; said method comprising; i. heating said 6060X type aluminum soft alloy to be extruded to a softening temperature; and ii. forcing the thus softened 6060X type aluminum alloy through the die opening of an extrusion die with a ram speed of at least 7 mm/s; iii. collecting the extruded 6060X type aluminum soft alloy that emerges from the die opening through the die exit; iv. inerting the extruded 6060X type aluminum soft alloy at the position where the extruded aluminum soft alloy emerges from the die opening with a flow of an inert gas, in particular liquid nitrogen; v. maintaining the extruded 6060X type aluminum soft alloy at the position where it emerges from the die and after the inertization at a temperature in the range of 500 - 600 ° C; in particular in the range of 550°C up to 595°C; and characterized in that the method further comprises the step of vi. subjecting the inertized extruded 6060X type aluminum soft alloy to an etching pretreatment with an alkaline or acid of at least 1,0 preferably 2 gram/m 2 followed by an acid desmutting to avoid enrichment of Cu, Zn, Mn left on the surface in case of alkaline etching; to yield the pretreated extruded 6060X type aluminum soft alloy. i. heating said 6060X type aluminum soft alloy to be extruded to a softening temperature; and ii. forcing the thus softened 6060X type aluminum alloy through the die opening of an extrusion die with a ram speed of at least 7 mm/s; iii. collecting the extruded 6060X type aluminum soft alloy that emerges from the die opening through the die exit; iv. inerting the extruded 6060X type aluminum soft alloy at the position where the extruded aluminum soft alloy emerges from the die opening with a flow of an inert gas, in particular liquid nitrogen; v. maintaining the extruded 6060X type aluminum soft alloy at the position where it emerges from the die and after the inertization at a temperature in the range of 500 - 600 ° C; in particular in the range of 550°C up to 595°C; and characterized in that the method further comprises the step of vi. subjecting the inertized extruded 6060X type aluminum soft alloy to an etching pretreatment with an alkaline or acid of at least 1,0 preferably 2 gram/m 2 followed by an acid desmutting to avoid enrichment of Cu, Zn, Mn left on the surface in case of alkaline etching;
Method for radiographic imaging, comprising a step (d) which consists in introducing, into calculation means, first digitized radiological data from signals delivered by means of detection of X-rays and corresponding to pixels of a first image of an anatomical part comprising an osseous body and scanned, in a first incidence, with a beam of X-rays having an energy spectrum distributed about at least two energies, these first data comprising, for each pixel, coordinates of the pixel in the first image and an absorptiometry value for each of said energies, said absorptiometry values being designed to calculate the bone mineral density of the osseous body, referred to a surface area unit, characterized in that it comprises a step (e) which consists in determining the value of a composite index using, on the one hand, said first digitized radiological data, and, on the other hand, a three-dimensional actual model of said osseous body, and in that said composite index is a combination of at least two parameters which comprise the bone mineral density and at least a parameter chosen from among: • a specific parameter of the bone geometry, chosen from among the angle, length, surface and volume of an osseous part, and in that a fracture risk is evaluated from said composite index. • a specific parameter of the bone geometry, chosen from among the angle, length, surface and volume of an osseous part,
A navigation system comprising: a location unit configured to calculate a current location for locating a device; a control unit configured to: select a remote target representing a physical entity whose physical location changes from one geographical location to another geographical location as the physical entity travels along a path; determine a local navigation route from the current location to a remote location of the remote target for following the remote target, where the remote location is a geographical location away from a location where the device is; and generate a local augmented reality image for displaying on the device with the local navigation route associated with the remote target. a location unit configured to calculate a current location for locating a device; a control unit configured to: select a remote target representing a physical entity whose physical location changes from one geographical location to another geographical location as the physical entity travels along a path; determine a local navigation route from the current location to a remote location of the remote target for following the remote target, where the remote location is a geographical location away from a location where the device is; and generate a local augmented reality image for displaying on the device with the local navigation route associated with the remote target. select a remote target representing a physical entity whose physical location changes from one geographical location to another geographical location as the physical entity travels along a path; determine a local navigation route from the current location to a remote location of the remote target for following the remote target, where the remote location is a geographical location away from a location where the device is; and generate a local augmented reality image for displaying on the device with the local navigation route associated with the remote target.
Method for treating steel mill slag having the steps: A) providing steel mill slag, which, when solidified, has iron oxide (FeO) and, if solidified, has a fineness such that the steel mill slag has a specific surface area according to BET of 0.1 m 2 /g or more; B) treating the steel mill slag at a temperature of at least 600°C, while adding oxidizing agents and auxiliary agents, wherein the oxidizing agents oxidize at least a part of the iron oxide (FeO) present to iron oxide (Fe 2 O 3) and/or iron(II,III) oxide (Fe 3 O 4) and wherein the auxiliary agents form a bond at least with calcium from calcium-iron compound present and bound in the steel mill slag and thereby release iron oxide (Fe 2 O 3) and/or iron(II,III) oxide (Fe 3 O 4) and further increase the proportion of 2 CaO · SiO 2 (belite) and/or other calcium silicates, such as alite, wollastonite and/or rankinite, in the treated steel mill slag, C) separating iron oxide (Fe 2 O 3) and iron(II, III) oxide (Fe 3 O 4) out of the treated steel mill slag. A) providing steel mill slag, which, when solidified, has iron oxide (FeO) and, if solidified, has a fineness such that the steel mill slag has a specific surface area according to BET of 0.1 m 2 /g or more; B) treating the steel mill slag at a temperature of at least 600°C, while adding oxidizing agents and auxiliary agents, wherein the oxidizing agents oxidize at least a part of the iron oxide (FeO) present to iron oxide (Fe 2 O 3) and/or iron(II,III) oxide (Fe 3 O 4) and wherein the auxiliary agents form a bond at least with calcium from calcium-iron compound present and bound in the steel mill slag and thereby release iron oxide (Fe 2 O 3) and/or iron(II,III) oxide (Fe 3 O 4) and further increase the proportion of 2 CaO · SiO 2 (belite) and/or other calcium silicates, such as alite, wollastonite and/or rankinite, in the treated steel mill slag, C) separating iron oxide (Fe 2 O 3) and iron(II, III) oxide (Fe 3 O 4) out of the treated steel mill slag.
A peptide compound having an improved binding affinity to somatostatin receptors, comprising a peptide and a chelating group covalently linked to a free amino group of said peptide, wherein said peptide is or comprises a somatostatin analogue carrying a 3-benzothienylalanine residue in its 3-position, wherein the peptide has the general formula: H- A 1 -cyclo[Cys 2 -A 3 -A 4 -A 5 -A 6 -Cys 7]-A 8 wherein: A 1 is optionally halogenated Tyr, or optionally halogenated or methylated Phe or Nal, A 4 is Trp, optionally N-methylated in its side-chain, A 5 is Lys, optionally N-methylated in its side-chain, A 6 is Thr, Val, Ser, Phe or Ile, and A 8 is Thr, Trp or Nal, wherein the terminal carboxy group may be modified to an alcohol or an, optionally C1-C3 alkylated, amide group, and characterized in that A 3 is 3-benzothienylalanyl. A 1 is optionally halogenated Tyr, or optionally halogenated or methylated Phe or Nal, A 4 is Trp, optionally N-methylated in its side-chain, A 5 is Lys, optionally N-methylated in its side-chain, A 6 is Thr, Val, Ser, Phe or Ile, and A 8 is Thr, Trp or Nal, wherein the terminal carboxy group may be modified to an alcohol or an, optionally C1-C3 alkylated, amide group, and characterized in that A 3 is 3-benzothienylalanyl.
A laminated glass 1 with resistance against the effects of fire having a side being the far side with respect to the fire and a side facing the fire, comprising exactly two panes of float glass or floated glass ceramic, wherein the laminated glass 1 contains at least one layer 3 being intumescent under temperature exposure, wherein the laminated glass 1 comprises an outer pane 2 of float glass or floated glass ceramic on the side being the far side with respect to the fire and on the side facing the fire each as final panes, characterized in that the outer pane 2 facing the fire and/or the outer pane 2 on the side being the far side with respect to the fire have a coefficient of thermal expansion α of at most 4.5*10 -6 /K, wherein the outer pane 2 facing the fire has a coefficient of thermal expansion α in a temperature range of from 20 to 300 °C of at least 1*10 -6 /K, wherein the laminated glass 1 does not comprise any chemically prestressed panes with a compressive stress at the surface of more than 1000 MPa and does not comprise any thermally prestressed panes with a compressive stress at the surface of more than 200 MPa, wherein the coefficient of thermal expansion α is determined according to DIN ISO 7991:1998-02. wherein the laminated glass 1 contains at least one layer 3 being intumescent under temperature exposure, wherein the laminated glass 1 comprises an outer pane 2 of float glass or floated glass ceramic on the side being the far side with respect to the fire and on the side facing the fire each as final panes, characterized in that the outer pane 2 facing the fire and/or the outer pane 2 on the side being the far side with respect to the fire have a coefficient of thermal expansion α of at most 4.5*10 -6 /K, wherein the outer pane 2 facing the fire has a coefficient of thermal expansion α in a temperature range of from 20 to 300 °C of at least 1*10 -6 /K, wherein the laminated glass 1 does not comprise any chemically prestressed panes with a compressive stress at the surface of more than 1000 MPa and does not comprise any thermally prestressed panes with a compressive stress at the surface of more than 200 MPa, wherein the coefficient of thermal expansion α is determined according to DIN ISO 7991:1998-02.
A well (10; 110) in a geological structure (11; 111), the well (10; 110) comprising: a first, a second and a third casing string (12a, 12b, 12c; 112a, 112b, 112c), the second casing string (12b; 112b) at least partially inside the first casing string (12a; 112a), the third casing string (12c; 112c) at least partially inside the second casing string (12b;112b); the first and second casing strings (12a, 12b;112a, 112b) defining a first inter-casing annulus (14a;114a) therebetween, the second and third casing strings (12b, 12c;112b, 112c) defining a second inter-casing annulus (14b;114b) therebetween, the third casing string (12c;112c) defining a third casing bore (14c;114c) therewithin; a primary fluid flow control device (16a;116a) in the second casing string (12b;112b) to provide fluid communication between the first inter-casing annulus (14a;114a) and the second inter-casing annulus (14b;114b); a secondary fluid flow control device (16b;116b) in the third casing string (12c;112c) to provide fluid communication between the second inter-casing annulus (14b;114b) and the third casing bore (14c;114c); and wherein in an open position each of the primary and the secondary fluid flow control devices (16b, 116b) have a cross-sectional fluid flow area of at least 100mm 2. a first, a second and a third casing string (12a, 12b, 12c; 112a, 112b, 112c), the second casing string (12b; 112b) at least partially inside the first casing string (12a; 112a), the third casing string (12c; 112c) at least partially inside the second casing string (12b;112b); the first and second casing strings (12a, 12b;112a, 112b) defining a first inter-casing annulus (14a;114a) therebetween, the second and third casing strings (12b, 12c;112b, 112c) defining a second inter-casing annulus (14b;114b) therebetween, the third casing string (12c;112c) defining a third casing bore (14c;114c) therewithin; a primary fluid flow control device (16a;116a) in the second casing string (12b;112b) to provide fluid communication between the first inter-casing annulus (14a;114a) and the second inter-casing annulus (14b;114b); a secondary fluid flow control device (16b;116b) in the third casing string (12c;112c) to provide fluid communication between the second inter-casing annulus (14b;114b) and the third casing bore (14c;114c); and wherein in an open position each of the primary and the secondary fluid flow control devices (16b, 116b) have a cross-sectional fluid flow area of at least 100mm 2.
A ceiling system comprising: a ceiling structure suspended in an interior space, the ceiling structure comprising: a perimeter frame defining a central opening, the perimeter frame comprising a fabric gripping member; a support grid comprising a plurality of intersecting struts defining a plurality of grid openings, the support grid disposed within the central opening and coupled to the perimeter frame; a plurality of acoustic ceiling panels, each of the acoustic ceiling panels mounted to the support grid and disposed in one of the grid openings; and a tensioned fabric sheet having a perimeter portion that is engaged by the fabric gripping member of the perimeter frame, the tensioned fabric sheet located below the acoustic ceiling panels and covering the central opening; wherein the perimeter frame comprises a track having an upstanding wall having an outer surface and an inner surface, the fabric gripping member protruding from the inner surface of the upstanding wall and located at a top portion of the upstanding wall, the tensioned fabric sheet wrapping around the outer surface of the upstanding wall; characterized in that the support grid is completely covered by the fabric sheet. a perimeter frame defining a central opening, the perimeter frame comprising a fabric gripping member; a support grid comprising a plurality of intersecting struts defining a plurality of grid openings, the support grid disposed within the central opening and coupled to the perimeter frame; a plurality of acoustic ceiling panels, each of the acoustic ceiling panels mounted to the support grid and disposed in one of the grid openings; and a tensioned fabric sheet having a perimeter portion that is engaged by the fabric gripping member of the perimeter frame, the tensioned fabric sheet located below the acoustic ceiling panels and covering the central opening; wherein the perimeter frame comprises a track having an upstanding wall having an outer surface and an inner surface, the fabric gripping member protruding from the inner surface of the upstanding wall and located at a top portion of the upstanding wall, the tensioned fabric sheet wrapping around the outer surface of the upstanding wall; characterized in that the support grid is completely covered by the fabric sheet.
Electrode of an electrode assembly of a Lithium/Air battery cell, wherein said electrode is provided with a layer of disperse graphite and carbon black. wherein a thickness of said layer is between 1μm and 10 μm, characterized in that said layer is free of a binder.
Agricultural utility vehicle for dispensing material, such as fertilizers, plant protectants or seed, comprising an open-loop and/or closed-loop control system, comprising a distributor boom for dispensing material, which comprises two lateral arms (9a, 9b) which each have at least one movable boom portion (9a, 9i, 9m), the boom portions (9a, 9i, 9m) having at least two working positions, i.e. positions and/or folding positions, the boom portions of an arm each having angles relative to one another and/or the arms each having angles relative to one another, and nozzles being arranged on the boom portions (9a, 9i, 9m), which nozzles are connected to controllable valves, and the system having a plurality of detection means and a data processing unit, the detection means being designed to detect the working position of the boom portions (9a, 9i, 9m) of the distributor boom, characterized in that the data processing unit is configured such that the signals from the detection means can be processed and control signals for the valves can be generated on the basis thereof, the output quantity of the nozzles being changeable by means of the control signals for the valves.
A crystalline form of 1-(1-oxo-1,2-dihydroisoquinolin-5-yl)-5-(trifluoromethyl)- N- [2-(trifluoromethyl)pyridin-4-yl]-1 H -pyrazole-4-carboxamide (Compound A) monohydrate: wherein the crystalline form is Form III, producing an X-ray powder diffraction pattern comprising peaks at 11.5, 16.4, 23.7 and 25.7 degrees two theta ± 0.2 degrees two theta.
Brake assistance device for a hydraulic brake system for a vehicle powered by muscle and/or motor power, the brake assistance device comprising - an input device with a first piston, - a compensation volume with a second piston and with a preload element, - a 2/2-way valve, - a brake piston, and - an actuator, wherein the preload element is configured to exert a pressure on the second piston and thus on a hydraulic fluid of the brake system, characterized in that the actuator is configured to move the second piston selectively in a first direction or in a second direction that is oriented oppositely in relation to the first direction. - an input device with a first piston, - a compensation volume with a second piston and with a preload element, - a 2/2-way valve, - a brake piston, and - an actuator, wherein the preload element is configured to exert a pressure on the second piston and thus on a hydraulic fluid of the brake system, characterized in that the actuator is configured to move the second piston selectively in a first direction or in a second direction that is oriented oppositely in relation to the first direction. the preload element is configured to exert a pressure on the second piston and thus on a hydraulic fluid of the brake system, characterized in that the actuator is configured to move the second piston selectively in a first direction or in a second direction that is oriented oppositely in relation to the first direction.
Filter element for an air filter device of a fresh air system of an internal combustion engine, in particular a motor vehicle, - with a filter body made from a filter material, - with a sealing frame made from a sealing material, which has a filter section assigned to the filter body, which filter section surrounds the edge of the filter body in a circumferentially closed manner, characterised by - a support frame for securing a functional part, - wherein the support frame has a functional part opening and surrounds in a circumferentially closed manner, - wherein the sealing frame has a functional section assigned to the support frame, which functional section surrounds the edge of the support frame in a circumferentially closed manner, - wherein on the support frame latching means are formed, which for fixing the functional part onto the support frame cooperate with complementary counter latching means which are formed on the functional part, - wherein the support frame is a separate component relative to the sealing frame and the functional part. - with a filter body made from a filter material, - with a sealing frame made from a sealing material, which has a filter section assigned to the filter body, which filter section surrounds the edge of the filter body in a circumferentially closed manner, characterised by - a support frame for securing a functional part, - wherein the support frame has a functional part opening and surrounds in a circumferentially closed manner, - wherein the sealing frame has a functional section assigned to the support frame, which functional section surrounds the edge of the support frame in a circumferentially closed manner, - wherein on the support frame latching means are formed, which for fixing the functional part onto the support frame cooperate with complementary counter latching means which are formed on the functional part, - wherein the support frame is a separate component relative to the sealing frame and the functional part.
A method for an RFID IC to provide an alert, the method comprising: performing a first measurement of an environmental parameter at a first time; comparing the first measurement to either a baseline value or a second measurement of the environmental parameter performed at a second time to determine a difference; and if the difference meets a threshold, then providing the alert by participating in an inventory round, advancing a scheduled reply in an ongoing inventory round, and/or replying multiple times in the inventory round,else not participating in the inventory round and/or not advancing the reply, characterized in that the magnitude of a reply advancement or the number of multiple replies is based on a magnitude of the determined difference. performing a first measurement of an environmental parameter at a first time; comparing the first measurement to either a baseline value or a second measurement of the environmental parameter performed at a second time to determine a difference; and if the difference meets a threshold, then providing the alert by participating in an inventory round, advancing a scheduled reply in an ongoing inventory round, and/or replying multiple times in the inventory round,else not participating in the inventory round and/or not advancing the reply, characterized in that the magnitude of a reply advancement or the number of multiple replies is based on a magnitude of the determined difference.