mhurhangee/ep-ind-claims huggingface dataset:
Injection molded article comprising a propylene homopolymer having (a) a melt flow rate MFR 2 (230 °C / 2.16 kg) measured according to ISO 1133 in the range of 40 to 120 g/10min; (b) a pentad isotacticity (mmmm) of more than 92.5 % determined by 13 C-NMR; (c) a meso sequence length in the range of 91.0 to 160; MSL4 is calculated by formula MSL 4 = 2 ∗ mmmm mmmr + 4 wherein "[mmmm]" is % of mmmm pentads "[mmmr]" is % of mmmr pentads, determined by 13 C-NMR spectroscopy; and (d) a molecular weight distribution of 7.5 or less, wherein the propylene homopolymer is not having the following properties: Melt flow rate, determined at 230°C and under a load of 2.16 kg according to ISO 1133 [g/10min] 76 melting temperature (T m) [°C] 161 crystallization temperature (T c) [°C] 115 glass transition temperature (Tg) [°C] 2.0 Xylene cold solubles [wt.-%] 3.3 mmmm pentad fraction (mmmm) [%] 93.2 triad syndiotacticity rr (rr) [%] 2.0 meso sequence length MSL2 [-] 76 meso sequence length MSL4 [-] 92 Flexural Modulus [MPa] 1472 Shrinkage in flow (SH in flow) [%] 1.1 Shrinkage across flow (SH across flow) [%] 1.3 REact 3835 Clarity (0.1 mm) [%] 61 determined as described herein. (a) a melt flow rate MFR 2 (230 °C / 2.16 kg) measured according to ISO 1133 in the range of 40 to 120 g/10min; (b) a pentad isotacticity (mmmm) of more than 92.5 % determined by 13 C-NMR; (c) a meso sequence length in the range of 91.0 to 160; MSL4 is calculated by formula MSL 4 = 2 ∗ mmmm mmmr + 4 wherein "[mmmm]" is % of mmmm pentads "[mmmr]" is % of mmmr pentads, determined by 13 C-NMR spectroscopy; and "[mmmm]" is % of mmmm pentads "[mmmr]" is % of mmmr pentads, (d) a molecular weight distribution of 7.5 or less, wherein the propylene homopolymer is not having the following properties: Melt flow rate, determined at 230°C and under a load of 2.16 kg according to ISO 1133 [g/10min] 76 melting temperature (T m) [°C] 161 crystallization temperature (T c) [°C] 115 glass transition temperature (Tg) [°C] 2.0 Xylene cold solubles [wt.-%] 3.3 mmmm pentad fraction (mmmm) [%] 93.2 triad syndiotacticity rr (rr) [%] 2.0 meso sequence length MSL2 [-] 76 meso sequence length MSL4 [-] 92 Flexural Modulus [MPa] 1472 Shrinkage in flow (SH in flow) [%] 1.1 Shrinkage across flow (SH across flow) [%] 1.3 REact 3835 Clarity (0.1 mm) [%] 61 determined as described herein.
A method for controlling a virtual object, comprising: a) determining a location for a first touch input on a first touch interface, wherein determining the location of the first touch input involves using pre-touch to determine a position of the first touch input on the first touch interface and a perpendicular distance between that position and a point of application, wherein the first point of application is a location of an object (F 1) in proximity to the first touch interface; b) determining a location for a second touch input on a second touch interface, wherein determining the location of the second touch input involves using pre-touch to determine a position of the second touch input on the second touch interface and a perpendicular distance between that position and a point of application, wherein the second point of application is a location of an object (F 2) in proximity to the second touch interface; c) generating a three-dimensional segment using the location of the first point of application and the location of the second point of application, and a pre-determined spatial relationship between the first touch interface and the second touch interface; d) manipulating the virtual object using the three-dimensional segment in c) as a control input; and e) displaying the manipulated virtual object on a display. a) determining a location for a first touch input on a first touch interface, wherein determining the location of the first touch input involves using pre-touch to determine a position of the first touch input on the first touch interface and a perpendicular distance between that position and a point of application, wherein the first point of application is a location of an object (F 1) in proximity to the first touch interface; b) determining a location for a second touch input on a second touch interface, wherein determining the location of the second touch input involves using pre-touch to determine a position of the second touch input on the second touch interface and a perpendicular distance between that position and a point of application, wherein the second point of application is a location of an object (F 2) in proximity to the second touch interface; c) generating a three-dimensional segment using the location of the first point of application and the location of the second point of application, and a pre-determined spatial relationship between the first touch interface and the second touch interface; d) manipulating the virtual object using the three-dimensional segment in c) as a control input; and e) displaying the manipulated virtual object on a display.
A fiscal control circuit board that is connected to a host computer, comprising: - fiscal memory configured to store fiscal information; - a first CPU configured to control at least a communication with the host computer, the first CPU operating at a first processing speed; - a second CPU configured to control at least a writing operation of writing fiscal information to the fiscal memory, the second CPU operating at a second processing speed that is slower than the first processing speed of the first CPU; - a first communication path for the fiscal information, the first communication path being configured to connect the first CPU to the fiscal memory through the second CPU; - a second communication path for the fiscal information, the second communication path being configured to connect the first CPU to the fiscal memory bypassing the second CPU; and - a selector configured to select either the first communication path or the second communication path, the selector being configured to select the first communication path in a write process of writing fiscal information to the fiscal memory, and to select the second communication path in a read process of reading fiscal information from the first CPU, wherein the second CPU is configured to control the selector to select either the first communication path or the second communication path. - fiscal memory configured to store fiscal information; - a first CPU configured to control at least a communication with the host computer, the first CPU operating at a first processing speed; - a second CPU configured to control at least a writing operation of writing fiscal information to the fiscal memory, the second CPU operating at a second processing speed that is slower than the first processing speed of the first CPU; - a first communication path for the fiscal information, the first communication path being configured to connect the first CPU to the fiscal memory through the second CPU; - a second communication path for the fiscal information, the second communication path being configured to connect the first CPU to the fiscal memory bypassing the second CPU; and - a selector configured to select either the first communication path or the second communication path, the selector being configured to select the first communication path in a write process of writing fiscal information to the fiscal memory, and to select the second communication path in a read process of reading fiscal information from the first CPU, wherein
A method of assaying a hydrocarbon-containing feedstock, the method comprising: (a) measuring boiling profile and at least one other property of the hydrocarbon containing feedstock with at least two different laboratory-independent techniques wherein each laboratory-independent technique is selected to be predictive of each respective property, wherein at least one of the at least two different laboratory-independent techniques is predictive of the boiling profile and the at least one other is predictive of at least one other property; (b) transmitting the measurements made in step (a) to a processor capable of reconstructing a determinative assay of the hydrocarbon-containing feedstock from the measurements; and, (c) reconstructing a determinative assay of the hydrocarbon-containing-feedstock from the measurements, wherein the other property is selected from the group consisting of density, specific gravity, total acidic number, pour point, viscosity, sulfur content, metal content, nitrogen content, and combinations thereof. (a) measuring boiling profile and at least one other property of the hydrocarbon containing feedstock with at least two different laboratory-independent techniques wherein each laboratory-independent technique is selected to be predictive of each respective property, wherein at least one of the at least two different laboratory-independent techniques is predictive of the boiling profile and the at least one other is predictive of at least one other property; (b) transmitting the measurements made in step (a) to a processor capable of reconstructing a determinative assay of the hydrocarbon-containing feedstock from the measurements; and, (c) reconstructing a determinative assay of the hydrocarbon-containing-feedstock from the measurements, wherein the other property is selected from the group consisting of density, specific gravity, total acidic number, pour point, viscosity, sulfur content, metal content, nitrogen content, and combinations thereof.
Cooling appliance, comprising a thermally insulated inner receptacle; a drawer provided in the inner receptacle so as to be withdrawable and in which elements to be cooled are to be placed; a shelf positioned in the inner receptacle so as to be withdrawable such that it covers at least partly the upper part of the drawer, and a hanging element having an upper guide attached to the shelf by a lateral edge and a lower guide attached to the drawer by an edge border by extending under the upper guide and integrated to the upper guide, wherein a bridging element provided between the upper and lower guides (42, 44) by respectively one end so as to provide that they are positioned at a distance to each other, characterized in that the adjacent edges of upper and lower guides (42, 44) and the bridging element joining them form a U-section, wherein said U-section is formed in a direction opposite the upper and lower guides (42, 44), and that the hanging element is attached by the bridging element to a supporting projection out of a lateral wall of the inner receptacle.
A method comprising: emulsifying a first aqueous phase comprising sodium nitrite and a first acid in a first organic phase to prepare a first emulsion, wherein the first acid comprises hydrochloric acid; emulsifying a second aqueous phase comprising ammonium chloride in a second organic phase to prepare a second emulsion; and flowing the first emulsion and the second emulsion into a subterranean formation, wherein the first aqueous phase and the second aqueous phase, when mixed, react to release nitrogen and heat. emulsifying a first aqueous phase comprising sodium nitrite and a first acid in a first organic phase to prepare a first emulsion, wherein the first acid comprises hydrochloric acid; emulsifying a second aqueous phase comprising ammonium chloride in a second organic phase to prepare a second emulsion; and flowing the first emulsion and the second emulsion into a subterranean formation, wherein the first aqueous phase and the second aqueous phase, when mixed, react to release nitrogen and heat.
A biological simulation apparatus comprising: a storage unit configured to hold a geometric model that represents a structure of a heart; and an operation unit configured to perform a fluid-structure interaction simulation that obtains ever-changing equilibrium conditions by representing, among domains in the geometric model, a structure domain in which tissues of the heartexist by using a structure mesh model based on a Lagrange description method and a fluid domain in which fluid inside the heartexists by using an ALE (Arbitrary Lagrangian Eulerian) fluid mesh model based on an ALE description method, deforming the structure mesh model in accordance with a motion of the heartalong with a progress of the simulation, generating a deformed ALE fluid mesh model by deforming the ALE fluid mesh model in such a manner that no gap is formed on a first interface located between a domain in which a site other than a valve inside the heart in the structure domain exists and the fluid domain and no overlap is formed with the structure domain, tracking the first interface by using the deformed ALE fluid mesh model, capturing a position of a second interface located between a domain in which the valve in the structure domain exists and the fluid domain by using the deformed ALE fluid mesh model as a reference, and simultaneously solving both motions of the heart and the fluid therein, including the interaction of the heart and the fluid. a storage unit configured to hold a geometric model that represents a structure of a heart; and an operation unit configured to perform a fluid-structure interaction simulation that obtains ever-changing equilibrium conditions by representing, among domains in the geometric model, a structure domain in which tissues of the heartexist by using a structure mesh model based on a Lagrange description method and a fluid domain in which fluid inside the heartexists by using an ALE (Arbitrary Lagrangian Eulerian) fluid mesh model based on an ALE description method, deforming the structure mesh model in accordance with a motion of the heartalong with a progress of the simulation, generating a deformed ALE fluid mesh model by deforming the ALE fluid mesh model in such a manner that no gap is formed on a first interface located between a domain in which a site other than a valve inside the heart in the structure domain exists and the fluid domain and no overlap is formed with the structure domain, tracking the first interface by using the deformed ALE fluid mesh model, capturing a position of a second interface located between a domain in which the valve in the structure domain exists and the fluid domain by using the deformed ALE fluid mesh model as a reference, and simultaneously solving both motions of the heart and the fluid therein, including the interaction of the heart and the fluid.
A production method for producing a tissue regeneration material comprising: contacting a bottom surface of a porous body to a surface of a holding plate being a resin plate or a glass plate having a contact angle to water of 15 to 90°, the porous body being formed of a bioabsorbable polymer material selected from the group consisting of polyglycolic acid, polylactic acid and a copolymer of lactic acid and glycolic acid, poly-ε-caprolactone, a copolymer of lactic acid and ε-caprolactone, polyamino acid, polyortho ester, and a copolymer thereof, said porous body having a thickness of 2 to 100 mm, an area of the bottom surface of the porous body to be contacted with a holding plate of 0.5 to 200 cm 2, an interconnected porous structure with a pore diameter of 180 to 3500 μm and an average pore diameter of 350 to 2000 μm, a porosity of 60 to 95%, and a compressive strength of 0.05 to 1 MPa, and being filled with a cell suspension having a cell density of 5 × 10 6 to 1 × 10 8 cell/ml; and the method further comprising reversing the holding plate and the porous body comprising the cell suspension such that the holding plate is on the upper side of the porous body when seen in the gravity direction, and keeping the porous body still in the air in a state that the weight of the holding plate is not applied to the porous body, to thereby seed cells on the porous body. contacting a bottom surface of a porous body to a surface of a holding plate being a resin plate or a glass plate having a contact angle to water of 15 to 90°, the porous body being formed of a bioabsorbable polymer material selected from the group consisting of polyglycolic acid, polylactic acid and a copolymer of lactic acid and glycolic acid, poly-ε-caprolactone, a copolymer of lactic acid and ε-caprolactone, polyamino acid, polyortho ester, and a copolymer thereof, said porous body having a thickness of 2 to 100 mm, an area of the bottom surface of the porous body to be contacted with a holding plate of 0.5 to 200 cm 2, an interconnected porous structure with a pore diameter of 180 to 3500 μm and an average pore diameter of 350 to 2000 μm, a porosity of 60 to 95%, and a compressive strength of 0.05 to 1 MPa, and being filled with a cell suspension having a cell density of 5 × 10 6 to 1 × 10 8 cell/ml; and the method further comprising reversing the holding plate and the porous body comprising the cell suspension such that the holding plate is on the upper side of the porous body when seen in the gravity direction, and keeping the porous body still in the air in a state that the weight of the holding plate is not applied to the porous body, to thereby seed cells on the porous body.
A method for providing an altered Bacillus strain having enhanced secretion of a subtilisin comprising: transforming a Bacillus strain with a DNA construct comprising a polynucleotide sequence flanked on each side by nucleotide sequences of the flanking regions of the chromosomal PPS region analogous to the region found at about 1959410 bp to 1997178 bp of the Bacillus subtilis 168 chromosome, for inactivating said PPS region by homologous recombination between the DNA construct and the genome of said Bacillus strain. transforming a Bacillus strain with a DNA construct comprising a polynucleotide sequence flanked on each side by nucleotide sequences of the flanking regions of the chromosomal PPS region analogous to the region found at about 1959410 bp to 1997178 bp of the Bacillus subtilis 168 chromosome, for inactivating said PPS region by homologous recombination between the DNA construct and the genome of said Bacillus strain.
Method for transmitting contents as a data stream from a provider server of a contents provider to one among multiple communication devices (6.1,...6.n) of a customer over at least one telecommunication network, in which a data stream of the selected content that is adapted to the first-used communication device (6.1) of the customer is sent by the provider server over the at least one telecommunication network, the reception by the first-used communication device (6.1) is interrupted and is continued at a later point in time by the same (6.1) or another (6.2,...6.n) of the multiple communication devices (6.1,...6.n), in which the first-used communication device (6.1) of the customer receives the data stream indirectly via a contents management server connected in the communication path between the provider server and the used communication device (6.1), in particular arranged on the public internet, characterized in that, when there is an interruption in the reception by the first-used communication device (6.1), the contents management server continues to obtain the data stream of the chosen content from the provider server beyond the time of the interruption and, depending on information made available about the multiple usable communication devices, prepares in advance and stores at least one copy as a data stream which is adapted to at least one other communication device (6.2,...6.n) that can be used by the customer of the multiple communication devices (6.1,...6.n).
An autofrettage apparatus comprising, a work having a work end opening and internal chamber, wherein said internal chamber is closed except at said work end opening and working oil is filled from said work end opening to said internal chamber; a jig which can be attached to or detached from said work and has a straight channel at its inside, said straight channel being configured so as to communicate with said work end opening without leakage through a seal part; a piston which forms a clearance which has a predetermined average clearance amount (h) with respect to an inside wall of said straight channel which is provided at the inside of said jig; and a pressurizing part which drives said piston, wherein said pressurizing part drives said piston so that said piston becomes a predetermined feed speed (v) in said straight channel which is filled by said working oil, and said predetermined feed speed (v) is made faster than a critical feed speed (Vc) which corresponds to the maximum leakage flow rate (Qmax) per unit time of said working oil which leaks out from said clearance due to said drive operation, whereby said work is autofrettaged. a work having a work end opening and internal chamber, wherein said internal chamber is closed except at said work end opening and working oil is filled from said work end opening to said internal chamber; a jig which can be attached to or detached from said work and has a straight channel at its inside, said straight channel being configured so as to communicate with said work end opening without leakage through a seal part; a piston which forms a clearance which has a predetermined average clearance amount (h) with respect to an inside wall of said straight channel which is provided at the inside of said jig; and a pressurizing part which drives said piston, wherein said pressurizing part drives said piston so that said piston becomes a predetermined feed speed (v) in said straight channel which is filled by said working oil, and said predetermined feed speed (v) is made faster than a critical feed speed (Vc) which corresponds to the maximum leakage flow rate (Qmax) per unit time of said working oil which leaks out from said clearance due to said drive operation, whereby said work is autofrettaged.