mhurhangee/ep-ind-claims huggingface dataset:
A method of controlling a mould tool system having a plurality of mould tools (302, 304), the method comprising the steps of: providing a plurality of heated mould tools (302, 304), each having a mould cycle with a variable resource consumption, storing a maximum resource consumption for each mould tool, storing a maximum system resource capacity for the mould tool system, the maximum system resource capacity being lower than the sum of the maximum resource consumptions of the plurality of mould tools, starting a mould cycle of a first mould tool, monitoring the resource consumption of the first mould tool, determining an unused system resource availability, starting a mould cycle of a second mould tool dependent upon the unused system resource availability and the maximum resource consumption of the second mould tool. providing a plurality of heated mould tools (302, 304), each having a mould cycle with a variable resource consumption, storing a maximum resource consumption for each mould tool, storing a maximum system resource capacity for the mould tool system, the maximum system resource capacity being lower than the sum of the maximum resource consumptions of the plurality of mould tools, starting a mould cycle of a first mould tool, monitoring the resource consumption of the first mould tool, determining an unused system resource availability, starting a mould cycle of a second mould tool dependent upon the unused system resource availability and the maximum resource consumption of the second mould tool.
A satellite signal receiving apparatus, comprising: a feedhorn that receives a satellite signal; a low noise block down converter that processes the signal received by the feedhorn; a skew compensating device that is provided at the low noise block down converter or the feedhorn and rotates the low noise block down converter or the feedhorn to compensate for a skew angle when the satellite signal received by the feedliorn is a linearly polarized wave; characterized by a polarizer that is provided within a single waveguide, to be rotated relative to the single waveguide and receives a linearly polarized signal and a circularly polarized signal of the satellite signal; and a polarizer rotating device that rotates the polarizer when the satellite signal received by the polarizer is a circularly polarized wave, and includes a polarizer rotating part (140,150) that rotates the polarizer by a predetermined angle in a circumferential direction of the single waveguide, wherein the polarizer includes a feedhorn connecting part that has a cylindrical shape and is provided within the waveguide to be rotated relative to the waveguide and is communicatively connected to the feedhorn; a polarized wave forming part that is formed at an inner surface of the feedhorn connecting part in a longitudinal direction of the feedhorn connecting part; and a driven part that is formed at one end of the feedhorn connecting part to receive a driving power of the polarizer rotating part (140,150). a feedhorn that receives a satellite signal; a low noise block down converter that processes the signal received by the feedhorn; a skew compensating device that is provided at the low noise block down converter or the feedhorn and rotates the low noise block down converter or the feedhorn to compensate for a skew angle when the satellite signal received by the feedliorn is a linearly polarized wave; a polarizer that is provided within a single waveguide, to be rotated relative to the single waveguide and receives a linearly polarized signal and a circularly polarized signal of the satellite signal; and a polarizer rotating device that rotates the polarizer when the satellite signal received by the polarizer is a circularly polarized wave, and includes a polarizer rotating part (140,150) that rotates the polarizer by a predetermined angle in a circumferential direction of the single waveguide, wherein the polarizer includes a feedhorn connecting part that has a cylindrical shape and is provided within the waveguide to be rotated relative to the waveguide and is communicatively connected to the feedhorn; a polarized wave forming part that is formed at an inner surface of the feedhorn connecting part in a longitudinal direction of the feedhorn connecting part; and a driven part that is formed at one end of the feedhorn connecting part to receive a driving power of the polarizer rotating part (140,150).
Applicator for applying a cosmetic, makeup or care, product to the eyelashes and/or eyebrows, having a moulded applicator member having: - a core that extends along a longitudinal axis, - spikes (18, 15, 16) that are carried by the core and are disposed in a plurality of longitudinal rows (17, 19, 20), wherein, within one longitudinal row out of at least two about the longitudinal axis of the core, at least one spike is reinforced at its base and extends between spikes that do not have a reinforcement, the applicator being characterized by the fact that the two spikes adjacent to a reinforced spike within a circumferential row to which said reinforced spike belongs and the two closest spikes within the two adjacent longitudinal rows do not have a reinforcement, and by the fact that the reinforcements of the reinforced spikes have a cross section with an elongate shape in the direction of the longitudinal axis of the core. - a core that extends along a longitudinal axis, - spikes (18, 15, 16) that are carried by the core and are disposed in a plurality of longitudinal rows (17, 19, 20), wherein, within one longitudinal row out of at least two about the longitudinal axis of the core, at least one spike is reinforced at its base and extends between spikes that do not have a reinforcement, the applicator being characterized by the fact that the two spikes adjacent to a reinforced spike within a circumferential row to which said reinforced spike belongs and the two closest spikes within the two adjacent longitudinal rows do not have a reinforcement, and by the fact that the reinforcements of the reinforced spikes have a cross section with an elongate shape in the direction of the longitudinal axis of the core.
A propylene composition comprising (percent by weight): A) 60%-90%, of a crystalline propylene copolymer containing from 4.0% to 6.5% of ethylene derived units; B) 10%-40%, of a copolymer of propylene containing from 18.5% to 23.5%, of ethylene derived units. A) 60%-90%, of a crystalline propylene copolymer containing from 4.0% to 6.5% of ethylene derived units; B) 10%-40%, of a copolymer of propylene containing from 18.5% to 23.5%, of ethylene derived units.
A gripping system comprising: a robotic hand configured to grip a workpiece; a robot configured to support the robotic hand and to change at least one hand configuration selected from a group comprising a position of the robotic hand and a posture of the robotic hand; an image sensor configured to acquire image information from a viewpoint interlocked with the at least one hand configuration; characterized by an operation module configured to derive an operation command of the robot based on - the image information, - hand position information representing at least one of the position of the hand and the posture of the hand, and - a command model configured to output the operation command of the robot in response to an input including a feature amount of the workpiece extracted from the image information and the hand position information, wherein the command model is constructed by machine learning performed by a learning device according to claim 14; and a robot control module configured to operate the robot based on the operation command of the robot derived by the operation module. a robotic hand configured to grip a workpiece; a robot configured to support the robotic hand and to change at least one hand configuration selected from a group comprising a position of the robotic hand and a posture of the robotic hand; an image sensor configured to acquire image information from a viewpoint interlocked with the at least one hand configuration; characterized by an operation module configured to derive an operation command of the robot based on - the image information, - hand position information representing at least one of the position of the hand and the posture of the hand, and - a command model configured to output the operation command of the robot in response to an input including a feature amount of the workpiece extracted from the image information and the hand position information, - the image information, - hand position information representing at least one of the position of the hand and the posture of the hand, and - a command model configured to output the operation command of the robot in response to an input including a feature amount of the workpiece extracted from the image information and the hand position information, wherein the command model is constructed by machine learning performed by a learning device according to claim 14; and a robot control module configured to operate the robot based on the operation command of the robot derived by the operation module.
An orthopedic device, comprising: - first and second frame assemblies (301, 302) each comprising segments along a continuous length (L1, L2), respectively, defined between first and second endpoints, the first and second frame assemblies being coupled by at least one hinge (308, 309), - at least one of the first and second frame assemblies (301, 303) including a first component made from a metal material, the first component defining first and second sides (103, 105) and a concave cross-section, the first side of the first component defining flanged edge portions (120, 122), the concave cross-section including a concave portion extending continuously between the flanged edge portions (120, 122) and protruding outwardly relative to the flanged edge portions (120, 122) to form a three-dimensional shape, a thickness separating the first and second sides (103, 105) being generally uniform along the length of the first component; and - a second component connected to the first component formed from a non-metallic material, wherein the second component extends at least along the concave portion between the flanged edge portions (120, 122). - first and second frame assemblies (301, 302) each comprising segments along a continuous length (L1, L2), respectively, defined between first and second endpoints, the first and second frame assemblies being coupled by at least one hinge (308, 309), - at least one of the first and second frame assemblies (301, 303) including a first component made from a metal material, the first component defining first and second sides (103, 105) and a concave cross-section, the first side of the first component defining flanged edge portions (120, 122), the concave cross-section including a concave portion extending continuously between the flanged edge portions (120, 122) and protruding outwardly relative to the flanged edge portions (120, 122) to form a three-dimensional shape, a thickness separating the first and second sides (103, 105) being generally uniform along the length of the first component; and - a second component connected to the first component formed from a non-metallic material, wherein the second component extends at least along the concave portion between the flanged edge portions (120, 122).
A method for homogenizing glass, comprising the method steps of: (a) providing a cylindrical blank made of the glass and having a cylindrical outer surface extending along a longitudinal axis of the blank over a length of the blank between a first end face and a second end face, (b) forming a shear zone in the blank by softening a longitudinal section of the blank and subjecting it to a thermal-mechanical intermixing treatment, (c) displacing the shear zone along the longitudinal axis of the blank, characterized in that a thermal radiation dissipator is used which at least partially surrounds the shear zone, the lateral dimension of which in the direction of the longitudinal axis of the blank is greater than the shear zone and smaller than the length of the blank, the thermal radiation dissipator is moved synchronously with the shear zone along the longitudinal axis of the blank, and wherein the thermal radiation dissipator is formed with a glass layer which faces the shear zone and which is composed of a quartz glass which is transparent to infrared radiation from the NIR wavelength range of 780 nm and 3000 nm and which, at a sample thickness of 10 mm, transmits at least 50% of the incident NIR radiation power. (a) providing a cylindrical blank made of the glass and having a cylindrical outer surface extending along a longitudinal axis of the blank over a length of the blank between a first end face and a second end face, (b) forming a shear zone in the blank by softening a longitudinal section of the blank and subjecting it to a thermal-mechanical intermixing treatment, (c) displacing the shear zone along the longitudinal axis of the blank,
A capacitor bank protection circuit, comprising: at least one capacitor bank; at least one pilot circuit in parallel electrical communication with the at least one capacitor bank; at least one main commutation gap in parallel electrical communication with the at least one pilot circuit and the at least one capacitor bank; and at least one plasma injector in series electrical communication with the at least one pilot circuit and operable to provide plasma across at least a portion of the at least one main commutation gap when at least partially ionized, thereby making conductive at least one main commutation gap; characterized in that the at least one pilot circuit further comprises pilot quenching circuitry operable to generate linear impedance and non-linear impedance in series with the at least one pilot circuit responsive at least partially to current flowing therethrough. at least one capacitor bank; at least one pilot circuit in parallel electrical communication with the at least one capacitor bank; at least one main commutation gap in parallel electrical communication with the at least one pilot circuit and the at least one capacitor bank; and at least one plasma injector in series electrical communication with the at least one pilot circuit and operable to provide plasma across at least a portion of the at least one main commutation gap when at least partially ionized, thereby making conductive at least one main commutation gap; characterized in that the at least one pilot circuit further comprises pilot quenching circuitry operable to generate linear impedance and non-linear impedance in series with the at least one pilot circuit responsive at least partially to current flowing therethrough.
A reinforced darted preform (100, 101, 301) comprising: a three-dimensional Pi or T-shaped perform having at least one darted component; and a steered fabric having a width, a length, a first face surface and a second face surface separated by a thickness, wherein the first face surface of the steered fabric is affixed to the darted component of the preform. a three-dimensional Pi or T-shaped perform having at least one darted component; and a steered fabric having a width, a length, a first face surface and a second face surface separated by a thickness, wherein the first face surface of the steered fabric is affixed to the darted component of the preform.
A casein concentrate prepared by a method comprising the steps of (i) treating milk by microfiltration to produce a microfiltration retentate comprising casein micelles and a reduced amount of serum proteins compared to the starting milk (ii) adding an acid shifting the equilibrium between the calcium bound in the casein micelles and present in the serum phase and lowering the pH of the casein retentate to be in the range of 4.5 and 6.0 (iii) treating the acidified casein retentate of (ii) in a dynamic high shear process at a pressure of at least 300 MPa. (i) treating milk by microfiltration to produce a microfiltration retentate comprising casein micelles and a reduced amount of serum proteins compared to the starting milk (ii) adding an acid shifting the equilibrium between the calcium bound in the casein micelles and present in the serum phase and lowering the pH of the casein retentate to be in the range of 4.5 and 6.0 (iii) treating the acidified casein retentate of (ii) in a dynamic high shear process at a pressure of at least 300 MPa.
Device for removing the leaves from tuberous vegetables, such as carrots, beetroots, turnips or the like, for a machine for harvesting such vegetables, wherein said leaf-removing device is of the type comprising two juxtaposed sets (4 A, 4B) of leaf-removing bars carried by rotary support hubs (6 A 1, 6 B 1, 6 A 2, 6 B 2), in such a manner that said leaf-removing bars of said two leaf-removing bar sets (4 A, 4 B) cross each other and pinch the leaves of said vegetables to detach them from their tuber by pulling them, the two ends (5', 5") of each of said leaf-removing bars being extended by a rolling bearing shaft (51 a, 51 b), and each support hub (6 A 1, 6 B 1, 6 A 2, 6 B 2) including a plurality of rolling bearing systems, each adapted for receiving one of said rolling bearing shafts (51 a, 51 b), characterized in that one at least of said leaf-removing bars includes at least one end (5', 5") provided with means (10, 11, 513 a) for the removable fixation of said rolling bearing shaft (51 a, 51 b).
A multi-ingot furnace for the growth of crystalline semiconductor material, the furnace comprising: a housing defining a hot zone for receiving an array of crucibles containing semiconductor material; at least one heating device for heating the semiconductor material; characterised in that the or each heating device is arranged to apply a predetermined differential heat flux profile to a horizontal cross-section of the semiconductor material in one or more crucibles, wherein the heat flux profile is selected in dependence on the position within the array of the one or more crucibles. a housing defining a hot zone for receiving an array of crucibles containing semiconductor material; at least one heating device for heating the semiconductor material; characterised in that the or each heating device is arranged to apply a predetermined differential heat flux profile to a horizontal cross-section of the semiconductor material in one or more crucibles, wherein the heat flux profile is selected in dependence on the position within the array of the one or more crucibles.
An implement guidance display system configured to be deployed onboard a work vehicle including an operator station, a work vehicle chassis, and a work implement (28, 30) mounted to move relative to the work vehicle chassis, the implement guidance display system comprising: a display device configured to be located within the operator station of the work vehicle; implement data sources configured to provide implement tracking data pertaining to the work implement (28, 30) when mounted to the work vehicle chassis; and a controller in signal communication with the display device and with the implement data sources, the controller configured to: receive the implement tracking data from the implement data sources; establish a projected trajectory of the work implement (28, 30) utilizing the implement tracking data; and generate, on the display device, implement trajectory symbology (120, 122") indicative of the projected trajectory of the work implement (28, 30), characterized in that the controller is further configured to establish a projected trajectory of the work vehicle chassis; and further generate, on the display device, graphics representative of the projected trajectory of the work vehicle chassis. a display device configured to be located within the operator station of the work vehicle; implement data sources configured to provide implement tracking data pertaining to the work implement (28, 30) when mounted to the work vehicle chassis; and a controller in signal communication with the display device and with the implement data sources, the controller configured to: receive the implement tracking data from the implement data sources; establish a projected trajectory of the work implement (28, 30) utilizing the implement tracking data; and generate, on the display device, implement trajectory symbology (120, 122") indicative of the projected trajectory of the work implement (28, 30), receive the implement tracking data from the implement data sources; establish a projected trajectory of the work implement (28, 30) utilizing the implement tracking data; and generate, on the display device, implement trajectory symbology (120, 122") indicative of the projected trajectory of the work implement (28, 30), characterized in that the controller is further configured to establish a projected trajectory of the work vehicle chassis; and further generate, on the display device, graphics representative of the projected trajectory of the work vehicle chassis.
A thermoplastic polymer composition comprising: 100 parts by mass of a hydrogenated block copolymer mixture (a); 0.1 to 100 parts by mass of a polyvinyl acetal (b); and 0.1 to 20 parts by mass of a thermoplastic elastomer (c), wherein the hydrogenated block copolymer mixture (a) comprises: a hydrogenated block copolymer comprising at least one polymer block which has aromatic vinyl compound units and at least one polymer block which has conjugated diene compound units and which has been hydrogenated and having a polymer block content of 5 mass% or higher and lower than 40 mass%, and a hydrogenated block copolymer comprising at least one polymer block which has aromatic vinyl compound units and at least one polymer block which has conjugated diene compound units and which has been hydrogenated and having a polymer block content of 40 mass% to 70 mass%; the polyvinyl acetal (b) has been produced through acetalization of a polyvinyl alcohol having an average polymerization degree of 100 to 4,000 and has an acetalization degree of 55 to 88 mol%; and the thermoplastic elastomer (c) comprises at least one polymer block which has aromatic vinyl compound units, at least one polymer block which has conjugated diene compound units and which has been hydrogenated, and at least one polymer block having a polar functional group. 100 parts by mass of a hydrogenated block copolymer mixture (a); 0.1 to 100 parts by mass of a polyvinyl acetal (b); and 0.1 to 20 parts by mass of a thermoplastic elastomer (c), a hydrogenated block copolymer comprising at least one polymer block which has aromatic vinyl compound units and at least one polymer block which has conjugated diene compound units and which has been hydrogenated and having a polymer block content of 5 mass% or higher and lower than 40 mass%, and a hydrogenated block copolymer comprising at least one polymer block which has aromatic vinyl compound units and at least one polymer block which has conjugated diene compound units and which has been hydrogenated and having a polymer block content of 40 mass% to 70 mass%; the polyvinyl acetal (b) has been produced through acetalization of a polyvinyl alcohol having an average polymerization degree of 100 to 4,000 and has an acetalization degree of 55 to 88 mol%; and the thermoplastic elastomer (c) comprises at least one polymer block which has aromatic vinyl compound units, at least one polymer block which has conjugated diene compound units and which has been hydrogenated, and at least one polymer block having a polar functional group.