mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a terminal device in a wireless telecommunications system, the method comprising: attempting to decode a transmission of data to the terminal device; determining whether or not the data was successfully decoded; and transmitting acknowledgement signalling indicating whether or not the data was successfully decoded on radio resources that are determined by taking account of whether or not the data was successfully decoded; wherein the acknowledgement signalling is transmitted on first radio resources at a first time if it is determined the data was successfully decoded and on second radio resources at a second time if it is determined the data was not successfully decoded; characterised by the second time being earlier than the first time. attempting to decode a transmission of data to the terminal device; determining whether or not the data was successfully decoded; and transmitting acknowledgement signalling indicating whether or not the data was successfully decoded on radio resources that are determined by taking account of whether or not the data was successfully decoded; wherein the acknowledgement signalling is transmitted on first radio resources at a first time if it is determined the data was successfully decoded and on second radio resources at a second time if it is determined the data was not successfully decoded; characterised by the second time being earlier than the first time.
A rotating-layering mold of rotating, according to a predetermined angle, plate materials punched by a cooperation of an upper mold and a lower mold so as to laminate the plate materials, wherein the rotating-layering mold comprises a squeeze ring provided with a holding hole of holding the punched plate materials, characterized in that: the squeeze ring is configured to rotate with respect to the lower mold such that an outer peripheral surface of the squeeze ring lies along an inner peripheral surface of the lower mold; and the rotating-layering mold further comprises a first thrust bearing, a second thrust bearing, and a radial bearing in order to support the rotation of the squeeze ring with respect to the lower mold. the squeeze ring is configured to rotate with respect to the lower mold such that an outer peripheral surface of the squeeze ring lies along an inner peripheral surface of the lower mold; and the rotating-layering mold further comprises a first thrust bearing, a second thrust bearing, and a radial bearing in order to support the rotation of the squeeze ring with respect to the lower mold.
A sensor arrangement, comprising: a magnetic sensor to receive a magnetic field; a pole element arranged next to the magnetic sensor, the pole element to concentrate the magnetic field receivable by the magnetic sensor; a printed circuit board disposed within a housing, the magnetic sensor and the pole element being mounted to the printed circuit board, wherein the magnetic sensor and the pole element are held firmly in place within the housing; and a movable magnet positioned proximate to the magnetic sensor and the pole element, wherein rotation of the moveable magnet is sensed by the magnetic sensor, causing the magnetic sensor to output a value proportional to the rotation of the moveable magnet, the output further being a ratiometric output correlating a detected rotation of the moveable magnet to an output voltage, wherein the pole element is mounted directly adjacent to the magnetic sensor mounted to the printed circuit board and arranged to extend longitudinally on the printed circuit board along a circumferential direction with respect to the rotation axis of the moveable magnet to attract and concentrate the magnetic field thereby reducing a linearity error of the magnetic sensor. a magnetic sensor to receive a magnetic field; a pole element arranged next to the magnetic sensor, the pole element to concentrate the magnetic field receivable by the magnetic sensor; a printed circuit board disposed within a housing, the magnetic sensor and the pole element being mounted to the printed circuit board, wherein the magnetic sensor and the pole element are held firmly in place within the housing; and a movable magnet positioned proximate to the magnetic sensor and the pole element, wherein rotation of the moveable magnet is sensed by the magnetic sensor, causing the magnetic sensor to output a value proportional to the rotation of the moveable magnet, the output further being a ratiometric output correlating a detected rotation of the moveable magnet to an output voltage, wherein the pole element is mounted directly adjacent to the magnetic sensor mounted to the printed circuit board and arranged to extend longitudinally on the printed circuit board along a circumferential direction with respect to the rotation axis of the moveable magnet to attract and concentrate the magnetic field thereby reducing a linearity error of the magnetic sensor.
Vehicle, in particular commercial vehicle, with a system for checking a condition of at least one component on the vehicle, wherein the system comprises - a movement means and a rail system - a detection device which detects information in the form of a data set in a defined area on the vehicle, the defined area comprising the at least one component to be checked, and - an evaluation device to which the data record is provided by the detection device, wherein the evaluation device is configured to determine the status of the at least one component on the basis of the detected data record, wherein the detection device is attached to the vehicle, wherein the detection device is positioned on the movement means, wherein the detection device comprises a sensor, said sensor being based in particular on the detection and/or emission of electromagnetic waves and/or sound waves, characterized in that the detection means is positioned on an outside of the vehicle, wherein the moving means is a carriage on the rail system, and wherein the sensing device and/or the moving means comprises a drive. wherein the system comprises - a movement means and a rail system - a detection device which detects information in the form of a data set in a defined area on the vehicle, the defined area comprising the at least one component to be checked, and - an evaluation device to which the data record is provided by the detection device, wherein the evaluation device is configured to determine the status of the at least one component on the basis of the detected data record, - a movement means and a rail system - a detection device which detects information in the form of a data set in a defined area on the vehicle, the defined area comprising the at least one component to be checked, and - an evaluation device to which the data record is provided by the detection device, wherein the evaluation device is configured to determine the status of the at least one component on the basis of the detected data record, wherein the detection device is attached to the vehicle, wherein the detection device is positioned on the movement means, wherein the detection device comprises a sensor, said sensor being based in particular on the detection and/or emission of electromagnetic waves and/or sound waves, characterized in that the detection means is positioned on an outside of the vehicle, wherein the moving means is a carriage on the rail system, and wherein the sensing device and/or the moving means comprises a drive.
A fitting arrangement for a leaf of a window, of a door or the like having a leaf part configured for attachment to the leaf and having a frame part configured for attachment to a fixed-position frame, wherein the leaf part and the frame part are pivotably coupled to one another about a pivot axis, and wherein the frame part and the leaf part are movable relative to one another for adjustment purposes in a direction in parallel with the pivot axis by means of a longitudinal adjustment mechanism of an adjustment unit; wherein the adjustment unit is arranged at the frame part or at the leaf part and cooperates with a slide which is movable for adjustment purposes; wherein the frame part and/or the leaf part is/are movable relative to the slide; wherein the slide is associated with the frame part or with the leaf part and a tab is associated with the other part (14 or 12) and engages into the slide; wherein the tab is displaceably arranged in a tab receiver of the slide in a direction perpendicular to the pivot axis; wherein the longitudinal adjustment mechanism has self-locking properties; and wherein the adjustment unit has a transverse adjustment mechanism which is designed such that the frame part and the leaf part are movable relative to one another for adjustment purposes in the direction perpendicular to the pivot axis, characterized in that the longitudinal adjustment mechanism comprises at least one worm gear (44, 46); and in that the transverse adjustment mechanism has a rotatable screw which directly cooperates with the tab.
A system for measuring power produced by a three phase power source comprising a first phase, a second phase and a third phase, the system comprising: a first current sensor configured to sense a first current difference between a first current corresponding to the first phase and a second current corresponding to the second phase a second current sensor configured to sense a second current difference between the second current corresponding to the second phase and a third current corresponding to the third phase; and a power measuring device characterized in that a first voltage sensor is configured to sense a first voltage difference between a first voltage corresponding to the first phase and a second voltage corresponding to the second phase a second voltage sensor is configured to sense a second voltage difference between a second voltage corresponding to the second phase and a third voltage corresponding to the third phase; and wherein the power measuring device is configured to determine a third current difference by using the second current difference and the first current difference, calculate a third voltage difference by subtracting the first voltage difference from the second voltage difference and to determine the power produced by the power source using the first, second and third voltage differences and the first, second and third current differences. a first current sensor configured to sense a first current difference between a first current corresponding to the first phase and a second current corresponding to the second phase a second current sensor configured to sense a second current difference between the second current corresponding to the second phase and a third current corresponding to the third phase; and a power measuring device characterized in that a first voltage sensor is configured to sense a first voltage difference between a first voltage corresponding to the first phase and a second voltage corresponding to the second phase a second voltage sensor is configured to sense a second voltage difference between a second voltage corresponding to the second phase and a third voltage corresponding to the third phase; and wherein the power measuring device is configured to determine a third current difference by using the second current difference and the first current difference, calculate a third voltage difference by subtracting the first voltage difference from the second voltage difference and to determine the power produced by the power source using the first, second and third voltage differences and the first, second and third current differences.
A method for manufacturing a thermoelectric conversion module (101,102,103) including a thermoelectric semiconductor part in which a plurality of p-type semiconductors and a plurality of n-type semiconductors are alternately arranged, and a high temperature side electrode bound to a binding surface of the p-type semiconductor and the n-type semiconductor on a high temperature heat source side and a low temperature side electrode bound to a binding surface of the p-type semiconductor and the n-type semiconductor on a low temperature heat source side, which electrically connect the p-type semiconductor and the n-type semiconductor adjacent to each other in series, the method comprising: a binding step of binding at least one of the high temperature side electrode and the low temperature side electrode, and the p-type semiconductor and the n-type semiconductor together, by sintering a binding layer (31,32) containing metal particles, which is provided between the electrode and the semiconductor, wherein the binding layer is formed of a binder containing copper particles as the metal particles, characterised in that the binder contains flaky microcopper particles having a volume average particle diameter of greater than or equal to 2 μm and less than or equal to 50 μm and an aspect ratio of greater than or equal to 3.0 by greater than or equal to 10 mass% and less than or equal to 50 mass% on the basis of the total mass of the metal particles, as the copper particles. a binding step of binding at least one of the high temperature side electrode and the low temperature side electrode, and the p-type semiconductor and the n-type semiconductor together, by sintering a binding layer (31,32) containing metal particles, which is provided between the electrode and the semiconductor, wherein the binding layer is formed of a binder containing copper particles as the metal particles, characterised in that the binder contains flaky microcopper particles having a volume average particle diameter of greater than or equal to 2 μm and less than or equal to 50 μm and an aspect ratio of greater than or equal to 3.0 by greater than or equal to 10 mass% and less than or equal to 50 mass% on the basis of the total mass of the metal particles, as the copper particles.
An inflatable support comprising a body formed from a flexible, non-distensible, gas impermeable polymeric material, wherein the body defines therein a cavity; a cavity valve which defines a gas inlet into the cavity and a gas outlet from the cavity; and a pump coupled to the cavity valve via a conduit, wherein the inflatable support further includes a reinforcing element located within the cavity, characterised in that the reinforcing element is in the form of a continuous or non-continuous sheet of reinforcing material; and wherein the reinforcing element is free from the body and is capable of movement relative to the body within the cavity.
A display device (1, 110, 120), comprising: a display cell mainly made of glass; a surrounding member provided to surround four lateral sides of the display cell; a cover film provided on a respective front side of the display cell and the surrounding member; a relay member provided on a respective rear side of the display cell and the surrounding member, and facing a margin between the display cell and the surrounding member; and an adhesive layer provided between the display cell and the relay member, and between the surrounding member and the relay member, wherein the relay member is made of one or more of a group consisting of glass, carbon, and glass fiber. a display cell mainly made of glass; a surrounding member provided to surround four lateral sides of the display cell; a cover film provided on a respective front side of the display cell and the surrounding member; a relay member provided on a respective rear side of the display cell and the surrounding member, and facing a margin between the display cell and the surrounding member; and an adhesive layer provided between the display cell and the relay member, and between the surrounding member and the relay member, wherein the relay member is made of one or more of a group consisting of glass, carbon, and glass fiber.
A LED module comprising - a substrate for LED chips, - at least three LED chips (2, 3, 4) mounted directly or indirectly on the substrate, and - a common encapsulation layer disposed on the LED chips (2, 3, 4) and comprising color conversion material for modifying the emission spectrum of the LED chips (2, 3, 4), wherein the quantity of color conversion material disposed on a first group of at least one LED chip is lower than the quantity of color conversion material disposed on a second group of at least one LED chip (2, 3), and wherein at least one LED chip of the first group and at least one LED chip of the second group emit in the same wavelength range, characterized in that the LEDs chips (2, 3) of the first group and/or the LED chips of the second group present different emission spectra. - a substrate for LED chips, - at least three LED chips (2, 3, 4) mounted directly or indirectly on the substrate, and - a common encapsulation layer disposed on the LED chips (2, 3, 4) and comprising color conversion material for modifying the emission spectrum of the LED chips (2, 3, 4),
Sensor mounting for a distance sensor, wherein the sensor mounting at least comprises: an attachment part for attachment to a vehicle, an accommodating part adjustably attached to the attachment part for accommodating the distance sensor, wherein the accommodating part can be adjusted on the attachment part in at least two different angular positions, characterized in that - the attachment part is a housing and - the accommodating part is a cover that closes the housing, wherein the distance sensor is attached to the cover and enclosed by the housing, wherein the cover is rotated through 180° in each of the two angular positions relative to the other position. an attachment part for attachment to a vehicle, an accommodating part adjustably attached to the attachment part for accommodating the distance sensor, wherein the accommodating part can be adjusted on the attachment part in at least two different angular positions, characterized in that - the attachment part is a housing and - the accommodating part is a cover that closes the housing, - the attachment part is a housing and - the accommodating part is a cover that closes the housing, wherein the distance sensor is attached to the cover and enclosed by the housing, wherein the cover is rotated through 180° in each of the two angular positions relative to the other position.
A computer device, comprising: a graphics processing unit, GPU,; a memory to store an application and a modified MIP in a format incompatible with the GPU, the modified MIP includes a plurality of images with varying resolutions corresponding to an original MIP chain for use with textures of the application wherein a highest resolution image was removed from the original MIP chain; at least one processor in communication with the memory; an operating system in communication with the memory, the at least one processor, the GPU, and the application, wherein the application is operable to, when executed at runtime or installation of the application, receive the modified MIP and convert the modified MIP by reconstructing the highest resolution image by applying a trained machine learning model to a first image of the modified MIP chain, and generating a hardware compatible compressed reconstructed MIP chain with the reconstructed highest resolution image and the plurality of images usable by the GPU. a graphics processing unit, GPU,; a memory to store an application and a modified MIP in a format incompatible with the GPU, the modified MIP includes a plurality of images with varying resolutions corresponding to an original MIP chain for use with textures of the application wherein a highest resolution image was removed from the original MIP chain; at least one processor in communication with the memory; an operating system in communication with the memory, the at least one processor, the GPU, and the application, wherein the application is operable to, when executed at runtime or installation of the application, receive the modified MIP and convert the modified MIP by reconstructing the highest resolution image by applying a trained machine learning model to a first image of the modified MIP chain, and generating a hardware compatible compressed reconstructed MIP chain with the reconstructed highest resolution image and the plurality of images usable by the GPU.
An energy storage device comprising two electrodes separated by an electrolyte, wherein at least one electrode comprises a an adherent cohesive carbon assembly adhering to a metal substrate without a bonding material, wherein the cohesive carbon assembly is a monolithic structure with a distinct shape and size in which carbon is uniformly distributed, wherein the cohesive carbon assembly comprises carbon nanotubes (CNTs) without orientation or alignment of the individual CNT units and does not have a binding material, and the device is a battery or an electrochemical double-layer capacitor (EDLC).
A munition comprising: a casing wherein the casing is a penetrator casing having a nose that is thicker than an aft section of the casing that is aft of the nose; an explosive within the casing; preformed solid fragments (4, 5) surrounding the explosive, wherein the preformed fragments (4, 5) include inner fragments and outer fragments; wherein the outer fragments are radially outward from a center of the munition further than the inner fragments; characterized in that the inner fragments include fragments contained within the casing, between an inner surface of the casing and the outer surface of the casing; and in that the outer fragments are outside of the outer surface of the casing. a casing wherein the casing is a penetrator casing having a nose that is thicker than an aft section of the casing that is aft of the nose; an explosive within the casing; preformed solid fragments (4, 5) surrounding the explosive, wherein the preformed fragments (4, 5) include inner fragments and outer fragments; wherein the outer fragments are radially outward from a center of the munition further than the inner fragments; characterized in that the inner fragments include fragments contained within the casing, between an inner surface of the casing and the outer surface of the casing; and in that the outer fragments are outside of the outer surface of the casing.
A composite polymer modifier consisting of: a) from 99 to 1 weight percent of one or more inorganic mineral fillers, b) from 1 to 99 weight percent of one or more polymeric process aids, and c) optionally from 0 to 80 weight percent of one or more polymeric impact modifiers, wherein the total adds up to 100 weight percent, and wherein said composite polymer modifier is in the form of complex particles containing both polymer and inorganic mineral fillers in intimate contact, and wherein the process aid is an acrylic copolymer having 60 percent or more of acrylic and/or methacrylic monomer units chosen from methyl acrylate, ethyl acrylate, butyl acrylate, and 2-ethyl-hexyl-acrylate, methyl methacrylate, ethyl methacrylate, and butyl methacrylate and having a molecular weight of 50,000 to 10,000,000 g/mol and the polymeric impact modifier is chosen from core-shell and linear copolymer or terpolymer. a) from 99 to 1 weight percent of one or more inorganic mineral fillers, b) from 1 to 99 weight percent of one or more polymeric process aids, and c) optionally from 0 to 80 weight percent of one or more polymeric impact modifiers,