mhurhangee/patent-ind-claim-en huggingface dataset:
A system for an aircraft , the system comprising: a first pneumatic sensor configured to sense a first value external to the aircraft ; a first optical sensor configured to emit a first optical signal external to the aircraft and receive a first optical response, the first optical sensor comprising: a laser configured to emit a beam of laser light into an atmosphere external to the aircraft; and a detector configured to detect the laser light reflected by molecules and/or particulates in the atmosphere external to the aircraft, wherein the first optical sensor is configured to not extend beyond a boundary layer adjacent to the body of the aircraft ; the system further comprising a computer system configured to receive the first value and the first optical response, characterised by the first pneumatic sensor having a bump or bubble shape configured to protrude from a body of an aircraft but not beyond a boundary layer adjacent to the body of the aircraft , wherein the first value is indicative of Pitot pressure, angle of attack, and/or angle of sideslip, wherein the computer system is further configured to calculate, based on either the received first value or the received first optical response, a local flow field surrounding the aircraft , thereby providing dissimilar and redundant sensing of air data. a first pneumatic sensor configured to sense a first value external to the aircraft ; a first optical sensor configured to emit a first optical signal external to the aircraft and receive a first optical response, the first optical sensor comprising: a laser configured to emit a beam of laser light into an atmosphere external to the aircraft; and a laser configured to emit a beam of laser light into an atmosphere external to the aircraft; and a detector configured to detect the laser light reflected by molecules and/or particulates in the atmosphere external to the aircraft, wherein the first optical sensor is configured to not extend beyond a boundary layer adjacent to the body of the aircraft ; the system further comprising a computer system configured to receive the first value and the first optical response, characterised by the first pneumatic sensor having a bump or bubble shape configured to protrude from a body of an aircraft but not beyond a boundary layer adjacent to the body of the aircraft , wherein the first value is indicative of Pitot pressure, angle of attack, and/or angle of sideslip, wherein the computer system is further configured to calculate, based on either the received first value or the received first optical response, a local flow field surrounding the aircraft , thereby providing dissimilar and redundant sensing of air data.
A piston assembly, comprising: a piston having a first end, an opposing second end, and a sidewall extending from the first end to the second end, the piston further including a cavity at least partially defined by the sidewall; a spring guide having a first end and an opposing second end, the spring guide disposed within the cavity of the piston and adjacent the sidewall; and an insulator having a first portion extending from the second end of the piston and a second portion disposed within the piston; and characterised by : an insulator shield disposed adjacent the first portion of the insulator; and a component coupled to the second end of the spring guide, the component being offset from the insulator shield by a distance. a piston having a first end, an opposing second end, and a sidewall extending from the first end to the second end, the piston further including a cavity at least partially defined by the sidewall; a spring guide having a first end and an opposing second end, the spring guide disposed within the cavity of the piston and adjacent the sidewall; and an insulator having a first portion extending from the second end of the piston and a second portion disposed within the piston; and characterised by : an insulator shield disposed adjacent the first portion of the insulator; and a component coupled to the second end of the spring guide, the component being offset from the insulator shield by a distance. an insulator shield disposed adjacent the first portion of the insulator; and a component coupled to the second end of the spring guide, the component being offset from the insulator shield by a distance.
A wireless power supply coil unit for receiving power wirelessly when mounted on the base of a vehicle, the wireless power supply coil unit comprising: a first magnetic body with a plate-like shape having a surface and a thickness; a coil having a hollow portion in a center of the coil and a coil axis which extends along the thickness of the first magnetic body, wherein the coil has an electric wire wound horizontally relative to the coil axis, the first magnetic body having an opening at a position corresponding to the hollow portion in the center of the coil , the center of the opening corresponding to the coil axis; a second magnetic body having a plate-like shape and arranged in the hollow portion in the center of the coil on a bottom side of the first magnetic body and whose center corresponds to the coil axis, and a periphery of the second magnetic body overlaps with a circumferential part around the opening of the first magnetic body ; and an insulating plate interposed between the bottom side of the first magnetic body and a top side of the second magnetic body , wherein an overlapping width YOL between the first magnetic body and the second magnetic body is greater than or equal to the thickness of the first magnetic body , and characterized in that the insulating plate is provided with a groove for coil winding, and wherein the coil is placed to fit in the groove . a first magnetic body with a plate-like shape having a surface and a thickness; a coil having a hollow portion in a center of the coil and a coil axis which extends along the thickness of the first magnetic body, wherein the coil has an electric wire wound horizontally relative to the coil axis, the first magnetic body having an opening at a position corresponding to the hollow portion in the center of the coil , the center of the opening corresponding to the coil axis; a second magnetic body having a plate-like shape and arranged in the hollow portion in the center of the coil on a bottom side of the first magnetic body and whose center corresponds to the coil axis, and a periphery of the second magnetic body overlaps with a circumferential part around the opening of the first magnetic body ; and an insulating plate interposed between the bottom side of the first magnetic body and a top side of the second magnetic body , wherein an overlapping width YOL between the first magnetic body and the second magnetic body is greater than or equal to the thickness of the first magnetic body , and characterized in that the insulating plate is provided with a groove for coil winding, and wherein the coil is placed to fit in the groove .
Furniture having a hinge and a device for carrying current to a movable furniture part of the furniture, which is movably connected to a furniture body of the furniture via the hinge , wherein the hinge comprises a hinge arm and a hinge pot , wherein current-carrying means are provided, which have a first current-carrying device for fixed arrangement on the side of the movable furniture part , which is designed for fixed arrangement in the movable furniture part and is fixedly arranged on the movable furniture part , and in that the current-carrying means have a second current-carrying device for fixed arrangement in the furniture body and is fixedly arranged on the furniture body , wherein the respective current-carrying device has a contact unit to make contact with the hinge on the side of the movable furniture, , on the one hand, and on the side of the furniture body , on the other hand, characterized in that at least the contact unit for the side of the furniture body has an anchoring device for anchoring in the furniture body , wherein the anchoring device comprises a dowel , in which a contact member for making contact with the hinge is arranged.
A standby system device which is connected to an active system device comprising: (a) process information receiving means for periodically receiving active side process information indicating usage of resources of said active system device by an active system process operating on said active system device from said active system device ; and (b) a standby process for referring to said receiving active side process information and acquiring resources of said standby system device in such a way that said acquired resources are equal to or greater than said usage of resources of said active system device by said active system process ; (c) a takeover process for, when activated, taking over processing of said active system process ; and (d) process management means adapted (d1) to terminate the standby process when a takeover of said active system process is requested on said standby system device , thereby releasing the resources acquired by the standby process , and (d2) to activate the takeover process after the release, so that the takeover process takes over processing of said active system process after acquiring the released resources. (a) process information receiving means for periodically receiving active side process information indicating usage of resources of said active system device by an active system process operating on said active system device from said active system device ; and (b) a standby process for referring to said receiving active side process information and acquiring resources of said standby system device in such a way that said acquired resources are equal to or greater than said usage of resources of said active system device by said active system process ; (c) a takeover process for, when activated, taking over processing of said active system process ; and (d) process management means adapted (d1) to terminate the standby process when a takeover of said active system process is requested on said standby system device , thereby releasing the resources acquired by the standby process , and (d2) to activate the takeover process after the release, so that the takeover process takes over processing of said active system process after acquiring the released resources. (d1) to terminate the standby process when a takeover of said active system process is requested on said standby system device , thereby releasing the resources acquired by the standby process , and (d2) to activate the takeover process after the release, so that the takeover process takes over processing of said active system process after acquiring the released resources.
Device for aligning and masking free ends of plug-in coils of a stator to be welded, the alignment and masking serving to prepare a connection process, in particular a welding process, by means of which free ends of the plug-in coils are connected to one another, the free ends extending along a longitudinal direction (L), and the free ends being arranged on concentric circular paths which extend in a circumferential direction (U), and in rows which extend in the radial direction (R), the device comprising a first planar positioning unit and a second planar positioning unit , the first positioning unit having first passages for assemblies of free ends to be welded together, which passages are arranged so as to correspond to the position of the free ends , and the second positioning unit also having second passages for assemblies of free ends to be welded together, which passages are arranged so as to correspond to the position of the free ends , the first positioning unit and/or the second positioning unit being arranged rotatably in the device such that the positioning units can be rotated relative to one another, in particular in opposite directions, during an alignment process of the plug-in coils , so that the first positioning unit contacts the plug-in coils in the circumferential direction (U) with a first contact portion from a first side and pushes them into the desired position and the second positioning unit contacts the plug-in coils in the circumferential direction (U) with a second contact portion from a second side and pushes them into the desired position, the second side being opposite the first side , the first contact portion and the second contact portion lying in a contact plane orthogonal to the longitudinal direction (L) so that during an alignment process they contact the free ends at the same height along the longitudinal direction (L), the first passages and/or the second passages forming radial stop portions for assemblies of free ends to be welded together, characterized in that the device further comprises a radial clamping device having a plurality of radial clamping units , each of which is designed and arranged to push the assemblies of free ends to be welded, located in superimposed first passages and second passages , against the radial stop portions of the first passages and/or the second passages .
A method of graphics processing in a graphics processing unit (GPU), the method comprising: receiving a first texture having texels of a first data type; receiving a second texture having texels of a second data type, wherein one of the data types is an integer data type and the other data type is a floating point data type; determining , using at least one processor operatively coupled with a memory, an interpolation parameter for a texel of the first data type in the first texture to map said texel to a pixel of an image, the image representing a three-dimensional object, the interpolation parameter comprising a weight to be applied to said texel of the first data type; and reusing the interpolation parameter determined for the texel of the first data type to map a texel of the second data type in the second texture to said pixel of the image by applying said weight to the texel of the second data type in the second texture. receiving a first texture having texels of a first data type; receiving a second texture having texels of a second data type, wherein one of the data types is an integer data type and the other data type is a floating point data type; determining , using at least one processor operatively coupled with a memory, an interpolation parameter for a texel of the first data type in the first texture to map said texel to a pixel of an image, the image representing a three-dimensional object, the interpolation parameter comprising a weight to be applied to said texel of the first data type; and reusing the interpolation parameter determined for the texel of the first data type to map a texel of the second data type in the second texture to said pixel of the image by applying said weight to the texel of the second data type in the second texture.
An LED lamp single live wire intelligent control device for connection to an AC power supply, comprising: at least one LED lamp half-wave driving member , a single live wire control circuit connected in series with the at least one LED lamp half-wave driving member on an AC loop; and at least one control output circuit connected in series with the single live wire control circuit on the same AC loop; wherein the at least one LED lamp half-wave driving member comprises a DC driver and a first rectifier diode connected in parallel with the DC driver of a LED lamp ; wherein the single live wire control circuit comprises a half-wave DC power supply circuit and a CPU control circuit ; characterised in that the half-wave DC power supply circuit comprises a DC power circuit and a second rectifier diode connected in parallel with the DC power circuit ; a conduction direction of the second rectifier diode in the same AC loop is opposite to the conduction direction of the first rectifier diode of the at least one LED lamp half-wave driving member in the same AC loop; and in that the at least one control output circuit comprises at least one switch element and a third rectifier diode connected in parallel with the at least one switch element; the CPU control circuit is connected with the DC power circuit and the at least one switch element ; and a conduction direction of the third rectifier diode in the same AC loop is the same as the conduction direction of the first rectifier diode of the at least one LED lamp half-wave driving member in the same AC loop. at least one LED lamp half-wave driving member , a single live wire control circuit connected in series with the at least one LED lamp half-wave driving member on an AC loop; and at least one control output circuit connected in series with the single live wire control circuit on the same AC loop; wherein the at least one LED lamp half-wave driving member comprises a DC driver and a first rectifier diode connected in parallel with the DC driver of a LED lamp ; wherein the single live wire control circuit comprises a half-wave DC power supply circuit and a CPU control circuit ; characterised in that the half-wave DC power supply circuit comprises a DC power circuit and a second rectifier diode connected in parallel with the DC power circuit ; a conduction direction of the second rectifier diode in the same AC loop is opposite to the conduction direction of the first rectifier diode of the at least one LED lamp half-wave driving member in the same AC loop; and in that the at least one control output circuit comprises at least one switch element and a third rectifier diode connected in parallel with the at least one switch element; the CPU control circuit is connected with the DC power circuit and the at least one switch element ; and a conduction direction of the third rectifier diode in the same AC loop is the same as the conduction direction of the first rectifier diode of the at least one LED lamp half-wave driving member in the same AC loop.
An invoking device, comprising: a data invoking request receiving unit , configured to receive a data invoking request sent by an application entity/a common services entity, AE/CSE; characterized in that a querying unit , configured to query, according to an identifier AE/CSE ID, of the application entity/common services entity that provides to-be-invoked data, in the received data invoking request, prestored data for data corresponding to the AE/CSE ID, and query, according to a data demand in the received data invoking request, the data corresponding to the AE/CSE ID for whether data meeting the data demand exists; and a returning unit , configured to: when the data meeting the data demand exists, return the data meeting the data demand to the AE/CSE; a reading unit, configured to read a system time and a configured update time limit to determine whether the update time limit is reached; and an updating unit, configured to: when the update time limit is reached, connect to a node in which the AE/CSE that provides the to-be-invoked data is located and update the prestored data. a data invoking request receiving unit , configured to receive a data invoking request sent by an application entity/a common services entity, AE/CSE; characterized in that a querying unit , configured to query, according to an identifier AE/CSE ID, of the application entity/common services entity that provides to-be-invoked data, in the received data invoking request, prestored data for data corresponding to the AE/CSE ID, and query, according to a data demand in the received data invoking request, the data corresponding to the AE/CSE ID for whether data meeting the data demand exists; and a returning unit , configured to: when the data meeting the data demand exists, return the data meeting the data demand to the AE/CSE; a reading unit, configured to read a system time and a configured update time limit to determine whether the update time limit is reached; and an updating unit, configured to: when the update time limit is reached, connect to a node in which the AE/CSE that provides the to-be-invoked data is located and update the prestored data.
An electric storage device comprising: an electric storage element arranged inside an electric storage device case (BC); an electrode terminal arranged outside the electric storage device case (BC); a current collector including a first posture part (FP) and a second posture part (SP), the first posture part (FP) extending along a surface of the electric storage device case (BC) on which the electrode terminal is arranged, the second posture part (SP) extending from an end portion of the first posture part (FP) toward the side opposite to the electrode terminal , the current collector fixed at the first posture part (FP) by means of a fixing member penetrating through an opening formed in the electric storage device case (BC), the current collector supporting the electric storage element by the second posture part (SP), thereby electrically connecting the electrode terminal and the electric storage element ; and characterized in that a reinforcing member arranged on the first posture part (FP) side where the electric storage element is present, so as to extend longer toward the second posture part (SP) side than the fixing member , and sandwiched and fixed between the first posture part (FP) and the fixing member , and the reinforcing member is arranged in direct contact with an electric storage element -side surface of the first posture part (FP). an electric storage element arranged inside an electric storage device case (BC); an electrode terminal arranged outside the electric storage device case (BC); a current collector including a first posture part (FP) and a second posture part (SP), the first posture part (FP) extending along a surface of the electric storage device case (BC) on which the electrode terminal is arranged, the second posture part (SP) extending from an end portion of the first posture part (FP) toward the side opposite to the electrode terminal , the current collector fixed at the first posture part (FP) by means of a fixing member penetrating through an opening formed in the electric storage device case (BC), the current collector supporting the electric storage element by the second posture part (SP), thereby electrically connecting the electrode terminal and the electric storage element ; and characterized in that a reinforcing member arranged on the first posture part (FP) side where the electric storage element is present, so as to extend longer toward the second posture part (SP) side than the fixing member , and sandwiched and fixed between the first posture part (FP) and the fixing member , and the reinforcing member is arranged in direct contact with an electric storage element -side surface of the first posture part (FP).
A process for recycling polyolefins, comprising the steps a) Extrusion of used polyolefin material which is contaminated with volatile components which the polyolefin material has taken up during its use, b) Production of granules from the polyolefin material emerging from the extrusion into a liquid cooling medium, c) Separation of the cooling medium to obtain a dry polyolefin granulate d) Treatment of the dry polyolefin granulate in a treatment space with a treatment gas, preferably in counter-current flow, characterised in that the process is carried out in such a way that the dry polyolefin granules, directly after separation of the cooling medium in step c), still have a temperature T2 which is above a temperature T1 of the liquid cooling medium in step b) and is in the range of 71°C-200°C, preferably 80°C-160°C, but below the melting point of the granules, and at least 75% of the dry polyolefin granules in the treatment space have a temperature T3 which is in the range T2 ± 20°C, but below the melting point of the granules. a) Extrusion of used polyolefin material which is contaminated with volatile components which the polyolefin material has taken up during its use, b) Production of granules from the polyolefin material emerging from the extrusion into a liquid cooling medium, c) Separation of the cooling medium to obtain a dry polyolefin granulate d) Treatment of the dry polyolefin granulate in a treatment space with a treatment gas, preferably in counter-current flow,