mhurhangee/ep-ind-claims huggingface dataset:
An electric wire twisting device for producing a twisted electric wire by twisting at least a first electric wire and a second electric wire each of the first and second electric wires (C1, C2) having a first end and a second end, the electric wire twisting device comprising: a first gripping device including a first clamp that is configured to grip the first end of the first electric wire and a second clamp that is configured to grip the first end of the second electric wire; a second gripping device that is configured to grip the second end of the first electric wire and the second end of the second electric wire; a revolving actuator that is configured to cause the first gripping device to rotate in a first rotation direction around a center line of revolution and/or to cause the second gripping device to rotate in a second rotation direction opposite to the first rotation direction around the center line of revolution; and a rotating actuator that is configured to cause the first clamp to rotate in the second rotation direction around a first center line of rotation that is parallel to the center line of revolution or is inclined with respect to the center line of revolution and/or is configured to cause the second clamp to rotate in the second rotation direction around a second center line of rotation that is parallel to the center line of revolution or is inclined with respect to the center line of revolution; characterized in that the electric wire twisting device comprises a controller that is configured to start driving the rotating actuator before the revolving actuator starts driving or after the revolving actuator starts driving. a first gripping device including a first clamp that is configured to grip the first end of the first electric wire and a second clamp that is configured to grip the first end of the second electric wire; a second gripping device that is configured to grip the second end of the first electric wire and the second end of the second electric wire; a revolving actuator that is configured to cause the first gripping device to rotate in a first rotation direction around a center line of revolution and/or to cause the second gripping device to rotate in a second rotation direction opposite to the first rotation direction around the center line of revolution; and a rotating actuator that is configured to cause the first clamp to rotate in the second rotation direction around a first center line of rotation that is parallel to the center line of revolution or is inclined with respect to the center line of revolution and/or is configured to cause the second clamp to rotate in the second rotation direction around a second center line of rotation that is parallel to the center line of revolution or is inclined with respect to the center line of revolution; characterized in that the electric wire twisting device comprises a controller that is configured to start driving the rotating actuator before the revolving actuator starts driving or after the revolving actuator starts driving.
A piston ring, comprising: - an annular body; - a wear-resistant layer that is applied to the annular body by thermal spraying; and - a run-in layer made of an AlCuFe alloy that is applied to the wear-resistant layer by thermal spraying, - wherein the run-in layer comprises marks of shot peening shots, - wherein the run-in layer has a hardness HV of 150-250, - wherein a coverage of 50-100 % is achieved during the shot peening, and wherein the run-in layer has a roughness Rz of 60 - 95 μm. - an annular body; - a wear-resistant layer that is applied to the annular body by thermal spraying; and - a run-in layer made of an AlCuFe alloy that is applied to the wear-resistant layer by thermal spraying, - wherein the run-in layer comprises marks of shot peening shots, - wherein the run-in layer has a hardness HV of 150-250, - wherein a coverage of 50-100 % is achieved during the shot peening, and wherein the run-in layer has a roughness Rz of 60 - 95 μm.
A resin composition, comprising: a copolymer containing a non-conjugated olefin unit, a conjugated diene unit, and an aromatic vinyl unit; and a thermoplastic resin and/or a thermoplastic elastomer, wherein the copolymer has a melting point of 55 °C or higher, measured by differential scanning calorimetry, a main chain of the copolymer is constituted exclusively of acyclic structures, the total content of the copolymer, the thermoplastic resin and the thermoplastic elastomer is ≥ 70 mass % with respect to the total amount of the resin composition, and a content of butylene unit is 0 mol % in the copolymer. a copolymer containing a non-conjugated olefin unit, a conjugated diene unit, and an aromatic vinyl unit; and a thermoplastic resin and/or a thermoplastic elastomer, wherein the copolymer has a melting point of 55 °C or higher, measured by differential scanning calorimetry, a main chain of the copolymer is constituted exclusively of acyclic structures, the total content of the copolymer, the thermoplastic resin and the thermoplastic elastomer is ≥ 70 mass % with respect to the total amount of the resin composition, and a content of butylene unit is 0 mol % in the copolymer.
A method of transferring computer readable data from a sender via a first security domain and then a second security domain of a cross-domain solution to a receiver, wherein the first and second security domains of differing security levels are connected by a communications channel, permitting the computer readable data to pass from the first security domain to the second security domain, but not from the second security domain to the first security domain, the method comprising: accepting, from the sender, the computer readable data in the first security domain for transfer to the second security domain; passing the computer readable data to a first machine learning classifier of a machine learning filter at the first security domain trained with at least malware files publicly identified as malicious; if the first machine learning classifier does not classify the computer readable data as likely malware, passing the computer readable data to a second machine learning classifier of the machine learning filter at the first security domain trained with at least malware files specific to the first security domain, wherein the first domain is associated with one or more hardware component, data type and/or mission, and the malware files specific to the first security domain include malware file that can affect the hardware component, and/or can interact with the data type, and/or can affect the mission; and if the second machine learning classifier does not classify the computer readable data as likely malware, transferring the computer readable data to a destination in the second security domain. accepting, from the sender, the computer readable data in the first security domain for transfer to the second security domain; passing the computer readable data to a first machine learning classifier of a machine learning filter at the first security domain trained with at least malware files publicly identified as malicious; if the first machine learning classifier does not classify the computer readable data as likely malware, passing the computer readable data to a second machine learning classifier of the machine learning filter at the first security domain trained with at least malware files specific to the first security domain, wherein the first domain is associated with one or more hardware component, data type and/or mission, and the malware files specific to the first security domain include malware file that can affect the hardware component, and/or can interact with the data type, and/or can affect the mission; and if the second machine learning classifier does not classify the computer readable data as likely malware, transferring the computer readable data to a destination in the second security domain.
An information transmission method, comprising: determining, by a control device, a first transmission channel in at least one transmission channel configured between a first network device and a second network device based on at least two parameters: a packet sending frequency and a transmission performance, wherein the packet sending frequency of a packet flow is a maximum packet sending frequency required by the packet flow, the transmission performance of a transmission channel indicates a performance of one deterministic transmission service that is provided by the transmission channel in a packet transmission process, the performance of the deterministic transmission service including at least one of: a maximum latency of packet transmission, a maximum delay variation of packet transmission, and reliability of a packet transmission service, the first transmission channel is used to transmit a packet that belongs to at least one packet flow, the packet sending frequency currently supported by the first transmission channel is greater than or equal to a sum of packet sending frequencies of the at least one packet flow, and the transmission performance of the first transmission channel meets the transmission performance of the at least one packet flow; and sending, by the control device, first identification information to the first network device, wherein the first identification information is used to identify the first transmission channel. determining, by a control device, a first transmission channel in at least one transmission channel configured between a first network device and a second network device based on at least two parameters: a packet sending frequency and a transmission performance, wherein the packet sending frequency of a packet flow is a maximum packet sending frequency required by the packet flow, the transmission performance of a transmission channel indicates a performance of one deterministic transmission service that is provided by the transmission channel in a packet transmission process, the performance of the deterministic transmission service including at least one of: a maximum latency of packet transmission, a maximum delay variation of packet transmission, and reliability of a packet transmission service, the first transmission channel is used to transmit a packet that belongs to at least one packet flow, the packet sending frequency currently supported by the first transmission channel is greater than or equal to a sum of packet sending frequencies of the at least one packet flow, and the transmission performance of the first transmission channel meets the transmission performance of the at least one packet flow; and sending, by the control device, first identification information to the first network device, wherein the first identification information is used to identify the first transmission channel.
A method of a base station for performing a multi-beam based scheduling request in wireless communications, the method comprising: transmitting, to a user equipment, multi-beam based scheduling request configuration information for configuring multiple scheduling requests using multiple scheduling request resources, wherein the multiple scheduling request resources are multiple PUCCH resources configured based on a corresponding number of multiple beams configured for the user equipment; and receiving the multiple scheduling requests from the user equipment based on the multiple scheduling request resources based on the multi-beam based scheduling request configuration information and the multiple beams configured for the user equipment, wherein the multiple scheduling requests are received from the user equipment consecutively or based on a pre-configured time unit in the time domain; and the multiple scheduling requests are transmitted in a specific uplink radio frame, and, retransmission of the multiple scheduling requests is performed after Np subframes counting from a transmission subframe, and a transmission position of the multiple scheduling requests in a subframe transmitting or retransmitting the multiple scheduling requests is arranged in the first half or the second half of the subframe. transmitting, to a user equipment, multi-beam based scheduling request configuration information for configuring multiple scheduling requests using multiple scheduling request resources, wherein the multiple scheduling request resources are multiple PUCCH resources configured based on a corresponding number of multiple beams configured for the user equipment; and receiving the multiple scheduling requests from the user equipment based on the multiple scheduling request resources based on the multi-beam based scheduling request configuration information and the multiple beams configured for the user equipment, wherein the multiple scheduling requests are received from the user equipment consecutively or based on a pre-configured time unit in the time domain; and the multiple scheduling requests are transmitted in a specific uplink radio frame, and, retransmission of the multiple scheduling requests is performed after Np subframes counting from a transmission subframe, and a transmission position of the multiple scheduling requests in a subframe transmitting or retransmitting the multiple scheduling requests is arranged in the first half or the second half of the subframe.
A method for transmitting to a direct mobile communications, DMC, device by a user equipment operating in both a cellular mode and a DMC mode, wherein the DMC mode is a mode in which the user equipment communicates directly with the DMC device in a point-to-point communication, the method comprising: estimating a first pathloss, PL BS, of a first channel from the user equipment to a base station according to a difference between a known base station transmit power level and a received base station power level (step 605); estimating a second pathloss, PL D, of a second channel from the user equipment to the DMC device according to a difference between a known DMC device transmit power level and a received DMC device power level (step 610); setting a transmit power level for transmission to the DMC device according to the first pathloss, PL BS, and the second pathloss, PL D, (step 620); and transmitting a signal to the DMC device at the transmit power level, wherein setting the transmit power level comprises selecting a minimum one of a transmit power level among a minimum transmit power level, P D, resulting in a successful detection and decoding at the DMC device, a maximum transmit power level, P iBS, resulting in a maximum interference level, P i, at the base station and a maximum transmit power level, P MAX, of the user equipment. estimating a first pathloss, PL BS, of a first channel from the user equipment to a base station according to a difference between a known base station transmit power level and a received base station power level (step 605); estimating a second pathloss, PL D, of a second channel from the user equipment to the DMC device according to a difference between a known DMC device transmit power level and a received DMC device power level (step 610); setting a transmit power level for transmission to the DMC device according to the first pathloss, PL BS, and the second pathloss, PL D, (step 620); and transmitting a signal to the DMC device at the transmit power level, wherein setting the transmit power level comprises selecting a minimum one of a transmit power level among a minimum transmit power level, P D, resulting in a successful detection and decoding at the DMC device, a maximum transmit power level, P iBS, resulting in a maximum interference level, P i, at the base station and a maximum transmit power level, P MAX, of the user equipment.
Method for treating a railway including a ballast layer, covering a sub-layer, on which sleepers for supporting rails rest and which includes both ballast aggregates and pollution particles which are finer than the ballast aggregates, said method consisting in: - driving a tool into the ballast layer, and - drawing up at least some of the pollution particles by means of the tool that has been driven into the ballast layer so as to remove said pollution particles from the ballast aggregates, characterised in that, once the pollution particles have been drawn up and/or while said particles are being drawn up, the ballast aggregates are compacted using said tool by means of compression and vibration. - driving a tool into the ballast layer, and - drawing up at least some of the pollution particles by means of the tool that has been driven into the ballast layer so as to remove said pollution particles from the ballast aggregates, characterised in that, once the pollution particles have been drawn up and/or while said particles are being drawn up, the ballast aggregates are compacted using said tool by means of compression and vibration.
A fork top bridge for connecting steer tubes of a motorcycle or bicycle, having a bridge body and clamping collars (5, 5') integrally formed onto or secured to the bridge body, for clamping the steer tubes, wherein at least one clamping collar (5, 5') has the following: - a collar base, - a clamping tongue assembly, which includes a first clamping tongue and a second clamping tongue, which are located in line with one another in the axial direction of the clamping collar (5, 5'), extend outward in the circumferential direction from the collar base, together with the collar base enclose a receptacle chamber for a steer tube, and each have a circumferential end area, which is brought closer to the collar base, characterized in that the first clamping tongue extends from the collar base outward in a first circumferential direction; and that the second clamping tongue extends outward from the collar base in a second circumferential direction, which is the opposite of the first circumferential direction. - a collar base, - a clamping tongue assembly, which includes a first clamping tongue and a second clamping tongue, which are located in line with one another in the axial direction of the clamping collar (5, 5'), extend outward in the circumferential direction from the collar base, together with the collar base enclose a receptacle chamber for a steer tube, and each have a circumferential end area, which is brought closer to the collar base,
A nerve cuff electrode comprising a nerve cuff; a plurality of conductive nerve contact segments, the segments having an inner surface configured to contact a nerve trunk and an outer surface configured not to contact the nerve trunk; at least one wire of a conductive biocompatible material operatively connecting the plurality of conductive nerve contact segments thus forming a segmented strip which is able to curl around the nerve trunk in cooperation with the nerve cuff, the at least one wire configured as helical portions separated by non-helical portions where the non-helical portions are secured to the outer surface of the conductive nerve contact segments, the helical portions configured to bend and axially expand or compress in response to stress induced by conformal changes of the nerve trunk caused by daily activities of the patient; and a conductive lead capable of operatively connecting a waveform generator to at least one of the plurality of nerve contact segments. a nerve cuff; a plurality of conductive nerve contact segments, the segments having an inner surface configured to contact a nerve trunk and an outer surface configured not to contact the nerve trunk; at least one wire of a conductive biocompatible material operatively connecting the plurality of conductive nerve contact segments thus forming a segmented strip which is able to curl around the nerve trunk in cooperation with the nerve cuff, the at least one wire configured as helical portions separated by non-helical portions where the non-helical portions are secured to the outer surface of the conductive nerve contact segments, the helical portions configured to bend and axially expand or compress in response to stress induced by conformal changes of the nerve trunk caused by daily activities of the patient; and a conductive lead capable of operatively connecting a waveform generator to at least one of the plurality of nerve contact segments.
An electronic device comprising: a display (160, 210) configured to display a screen; a display driver circuit configured to receive video information to control the display to display the screen; a module comprising a camera disposed in a first region of the display; and at least one processor operatively connected with the display driver circuit and the module, wherein at least one of the at least one processor or the display driver circuit is configured to: display a first image using the display; receive a user input to enlarge the first image; and in response to receiving the user input, compensate for a second image displayed in the first region based on a change in the second image of the first region of the screen or a change in a pixel value of the first region, wherein the second image is a partial image of the first image corresponding to the first region in the first image, wherein compensating for the second image displayed in the first region comprises setting a brightness value, a saturation value or a color value of the first region to gradually change from the module to an edge of the first region, such that the disturbance of the viewing of the screen by the module is reduced. a display (160, 210) configured to display a screen; a display driver circuit configured to receive video information to control the display to display the screen; a module comprising a camera disposed in a first region of the display; and at least one processor operatively connected with the display driver circuit and the module, wherein at least one of the at least one processor or the display driver circuit is configured to: display a first image using the display; receive a user input to enlarge the first image; and in response to receiving the user input, compensate for a second image displayed in the first region based on a change in the second image of the first region of the screen or a change in a pixel value of the first region, wherein the second image is a partial image of the first image corresponding to the first region in the first image, wherein compensating for the second image displayed in the first region comprises setting a brightness value, a saturation value or a color value of the first region to gradually change from the module to an edge of the first region, such that the disturbance of the viewing of the screen by the module is reduced. display a first image using the display; receive a user input to enlarge the first image; and in response to receiving the user input, compensate for a second image displayed in the first region based on a change in the second image of the first region of the screen or a change in a pixel value of the first region, wherein the second image is a partial image of the first image corresponding to the first region in the first image, wherein compensating for the second image displayed in the first region comprises setting a brightness value, a saturation value or a color value of the first region to gradually change from the module to an edge of the first region, such that the disturbance of the viewing of the screen by the module is reduced.