mhurhangee/patent-ind-claim-en huggingface dataset:
Image recording system , wherein the image recording system comprises at least one optics holder with a through-hole, a carrier plate closing the through-hole with a surface on one side, and an image recorder , which is arranged on the surface of the carrier plate , and a needle channel passing through the optics holder to from the through-hole to an outer side of the optics holder , wherein the needle channel is suitable for injection moulding an encapsulation of the image recorder acting as an optical lens, also comprising the encapsulation of the image recorder acting as an optical lens, wherein the encapsulation comprises at least one transparent thermosetting material, wherein the thermosetting material extends through the needle channel to the outer side .
An arc welding method comprising: performing pulse arc welding with a welding wire being fed in a forward direction during a first period; performing short-circuit transfer arc welding with the welding wire being fed in the forward direction and a reverse direction during a second period; and alternately switching between the first period and the second period; characterized in that switching the first period to the second period is performed during a peak period of the welding current value (Iw), a feeding speed (Fw) of the welding wire starts increasing during the peak period of the welding current value (Iw), and the feeding speed (Fw) of the welding wire is increased up to a forward-feeding peak value (Wsp), the forward-feeding peak value (Wsp) in a first cycle of the second period is set to be different from the forward-feeding peak value (Wsp) in a subsequent cycle of the second period, and switching the second period to the first period is performed at an arc period of the second period. performing pulse arc welding with a welding wire being fed in a forward direction during a first period; performing short-circuit transfer arc welding with the welding wire being fed in the forward direction and a reverse direction during a second period; and alternately switching between the first period and the second period; characterized in that switching the first period to the second period is performed during a peak period of the welding current value (Iw), a feeding speed (Fw) of the welding wire starts increasing during the peak period of the welding current value (Iw), and the feeding speed (Fw) of the welding wire is increased up to a forward-feeding peak value (Wsp), the forward-feeding peak value (Wsp) in a first cycle of the second period is set to be different from the forward-feeding peak value (Wsp) in a subsequent cycle of the second period, and switching the second period to the first period is performed at an arc period of the second period.
A wire inspection system comprising: a mirror assembly comprising an odd number of sides arranged to form a pyramid structure configured to surround a wire segment , wherein a plurality of said sides comprise a mirror , each mirror being sized to occupy less than half of a surface of an associated side; a light source configured to illuminate the wire segment; and at least one camera configured to acquire a plurality of images of the wire segment that are reflected by said plurality of mirrors, wherein each image of the plurality of images shows a different side of the wire segment. a mirror assembly comprising an odd number of sides arranged to form a pyramid structure configured to surround a wire segment , wherein a plurality of said sides comprise a mirror , each mirror being sized to occupy less than half of a surface of an associated side; a light source configured to illuminate the wire segment; and at least one camera configured to acquire a plurality of images of the wire segment that are reflected by said plurality of mirrors, wherein each image of the plurality of images shows a different side of the wire segment.
A screen assembly of a mobile device, characterized in that the screen assembly comprises: a light sensor , disposed within a display region of the screen assembly and capable of acquiring data about ambient light for the mobile device so as to suitably adjust brightness of the screen of the mobile device; a data transmission wire , connected to the light sensor at one end and a processing component in the mobile device at the other end, and capable of transmitting data acquired by the light sensor to the processing component ; and a touch screen structure , characterized in that the touch screen structure has a conductive layer which contains a plurality of electrodes arranged in accordance with a preset pattern; and wherein a vertical projection of the light sensor is located within a vertical projection of a gap among the plurality of electrodes. a light sensor , disposed within a display region of the screen assembly and capable of acquiring data about ambient light for the mobile device so as to suitably adjust brightness of the screen of the mobile device; a data transmission wire , connected to the light sensor at one end and a processing component in the mobile device at the other end, and capable of transmitting data acquired by the light sensor to the processing component ; and a touch screen structure , characterized in that the touch screen structure has a conductive layer which contains a plurality of electrodes arranged in accordance with a preset pattern; and wherein a vertical projection of the light sensor is located within a vertical projection of a gap among the plurality of electrodes.
A mosaic implant for use in a bone defect, comprising: (a) a mesh support frame (2920;3520) comprising a plurality of polygonal support rings (2940;2940A;2940B;3540;3540A;3540B) connected to one another by a plurality of struts (2914;3514), and an outer rim (2930;3130;3530) extending about at least a portion of the periphery of the support frame; (b) a plurality of biocompatible mosaic plates, wherein said polygonal support rings are positioned within said mosaic plates, with said struts extending between adjacent plates; and (c) a plurality of fastening points that facilitate attachment of the mosaic implant in a patient, the fastening points (2942;3042;3242;3542) spaced outwardly of said outer rim. (a) a mesh support frame (2920;3520) comprising a plurality of polygonal support rings (2940;2940A;2940B;3540;3540A;3540B) connected to one another by a plurality of struts (2914;3514), and an outer rim (2930;3130;3530) extending about at least a portion of the periphery of the support frame; (b) a plurality of biocompatible mosaic plates, wherein said polygonal support rings are positioned within said mosaic plates, with said struts extending between adjacent plates; and (c) a plurality of fastening points that facilitate attachment of the mosaic implant in a patient, the fastening points (2942;3042;3242;3542) spaced outwardly of said outer rim.
A lead wire terminal block comprising: a plurality of first pairs of lead wire insertion holes (10, 11; L1-L4) formed in a terminal surface of a case , wherein the plurality of first pairs of lead wire insertion holes (10, 11; L1-L4) are formed adjacent to each other and wherein the lead wire insertion holes (10, 11; L1-L4) extend in a zigzag in a width direction of the case ; a plurality of first pairs of holes corresponding to the plurality of first pairs of lead wire insertion holes (10, 11; L1-L4), respectively, and formed in the terminal surface of the case , wherein the plurality of first pairs of holes is formed adjacent to each other and wherein the holes extend in a zigzag in the width direction of the case ; characterized in that the holes are tool insertion holes; wherein each of the first pairs of tool insertion holes is provided in a length direction of the case relative to its corresponding first pair of lead wire insertion holes (10, 11; L1-L4); and the lead wire terminal block further comprises a first plurality of lead wire connection portions (H1-H4) provided in the case and configured to electrically connect cores of lead wires inserted into a respective first pair of the lead wire insertion holes (10, 11; L1-L4) to common contact point of the lead wire connection portion (H1-H4). a plurality of first pairs of lead wire insertion holes (10, 11; L1-L4) formed in a terminal surface of a case , wherein the plurality of first pairs of lead wire insertion holes (10, 11; L1-L4) are formed adjacent to each other and wherein the lead wire insertion holes (10, 11; L1-L4) extend in a zigzag in a width direction of the case ; a plurality of first pairs of holes corresponding to the plurality of first pairs of lead wire insertion holes (10, 11; L1-L4), respectively, and formed in the terminal surface of the case , wherein the plurality of first pairs of holes is formed adjacent to each other and wherein the holes extend in a zigzag in the width direction of the case ; characterized in that the holes are tool insertion holes; wherein each of the first pairs of tool insertion holes is provided in a length direction of the case relative to its corresponding first pair of lead wire insertion holes (10, 11; L1-L4); and the lead wire terminal block further comprises a first plurality of lead wire connection portions (H1-H4) provided in the case and configured to electrically connect cores of lead wires inserted into a respective first pair of the lead wire insertion holes (10, 11; L1-L4) to common contact point of the lead wire connection portion (H1-H4).
A method for wireless communication at a user equipment, UE, comprising: entering a first power mode of the UE in a synchronized communication system operating in a shared spectrum frequency band; performing , in a second power mode, discontinuous monitoring of a plurality of potential locations for a signal, wherein the second power mode is higher than the first power mode;receiving the signal in one of the plurality of potential locations; entering a third power mode, based at least in part on receiving the signal, to process a control resource set associated with a downlink transmission opportunity, wherein the third power mode is higher than the first power mode and the second power mode, and wherein the first, second and third power modes are power consumption modes of the UE; determining that a content of the downlink transmission opportunity will include content for the UE based at least in part on processing the control resource set; and monitoring at least a portion of the downlink transmission opportunity based at least in part on determining that the content includes the content for the UE. entering a first power mode of the UE in a synchronized communication system operating in a shared spectrum frequency band; performing , in a second power mode, discontinuous monitoring of a plurality of potential locations for a signal, wherein the second power mode is higher than the first power mode;receiving the signal in one of the plurality of potential locations; entering a third power mode, based at least in part on receiving the signal, to process a control resource set associated with a downlink transmission opportunity, wherein the third power mode is higher than the first power mode and the second power mode, and wherein the first, second and third power modes are power consumption modes of the UE; determining that a content of the downlink transmission opportunity will include content for the UE based at least in part on processing the control resource set; and monitoring at least a portion of the downlink transmission opportunity based at least in part on determining that the content includes the content for the UE.
An aircraft wing assembly comprising - a main wing portion , - a high-lift device comprising a flow surface with an upper skin portion and a lower skin portion, wherein the high-lift device is movable between a retracted position at the main wing portion and a deployed position defining a gap between the high-lift device and the main wing portion, wherein the main wing portion and the high-lift device in the retracted position define an airfoil having a local chord (c(y)) between a trailing edge and a leading edge, wherein the leading edge is on the flow surface of the high-lift device between the upper skin portion and the lower skin portion, wherein the flow surface of the high-lift device comprises a first flow surface portion , a second flow surface portion and a third flow surface portion , characterized in that the first flow surface portion is micro-perforated for an air inflow, wherein the first flow surface portion extends on the upper skin from the leading edge in chordwise direction for 2% or less of the local chord and extends on the lower skin from the leading edge in chordwise direction for 2% or less of the local chord, and wherein the second flow surface portion is not micro-perforated and extends over the rest of the upper skin portion, and wherein the third flow surface portion is not micro-perforated and extends over the rest of the lower skin portion. - a main wing portion , - a high-lift device comprising a flow surface with an upper skin portion and a lower skin portion,
A heat exchanger for a cryogenic cooling apparatus, comprising: a first conduit , a second conduit and a chamber , wherein the chamber is arranged to receive a fluid from the first conduit, and wherein second conduit is thermally coupled to the outside of the chamber, the chamber having a first region and a second region , the first region separated from the second region by a plate extending through the chamber, the plate comprising one or more apertures for allowing a flow of the fluid from the first region to the second region; characterised in that the chamber comprises a first end piece and a second end piece forming opposing sides of the chamber respectively, the first end piece coupled to the second end piece by a flow deflector , the flow deflector comprising a collar separating the first end piece from the second end piece, wherein the plate extends across the collar to form part of the flow deflector. a first conduit , a second conduit and a chamber , wherein the chamber is arranged to receive a fluid from the first conduit, and wherein second conduit is thermally coupled to the outside of the chamber, the chamber having a first region and a second region , the first region separated from the second region by a plate extending through the chamber, the plate comprising one or more apertures for allowing a flow of the fluid from the first region to the second region; characterised in that the chamber comprises a first end piece and a second end piece forming opposing sides of the chamber respectively, the first end piece coupled to the second end piece by a flow deflector , the flow deflector comprising a collar separating the first end piece from the second end piece, wherein the plate extends across the collar to form part of the flow deflector.
A control system based on multiple feedback signals of a switch device , comprising: a micro switch ; a signal processing device coupled to an external system and the micro switch ; and a motor control device coupled to the signal processing device , wherein the micro switch is configured for sensing a position of a movable contact of the switch device to generate the multiple feedback signals, characterised in that the signal processing device is configured for receiving a control signal of the external system and the multiple feedback signals, and generating a motor control instruction of the switch device according to a feedback signal finally received among the multiple feedback signals and the control signal, and wherein the motor control device is configured for controlling a motor of the switch device according to the motor control instruction, and the motor controls closing and opening of a main contact of the switch device . a micro switch ; a signal processing device coupled to an external system and the micro switch ; and a motor control device coupled to the signal processing device , wherein the micro switch is configured for sensing a position of a movable contact of the switch device to generate the multiple feedback signals, characterised in that the signal processing device is configured for receiving a control signal of the external system and the multiple feedback signals, and generating a motor control instruction of the switch device according to a feedback signal finally received among the multiple feedback signals and the control signal, and wherein the motor control device is configured for controlling a motor of the switch device according to the motor control instruction, and the motor controls closing and opening of a main contact of the switch device .
A shaft pipe collection module to be provided in a shaft for pipes in a building, said shaft pipe collection module comprising: - a support structure arranged for holding pipe sections to be provided in the shaft pipe collection module , which pipe sections will be protruding out on both sides of a floor structure in which the shaft is provided when the shaft pipe collection module is mounted to this floor structure of the shaft, wherein said support structure comprises a frame arranged to enclose one part of the pipe sections , which is protruding above the floor structure when the shaft pipe collection module is mounted to the floor structure ; and - a leakage collection device provided as a tub, comprising openings for receiving the pipe sections , said leakage collection device being arranged to collect possible leakage from connections of other pipes to the pipe sections protruding through the openings of the leakage collection device , wherein the frame of the support structure is arranged to hold the leakage collection device at a distance above the floor structure when the shaft pipe collection module is mounted to the floor structure of the shaft, wherein a height of the frame is designed for providing a suitable working height for the connection of other pipes to the pipe sections , and wherein the shaft pipe collection module further comprises a mold plate comprising openings for receiving the pipe sections and being arranged to be provided beneath the floor structure and covering the shaft opening in the floor structure for allowing molding after mounting of the shaft pipe collection module . - a support structure arranged for holding pipe sections to be provided in the shaft pipe collection module , which pipe sections will be protruding out on both sides of a floor structure in which the shaft is provided when the shaft pipe collection module is mounted to this floor structure of the shaft, wherein said support structure comprises a frame arranged to enclose one part of the pipe sections , which is protruding above the floor structure when the shaft pipe collection module is mounted to the floor structure ; and - a leakage collection device provided as a tub, comprising openings for receiving the pipe sections , said leakage collection device being arranged to collect possible leakage from connections of other pipes to the pipe sections protruding through the openings of the leakage collection device ,
Method for actuating a MOSFET , in particular a MOSFET based on a semiconductor with a wide band gap, wherein - a characteristic block is created in which, as a function of at least one operating characteristic variable (U, T) influencing the switching behaviour of the MOSFET , a change (ΔU1, ΔU2, ΔR1, ΔR2) to at least one actuating variable (U1, U2, R1, R2) for actuating the MOSFET compared to a reference actuating value of the actuating variable (U1, U2, R1, R2) is recorded, which change counteracts a change to the switching behaviour due to the at least one operating characteristic variable (U, T), - during operation of the MOSFET , an actual value of the at least one operating characteristic variable (U, T) is ascertained and - the at least one actuating variable (U1, U2, R1, R2) is changed compared to its reference actuating value, according to the characteristic block, as a function of the actual value of the at least one operating characteristic variable (U, T). - a characteristic block is created in which, as a function of at least one operating characteristic variable (U, T) influencing the switching behaviour of the MOSFET , a change (ΔU1, ΔU2, ΔR1, ΔR2) to at least one actuating variable (U1, U2, R1, R2) for actuating the MOSFET compared to a reference actuating value of the actuating variable (U1, U2, R1, R2) is recorded, which change counteracts a change to the switching behaviour due to the at least one operating characteristic variable (U, T), - during operation of the MOSFET , an actual value of the at least one operating characteristic variable (U, T) is ascertained and - the at least one actuating variable (U1, U2, R1, R2) is changed compared to its reference actuating value, according to the characteristic block, as a function of the actual value of the at least one operating characteristic variable (U, T).
A system for facilitating processing of cardiac information based on sensed electrical signals, the system comprising: a processing unit configured to: receive a set of electrical signals; receive an indication of a measurement location corresponding to each electrical signal of the set of electrical signals; generate an annotation waveform corresponding to the set of electrical signals, the annotation waveform based on deflections of the set of electrical signals from a baseline signal, the annotation waveform comprising a plurality of annotation waveform values based on each electrical signal of the set of electrical signals, each annotation waveform value representing a probability that the deflection of the electrical signal from the baseline signal represents an activation of cardiac tissue, the baseline signal including a range of values that represent, and/or are determined based on a noise floor; generate, based on the annotation waveform and a set of annotation mapping values, an annotation histogram; and reject or attenuate far-field signal components from the received electrical signals before generating the annotation waveform. receive a set of electrical signals; receive an indication of a measurement location corresponding to each electrical signal of the set of electrical signals; generate an annotation waveform corresponding to the set of electrical signals, the annotation waveform based on deflections of the set of electrical signals from a baseline signal, the annotation waveform comprising a plurality of annotation waveform values based on each electrical signal of the set of electrical signals, each annotation waveform value representing a probability that the deflection of the electrical signal from the baseline signal represents an activation of cardiac tissue, the baseline signal including a range of values that represent, and/or are determined based on a noise floor; generate, based on the annotation waveform and a set of annotation mapping values, an annotation histogram; and reject or attenuate far-field signal components from the received electrical signals before generating the annotation waveform.