mhurhangee/ep-ind-claims huggingface dataset:
A stacked light receiving sensor comprising: a first substrate (100, 300) that forms a first layer; a second substrate (120, 320) that is joined with the first substrate (100, 300) and that forms a second layer; a third substrate (140, 340) that is joined with the second substrate (120, 320) and that forms a third layer; a pixel array section that includes a plurality of unit pixels arranged two-dimensionally in a matrix and that outputs a pixel signal; an analog circuit (201, 211, 221) that reads the pixel signal from the pixel array section and outputs a first image signal; a logic circuit that is connected to the analog circuit (201, 211, 221) and that executes signal processing on the first image signal and that outputs a second image signal; a memory that stores therein a neural network computing model; a processing section that executes processing based on the neural network computing model, on data based on the second image signal; and an output section that outputs a processing result at least based on the neural network computing model to an outside, wherein the pixel array section is disposed on the first layer, the analog circuit (201, 211, 221) is disposed on any one or more of the first to third layers, and the logic circuit, the processing section, and the memory are disposed on any one or more of the second and third layers, characterized in that the memory and the processing section are disposed on a same layer and the memory and the processing section are disposed in such a manner that the processing section is surrounded by the memory. a first substrate (100, 300) that forms a first layer; a second substrate (120, 320) that is joined with the first substrate (100, 300) and that forms a second layer; a third substrate (140, 340) that is joined with the second substrate (120, 320) and that forms a third layer; a pixel array section that includes a plurality of unit pixels arranged two-dimensionally in a matrix and that outputs a pixel signal; an analog circuit (201, 211, 221) that reads the pixel signal from the pixel array section and outputs a first image signal; a logic circuit that is connected to the analog circuit (201, 211, 221) and that executes signal processing on the first image signal and that outputs a second image signal; a memory that stores therein a neural network computing model; a processing section that executes processing based on the neural network computing model, on data based on the second image signal; and an output section that outputs a processing result at least based on the neural network computing model to an outside, wherein the pixel array section is disposed on the first layer, the analog circuit (201, 211, 221) is disposed on any one or more of the first to third layers, and the logic circuit, the processing section, and the memory are disposed on any one or more of the second and third layers, characterized in that the memory and the processing section are disposed on a same layer and the memory and the processing section are disposed in such a manner that the processing section is surrounded by the memory.
An imidazole compound represented by the following formula [wherein: Ring A represents an optionally substituted aryl group or an optionally substituted heteroaryl group; R 1 represents a hydrogen atom, an optionally substituted alkyl group, an optionally substituted cycloalkyl group, an optionally substituted aryl group, an optionally substituted heteroaryl group, an optionally substituted aliphatic heterocyclic group, or an optionally substituted alkanoyl group; R 2 represents a hydrogen atom, a halogen atom, an optionally substituted alkyl group, or an optionally substituted alkoxy group; and R 3 represents an optionally substituted alkyl group] or a pharmaceutically acceptable salt thereof. Ring A represents an optionally substituted aryl group or an optionally substituted heteroaryl group; R 1 represents a hydrogen atom, an optionally substituted alkyl group, an optionally substituted cycloalkyl group, an optionally substituted aryl group, an optionally substituted heteroaryl group, an optionally substituted aliphatic heterocyclic group, or an optionally substituted alkanoyl group; R 2 represents a hydrogen atom, a halogen atom, an optionally substituted alkyl group, or an optionally substituted alkoxy group; and R 3 represents an optionally substituted alkyl group] or a pharmaceutically acceptable salt thereof.
A self-adjusting liner assembly for a welding torch comprising: an elongated tubular body having a forward end, a rearward end, and a central bore extending from said forward end to said rearward end; an elongated fixed tube mounted in said bore; an elongated tubular slide having an inner end, an outer end, and a shoulder proximate said outer end; said fixed tube being received in said inner end of said slide, and said slide cooperating with said fixed tube in a telescoping relationship in said bore; and a resilient member disposed in said bore and enveloping a portion of said fixed tube and said slide, said resilient member engaging said shoulder of said slide and urging said slide away from said fixed tube and toward the forward end of said body, said central bore of the elongated tubular body including a stop in said forward end for limiting the movement of the slide and a seat in said rearward end, characterized in that said self-adjusting liner assembly further comprises an inlet guide being removably disposed in said rearward end of said elongated tubular body engaging the seat and including a recess, which is defined by an increased diameter portion of a passage through the inlet guide, receiving the elongated fixed tube, and an opposite end of the resilient member engaging the inlet guide. an elongated tubular body having a forward end, a rearward end, and a central bore extending from said forward end to said rearward end; an elongated fixed tube mounted in said bore; an elongated tubular slide having an inner end, an outer end, and a shoulder proximate said outer end; said fixed tube being received in said inner end of said slide, and said slide cooperating with said fixed tube in a telescoping relationship in said bore; and a resilient member disposed in said bore and enveloping a portion of said fixed tube and said slide, said resilient member engaging said shoulder of said slide and urging said slide away from said fixed tube and toward the forward end of said body, said central bore of the elongated tubular body including a stop in said forward end for limiting the movement of the slide and a seat in said rearward end, characterized in that said self-adjusting liner assembly further comprises an inlet guide being removably disposed in said rearward end of said elongated tubular body engaging the seat and including a recess, which is defined by an increased diameter portion of a passage through the inlet guide, receiving the elongated fixed tube, and an opposite end of the resilient member engaging the inlet guide.
A method of manufacture of a reflective mirror (310, 410) comprising: thixotropically molding a magnesium AZ91-D alloy to produce a magnesium substrate having a first surface; single point diamond turning the first surface of the magnesium substrate to produce a reflective surface of the mirror, having a surface finish of less than 80Å RMS. thixotropically molding a magnesium AZ91-D alloy to produce a magnesium substrate having a first surface; single point diamond turning the first surface of the magnesium substrate to produce a reflective surface of the mirror, having a surface finish of less than 80Å RMS.
An expandable stent, comprising: a tubular scaffold formed of one or more interwoven filaments, the tubular scaffold including an inner surface; and a flexible valve extending radially inward from the inner surface of the scaffold; wherein the valve is configured to shift between a closed configuration and an open configuration; wherein the one or more filaments of the scaffold bias the valve to the closed configuration while in a nominally deployed state, wherein the tubular scaffold includes a first tapered region and a second tapered region, and wherein the valve is positioned between the first tapered region and the second tapered region. a tubular scaffold formed of one or more interwoven filaments, the tubular scaffold including an inner surface; and a flexible valve extending radially inward from the inner surface of the scaffold; wherein the valve is configured to shift between a closed configuration and an open configuration; wherein the one or more filaments of the scaffold bias the valve to the closed configuration while in a nominally deployed state, wherein the tubular scaffold includes a first tapered region and a second tapered region, and wherein the valve is positioned between the first tapered region and the second tapered region.
A method of determining transmit formats (T1, T2, T N) and receive formats (R1, R2, R M) for a 3D video communication service, comprising the steps of: receiving sets of available 3D video communication transmit formats, each set being associated with a client device (2, 2a, 2b, 2c); receiving sets of available 3D video communication receive formats, each set being associated with one of the client devices; and characterized by determining, for at least one of the client devices, one format for transmission of 3D video communication from the at least one client device to the other client devices, the one format being a member of both the set of available 3D video communication transmit formats associated with the at least one client device and the received available 3D video communication receive formats associated with the other client devices. receiving sets of available 3D video communication transmit formats, each set being associated with a client device (2, 2a, 2b, 2c); receiving sets of available 3D video communication receive formats, each set being associated with one of the client devices; and characterized by determining, for at least one of the client devices, one format for transmission of 3D video communication from the at least one client device to the other client devices, the one format being a member of both the set of available 3D video communication transmit formats associated with the at least one client device and the received available 3D video communication receive formats associated with the other client devices.
A micro fluxgate sensor, comprising: an amorphous magnetic core (1,2) formed on a wafer on which a seed layer is deposited; an excitation coil, consisting of coil portions, wound around the amorphous magnetic core; a magnetic field detecting coil, consisting of coil portions, wound around the excitation coil and the amorphous magnetic core (1,2); a protective film formed on the excitation coil and the magnetic field detecting coil; and a pad (210a,210b), which is formed by etching the protective film, exposing a portion of the excitation coil and magnetic field detecting coil, and wherein the even-numbered coil portions form the excitation coil while the odd-numbered coil portions form the magnetic field detecting coil, or vice versa. an amorphous magnetic core (1,2) formed on a wafer on which a seed layer is deposited; an excitation coil, consisting of coil portions, wound around the amorphous magnetic core; a magnetic field detecting coil, consisting of coil portions, wound around the excitation coil and the amorphous magnetic core (1,2); a protective film formed on the excitation coil and the magnetic field detecting coil; and a pad (210a,210b), which is formed by etching the protective film, exposing a portion of the excitation coil and magnetic field detecting coil, and wherein the even-numbered coil portions form the excitation coil while the odd-numbered coil portions form the magnetic field detecting coil, or vice versa.
Device for coupling ionisation energy into an ion or electron source, which is excited inductively or inductively-capacitively, and which comprises - a discharge vessel for a gas to be ionized, - a coupling coil, which is wound around the discharge vessel for feeding a high-frequency energy, which is required for plasma excitation, - a coupling capacitor, which is electrically coupled to the coupling coil, - a high-frequency generator, which is electrically coupled to the coupling coil and which forms together with the at least one coupling capacitor a resonant circuit, the high-frequency generator including a PLL controller for automatic impedance matching of the resonant circuit, so that the resonant circuit can be driven at a resonant frequency, wherein the at least one coupling capacitor and the coupling coil are connected to the high-frequency generator via a transformer, wherein on the primary side the transformer is capacitively coupled to the high-frequency generator and on the secondary side forms the resonant circuit with the at least one coupling capacitor and the coupling coil, characterized in that the high-frequency generator is connected to the coupling coil without interposing an impedance matching network. - a discharge vessel for a gas to be ionized, - a coupling coil, which is wound around the discharge vessel for feeding a high-frequency energy, which is required for plasma excitation, - a coupling capacitor, which is electrically coupled to the coupling coil, - a high-frequency generator, which is electrically coupled to the coupling coil and which forms together with the at least one coupling capacitor a resonant circuit, the high-frequency generator including a PLL controller for automatic impedance matching of the resonant circuit, so that the resonant circuit can be driven at a resonant frequency,
Method for monitoring the operation of an electric motor, in particular of an electric motor configured as an asynchronous motor, wherein the motor current is detected, wherein the electric motor has a brake, in particular a holding brake, that can be actuated in particular electromagnetically, in particular wherein the braking torque generated by the brake is supplied to the rotor of the electric motor, characterised in that in a first method step, when the electric motor is switched on, in particular when a motor voltage is applied, the curve of the detected values of the motor current induced during pre-magnetisation is monitored for overshooting a permitted degree of deviation from a setpoint curve, wherein the brake of the electric motor is activated, in particular remains applied, wherein in a second method step chronologically following the first method step, - a brake of the electric motor is released if no overshooting has been detected during the first method step, and thereafter the active mode, in particular the automatic mode, of the electric motor is implemented, - the brake of the electric motor remains applied if overshooting has been detected during the first method step, and thereafter the active mode, in particular the automatic mode, of the electric motor is not implemented. wherein the motor current is detected, wherein the electric motor has a brake, in particular a holding brake, that can be actuated in particular electromagnetically, in particular wherein the braking torque generated by the brake is supplied to the rotor of the electric motor, characterised in that in a first method step, when the electric motor is switched on, in particular when a motor voltage is applied, the curve of the detected values of the motor current induced during pre-magnetisation is monitored for overshooting a permitted degree of deviation from a setpoint curve, wherein the brake of the electric motor is activated, in particular remains applied, wherein in a second method step chronologically following the first method step, - a brake of the electric motor is released if no overshooting has been detected during the first method step, and thereafter the active mode, in particular the automatic mode, of the electric motor is implemented, - the brake of the electric motor remains applied if overshooting has been detected during the first method step, and thereafter the active mode, in particular the automatic mode, of the electric motor is not implemented. - a brake of the electric motor is released if no overshooting has been detected during the first method step, and thereafter the active mode, in particular the automatic mode, of the electric motor is implemented, - the brake of the electric motor remains applied if overshooting has been detected during the first method step, and thereafter the active mode, in particular the automatic mode, of the electric motor is not implemented.
Electric hob with a retaining device (11, 111) for a control of the electric hob on the electric hob, wherein the retaining device has a base body (13, 113), wherein - a retaining body (16, 116) is arranged on the base body (13, 113) so as to be movable relative thereto and is held thereon, - the control is arranged on the retaining body (16, 116) and is arranged so as to be resiliently movable relative to the base body (13, 113), - the base body (13, 113) has a cutout or an opening in which the retaining body (16, 116) is arranged, and - the retaining body (16, 116) is at least partially surrounded by the base body (13, 113), characterized in that - a plurality of spring means (20a-20d, 120a-120d) are provided for a retaining connection between the base body (13, 113) and the retaining body (16, 116) and for retaining the retaining body on the base body, - only the spring means (20a-20d, 120a-120d) are provided for this retention, and - the base body (13, 113) and the retaining body (16, 116) together with the spring means (20a-20d, 120a-120d) are manufactured in one piece and in a single operation by plastic injection molding. - a retaining body (16, 116) is arranged on the base body (13, 113) so as to be movable relative thereto and is held thereon, - the control is arranged on the retaining body (16, 116) and is arranged so as to be resiliently movable relative to the base body (13, 113), - the base body (13, 113) has a cutout or an opening in which the retaining body (16, 116) is arranged, and - the retaining body (16, 116) is at least partially surrounded by the base body (13, 113), - a plurality of spring means (20a-20d, 120a-120d) are provided for a retaining connection between the base body (13, 113) and the retaining body (16, 116) and for retaining the retaining body on the base body, - only the spring means (20a-20d, 120a-120d) are provided for this retention, and - the base body (13, 113) and the retaining body (16, 116) together with the spring means (20a-20d, 120a-120d) are manufactured in one piece and in a single operation by plastic injection molding.
An operating circuit for a lighting means, which has at least one light-emitting diode, comprising a clocked converter with a coil and a controllable switching means and a control device for the clocked switching of the controllable switching means, wherein the control device is set up in order to carry out in a first operating phase a current control deviating from a second operating phase following the first operating phase, wherein the control device is set up, in order to determine a switching time for the controllable switching means depending on a coil current, characterized in that the control device is set up, to switch the controllable switching means such that a temporal mean value of the coil current in the first operating phase is greater than in the second operating phase.
A laparoscopic instrument, comprising a shaft (104, 1204a, 1204c, 1304) including a plurality of winglets (138, 1238c, 1338) disposed along a length of the shaft, a first handle (128, 132) pivotally rotatable among at least two lockable positions, and a first drum (120, 122, 1220a, 1220c, 1320, 1322) attached to the first handle (128, 132), the shaft passing through the first drum, and the first drum being rotatable around the shaft to cause the first handle to be pivotally rotatable among the at least two lockable positions, characterized by a second drum (120, 122, 1220a, 1220c, 1320, 1322) attached to a second handle (128,132) pivotally rotatable among the least two lockable positions with the first handle (128, 132), and further characterized in that the shaft (104, 1204a, 1204c, 1304) passes through the first drum and second drum (120, 122); the first drum has at least one slot extending through at least part of the first drum; the second drum has at least one slot extending through at least part of the second drum (120, 122, 1220a, 1220c, 1320, 1322); and the plurality of shaft winglets (138, 1238c, 1338) and said drum slots are positioned such that said shaft is movable through said first and second drums between one position in which said winglets protrude through respective slots of the first and second drums to lock together the first drum (120, 122, 1220a, 1220c, 1320, 1322) and the second drum (120, 122, 1220a, 1220c, 1320, 1322) while the shaft is rotated among the at least twolockable positions, and another position in which none of the plurality of winglets protrude into said at least one slot of said first drum and in which at least one of said winglets protrudes through at least one slot of the second drum to permit said first drum to rotate independently of said second drum.