mhurhangee/patent-ind-claim-en huggingface dataset:
An X-ray fluorescence spectrometer which obtains a quantitative value of a content of a component in a sample and/or a quantitative value of a thickness of the sample , based on corrected intensities obtained by irradiating the sample with primary X-rays , measuring intensities of generated secondary X-rays , and performing counting loss correction, the X-ray fluorescence spectrometer comprising a counting time calculation unit configured to calculate a counting time for each of measurement lines which are secondary X-rays to be measured for intensities, characterized in that by regarding total precision of an X-ray intensity as counting precision due to statistical fluctuation and counting loss, and by regarding the counting precision as a product of precision of an uncorrected intensity, which is an intensity before the counting loss correction is performed, and a gradient of the corrected intensity with respect to the uncorrected intensity, the counting time calculation unit calculates the counting time from specified total precision of the X-ray intensity, a given counting loss correction coefficient, and a given corrected intensity for each measurement line. a counting time calculation unit configured to calculate a counting time for each of measurement lines which are secondary X-rays to be measured for intensities, characterized in that by regarding total precision of an X-ray intensity as counting precision due to statistical fluctuation and counting loss, and by regarding the counting precision as a product of precision of an uncorrected intensity, which is an intensity before the counting loss correction is performed, and a gradient of the corrected intensity with respect to the uncorrected intensity, the counting time calculation unit calculates the counting time from specified total precision of the X-ray intensity, a given counting loss correction coefficient, and a given corrected intensity for each measurement line.
A spinal connector comprising: a first receiver defining an implant cavity and including a body including a mating surface ; a second receiver attachable with the first receiver and defining an implant cavity and including a mating surface engageable with the mating surface of the first receiver ; a flexible element configured for disposal with an assembly channel formed by alignment of the first receiver and the second receiver and configured to connect the first receiver with the second receiver , wherein the body of the first receiver includes a surface that defines an opening disposed in communication with the assembly channel for insertion of the flexible element through the opening into the channel for assembly of the spinal connector , and a biasing element disposable between the mating surfaces ; wherein, when the receivers are connected via the flexible element and the biasing element is disposed between the mating surfaces , the receivers are disposable between a non-locked orientation such that the biasing element spaces apart the mating surfaces such that the first receiver is movable relative to the second receiver in operation of the spinal connector , and a locked orientation via compression of the biasing element such that mating surfaces are fixed, relative to each other, to selectively orient the first receiver relative to the second receiver . a first receiver defining an implant cavity and including a body including a mating surface ; a second receiver attachable with the first receiver and defining an implant cavity and including a mating surface engageable with the mating surface of the first receiver ; a flexible element configured for disposal with an assembly channel formed by alignment of the first receiver and the second receiver and configured to connect the first receiver with the second receiver , wherein the body of the first receiver includes a surface that defines an opening disposed in communication with the assembly channel for insertion of the flexible element through the opening into the channel for assembly of the spinal connector , and a biasing element disposable between the mating surfaces ; wherein, when the receivers are connected via the flexible element and the biasing element is disposed between the mating surfaces , the receivers are disposable between a non-locked orientation such that the biasing element spaces apart the mating surfaces such that the first receiver is movable relative to the second receiver in operation of the spinal connector , and a locked orientation via compression of the biasing element such that mating surfaces are fixed, relative to each other, to selectively orient the first receiver relative to the second receiver .
Fuel cell control method for controlling an operating parameter, in particular fuel use, of a fuel cell device, in particular a solid oxide fuel cell device, characterized in that the fuel cell device comprises a measuring unit for detecting compositions of fluids exiting at least two fuel cell units connected in parallel, in particular anode discharge gases, wherein the measuring unit comprises in each case at least one lambda probe , in particular in each case one broadband lambda probe, for the at least two fuel cell units connected in parallel of the fuel cell device, wherein, in at least one method step, the operating parameter is controlled in a manner dependent on compositions of fluids , in particular anode discharge gases, exiting at least two fuel cell units connected in parallel.
A memory system, comprising: a non-volatile memory comprising a plurality of blocks (118; 140; 150); and a memory controller coupled to the non-volatile memory and configured to: execute a first erase operation on a particular block (118; 140; 150) in the non-volatile memory , the particular block (118; 140; 150) comprising multiple sub-blocks each having respective memory cells (141; 160), wherein, before the first erase operation, one or more memory cells (141; 160) in the particular block (118; 140; 150) are in one or more programmed states; then execute a second erase operation on a first sub-block of the particular block (118; 140; 150) such that first respective memory cells (141; 160) of the first sub-block are in an erased state after the second erase operation, characterized in that the memory controller is configured to: execute the first erase operation without a verifying operation for verifying whether the memory cells (141; 160) of the particular block (118; 140; 150) are in the erased state; and execute the second erase operation by applying an erasing voltage on the first respective memory cells (141; 160) and then verifying states of the first respective memory cells (141; 160). a non-volatile memory comprising a plurality of blocks (118; 140; 150); and a memory controller coupled to the non-volatile memory and configured to: execute a first erase operation on a particular block (118; 140; 150) in the non-volatile memory , the particular block (118; 140; 150) comprising multiple sub-blocks each having respective memory cells (141; 160), wherein, before the first erase operation, one or more memory cells (141; 160) in the particular block (118; 140; 150) are in one or more programmed states; then execute a second erase operation on a first sub-block of the particular block (118; 140; 150) such that first respective memory cells (141; 160) of the first sub-block are in an erased state after the second erase operation, execute a first erase operation on a particular block (118; 140; 150) in the non-volatile memory , the particular block (118; 140; 150) comprising multiple sub-blocks each having respective memory cells (141; 160), wherein, before the first erase operation, one or more memory cells (141; 160) in the particular block (118; 140; 150) are in one or more programmed states; then execute a second erase operation on a first sub-block of the particular block (118; 140; 150) such that first respective memory cells (141; 160) of the first sub-block are in an erased state after the second erase operation, execute the first erase operation without a verifying operation for verifying whether the memory cells (141; 160) of the particular block (118; 140; 150) are in the erased state; and execute the second erase operation by applying an erasing voltage on the first respective memory cells (141; 160) and then verifying states of the first respective memory cells (141; 160).
A vehicle steering apparatus, comprising an upper steering system , a lower steering system , a front wheel steering transmission assembly , an intermediate clutch , a left front clutch , and a right front clutch , wherein the front wheel steering transmission assembly comprises an intermediate transmission wheel , a left front transmission wheel , a right front transmission wheel , and a first transmission belt ; and the intermediate transmission wheel , the left front transmission wheel , and the right front transmission wheel are in transmission connection by using the first transmission belt ; the lower steering system comprises a left front wheel steering subsystem and a right front wheel steering subsystem ; and the upper steering system is connected to the intermediate transmission wheel by using the intermediate clutch , the left front wheel steering subsystem is connected to the left front transmission wheel by using the left front clutch , and the right front wheel steering subsystem is connected to the right front transmission wheel by using the right front clutch , and wherein an operating diameter of at least one of the left front transmission wheel and the right front transmission wheel is variable. the front wheel steering transmission assembly comprises an intermediate transmission wheel , a left front transmission wheel , a right front transmission wheel , and a first transmission belt ; and the intermediate transmission wheel , the left front transmission wheel , and the right front transmission wheel are in transmission connection by using the first transmission belt ; the lower steering system comprises a left front wheel steering subsystem and a right front wheel steering subsystem ; and the upper steering system is connected to the intermediate transmission wheel by using the intermediate clutch , the left front wheel steering subsystem is connected to the left front transmission wheel by using the left front clutch , and the right front wheel steering subsystem is connected to the right front transmission wheel by using the right front clutch , and wherein an operating diameter of at least one of the left front transmission wheel and the right front transmission wheel is variable.
A method for reporting terminal measurement, characterised in that , the method comprises: receiving (S801) measurement configuration information sent from an access device of a source system; measuring (S802) cells on at least two frequencies in a target system according to the measurement configuration information, wherein the source system and the target system are systems of different Radio Access Technologies; and reporting (S803) simultaneously measurement results obtained by measuring the cells on the at least two frequencies in the target system to the access device of the source system when a measurement report is triggered according to the measurement configuration information, so that the access device of the source system determines a primary cell and a secondary cell of the target system to which a handover is to be performed according to the measurement results, wherein reporting (S803) the measurement results to the access device of the source system specifically comprises reporting measurement reports of cells with the strongest channel quality on each of additional measurement frequencies related to one of the frequencies which triggers a measurement report to the access device of the source system when determining that the one of the frequencies is configured with additional measurement and a cell on the frequency triggers a measurement report. receiving (S801) measurement configuration information sent from an access device of a source system; measuring (S802) cells on at least two frequencies in a target system according to the measurement configuration information, wherein the source system and the target system are systems of different Radio Access Technologies; and reporting (S803) simultaneously measurement results obtained by measuring the cells on the at least two frequencies in the target system to the access device of the source system when a measurement report is triggered according to the measurement configuration information, so that the access device of the source system determines a primary cell and a secondary cell of the target system to which a handover is to be performed according to the measurement results, wherein reporting (S803) the measurement results to the access device of the source system specifically comprises reporting measurement reports of cells with the strongest channel quality on each of additional measurement frequencies related to one of the frequencies which triggers a measurement report to the access device of the source system when determining that the one of the frequencies is configured with additional measurement and a cell on the frequency triggers a measurement report.
A vacuum motor having a housing comprising a cylindrical internal space , wherein the housing and the internal space each have a front side and a rear side located opposite the front side, wherein the front side of the internal space faces the front side of the housing , a working piston , which is movably arranged so as to oscillate linearly between the front side and the rear side of the internal space in the axial direction of the cylinder axis of the cylindrical inner space , a first restoring element , which is arranged in the internal space and which at least temporarily exerts a force on the working piston that acts in the direction of the front side of the internal space , a gas outlet in the housing for discharging the gas from the internal space , wherein the gas outlet can be connected or is connected to a negative pressure source, a gas inlet in the housing for feeding ambient air or a pressurized gas into the internal space , wherein the gas outlet and the gas inlet end in the internal space between the working piston and the rear side of the housing , and wherein the working piston does not completely cover or even only partially covers the gas outlet and the gas inlet in any position, a valve body , which can be moved against the gas inlet , for closing the gas inlet , at least one plunger , which is movably arranged in the axial direction within the housing between the working piston and the valve body , characterised by a second restoring element , which transfers the valve body into the closed position, so that the valve body closes the gas inlet , wherein an impulse is transferred from the working piston via the at least one plunger to the valve body in response to a movement of the working piston in the direction of the rear side of the internal space , so that the valve body is moved against the force of the second restoring element , and the gas inlet is thus opened, and wherein the free cross section of the opened gas inlet is at least just as large as the free cross section of the gas outlet .
A clutch actuating device for a motor vehicle for manual and automated actuating of a clutch, having a master unit having a master cylinder , a slave unit having a slave cylinder , and a pressure line connecting the master cylinder to the slave cylinder , an electromotive assembly being arranged in the pressure line , which assembly has a housing and a piston , characterised in that the piston is in operative connection with a spindle drive , and the spindle drive can be controlled by means of a motor such that when a clutch pedal is pressed, the piston of the electromotive assembly is moved, a volume of the fluid being moved in the pressure line in the direction of the slave cylinder , and, when the piston has reached an actuated end position, a driver of the motor vehicle is informed via a suitable notification that the electromotive assembly 18 is active and that the clutch pedal 24 can be released.
An imaging assembly comprising: a sample platform having a target region and holding a sample in the target region; an excitation light module arranged proximate to the sample platform, wherein the target region is configured to receive excitation light from the excitation light module and to emit emission light; a lens module arranged to receive emission light emitted from the target region, wherein the lens module includes two or more lenses arranged in series as an optical baffle within a lens barrel , and wherein the lenses in the lens module decrease in diameter along the optical path of the emission light and are configured to refract any off-normal light entering the lens module toward interior walls of the lens barrel , so that said off-normal light does not transmit through the entirety of the lens module ; a first series filter assembly , positioned along an optical path in line with the lens module and positioned in front of or behind the lens module along the optical path, the first series filter assembly being comprised of an absorbance glass having at least one side coated with a thin film interference filter layer ; a light sensor arranged to receive light transmitted through the lens module and through the first series filter assembly , wherein the first series filter assembly prevents excitation light from reaching the light sensor ; and an imaging module configured to process data captured by the light sensor . a sample platform having a target region and holding a sample in the target region; an excitation light module arranged proximate to the sample platform, wherein the target region is configured to receive excitation light from the excitation light module and to emit emission light; a lens module arranged to receive emission light emitted from the target region, wherein the lens module includes two or more lenses arranged in series as an optical baffle within a lens barrel , and wherein the lenses in the lens module decrease in diameter along the optical path of the emission light and are configured to refract any off-normal light entering the lens module toward interior walls of the lens barrel , so that said off-normal light does not transmit through the entirety of the lens module ; a first series filter assembly , positioned along an optical path in line with the lens module and positioned in front of or behind the lens module along the optical path, the first series filter assembly being comprised of an absorbance glass having at least one side coated with a thin film interference filter layer ; a light sensor arranged to receive light transmitted through the lens module and through the first series filter assembly , wherein the first series filter assembly prevents excitation light from reaching the light sensor ; and an imaging module configured to process data captured by the light sensor .
An image sensor comprising: a pixel array section in which a plurality of pixels including photoelectric conversion units is disposed; and a comparator (50, 50A to 50H, 141) configured to compare an analog pixel signal (VSL) output from the pixels to a predetermined reference signal (RAMP), and to output a comparison result according to a signal level of the pixel signal, wherein the comparator (50, 50A to 50H, 141) includes differential pair transistors , a first load transistor (NT 21 , PT 11 , PT 31 ) connected in series with a first transistor (NT 11 , NT 31 , PT 21 ) of the differential pair, and a second load transistor (NT 22 , PT 12 , PT 32 ) connected in series with a second transistor (NT 12 , NT 32 , PT 22 ) of the differential pair, the first transistor (NT 11 , NT 31 , PT 21 ) of the differential pair is configured to accept a signal obtained by combining the pixel signal (VSL) and the predetermined reference signal (RAMP) as a gate input, wherein the predetermined reference signal is a ramp waveform, the second transistor (NT 12 , NT 32 , PT 22 ) of the differential pair is configured to accept a reference voltage (REF) as a gate input, characterized in that a capacitance unit is connected between a common connection node of the first transistor (NT 11 , NT 31 , PT 21 ) of the differential pair and the first load transistor (NT 21 , PT 11 , PT 31 ), and a node of the reference voltage. a pixel array section in which a plurality of pixels including photoelectric conversion units is disposed; and a comparator (50, 50A to 50H, 141) configured to compare an analog pixel signal (VSL) output from the pixels to a predetermined reference signal (RAMP), and to output a comparison result according to a signal level of the pixel signal, wherein the comparator (50, 50A to 50H, 141) includes differential pair transistors , a first load transistor (NT 21 , PT 11 , PT 31 ) connected in series with a first transistor (NT 11 , NT 31 , PT 21 ) of the differential pair, and a second load transistor (NT 22 , PT 12 , PT 32 ) connected in series with a second transistor (NT 12 , NT 32 , PT 22 ) of the differential pair, the first transistor (NT 11 , NT 31 , PT 21 ) of the differential pair is configured to accept a signal obtained by combining the pixel signal (VSL) and the predetermined reference signal (RAMP) as a gate input, wherein the predetermined reference signal is a ramp waveform, the second transistor (NT 12 , NT 32 , PT 22 ) of the differential pair is configured to accept a reference voltage (REF) as a gate input, characterized in that a capacitance unit is connected between a common connection node of the first transistor (NT 11 , NT 31 , PT 21 ) of the differential pair and the first load transistor (NT 21 , PT 11 , PT 31 ), and a node of the reference voltage.
A coating with lubricating and anti-scratch properties, characterized in that it comprises glycidoxypropyltrimethoxysilane and phenyltriethoxysilane.
An encapsulation method, comprising: embedding, at an encapsulation node in an in-situ operation administration and maintenance, IOAM, domain, IOAM information in a segment routing multi-protocol label switching, SR MPLS, header, characterized in that , the IOAM information comprises: an IOAM header and an IOAM payload, and the embedding the IOAM information in the SR MPLS header comprises: inserting the IOAM header into a SR MPLS label stack, and inserting the IOAM payload between the SR MPLS label stack and a data packet. embedding, at an encapsulation node in an in-situ operation administration and maintenance, IOAM, domain, IOAM information in a segment routing multi-protocol label switching, SR MPLS, header, characterized in that , the IOAM information comprises: an IOAM header and an IOAM payload, and the embedding the IOAM information in the SR MPLS header comprises: inserting the IOAM header into a SR MPLS label stack, and inserting the IOAM payload between the SR MPLS label stack and a data packet.