mhurhangee/ep-ind-claims huggingface dataset:
A method for the recognition of a moving pedestrian by means of a radar sensor system, wherein a primary radar signal is transmitted into an observation space, and a secondary radar signal reflected by the moving pedestrian is received and processed, wherein the processing of the secondary radar signal includes the steps: (i) generating a Micro-Doppler spectrogram of the secondary radar signal, (ii) determining, based on the Micro-Doppler spectrogram, an observed bulk speed of the moving pedestrian, wherein the observed bulk speed corresponds to a speed component that is related to the pedestrian's torso and is oriented along a line of sight extending from the moving pedestrian to the radar sensor system, (iii) determining, based on the Micro-Doppler spectrogram, at least one gait cycle parameter of the moving pedestrian and (iv) determining, based on the determined observed bulk speed and the at least one determined gait cycle parameter, an illumination angle between a moving direction of the moving pedestrian and the line of sight. a primary radar signal is transmitted into an observation space, and a secondary radar signal reflected by the moving pedestrian is received and processed, wherein the processing of the secondary radar signal includes the steps: (i) generating a Micro-Doppler spectrogram of the secondary radar signal, (ii) determining, based on the Micro-Doppler spectrogram, an observed bulk speed of the moving pedestrian, wherein the observed bulk speed corresponds to a speed component that is related to the pedestrian's torso and is oriented along a line of sight extending from the moving pedestrian to the radar sensor system, (iii) determining, based on the Micro-Doppler spectrogram, at least one gait cycle parameter of the moving pedestrian and (iv) determining, based on the determined observed bulk speed and the at least one determined gait cycle parameter, an illumination angle between a moving direction of the moving pedestrian and the line of sight. (i) generating a Micro-Doppler spectrogram of the secondary radar signal, (ii) determining, based on the Micro-Doppler spectrogram, an observed bulk speed of the moving pedestrian, wherein the observed bulk speed corresponds to a speed component that is related to the pedestrian's torso and is oriented along a line of sight extending from the moving pedestrian to the radar sensor system, (iii) determining, based on the Micro-Doppler spectrogram, at least one gait cycle parameter of the moving pedestrian and (iv) determining, based on the determined observed bulk speed and the at least one determined gait cycle parameter, an illumination angle between a moving direction of the moving pedestrian and the line of sight.
A fuel cell system, comprising: a fuel cell that is configured to receive fuel gas through a pipe; a voltage measurement unit that is configured to measure an output voltage of the fuel cell; a command output unit that is configured to output an interruption command when a measurement result of the voltage measurement unit is equal to or less than a reference value during the generation of electricity by the fuel cell; and an interrupter that is provided in the pipe and interrupts the supply of the fuel gas to the fuel cell in response to the interruption command; characterized in that the command output unit and the voltage measurement unit are each a relay circuit. a fuel cell that is configured to receive fuel gas through a pipe; a voltage measurement unit that is configured to measure an output voltage of the fuel cell; a command output unit that is configured to output an interruption command when a measurement result of the voltage measurement unit is equal to or less than a reference value during the generation of electricity by the fuel cell; and an interrupter that is provided in the pipe and interrupts the supply of the fuel gas to the fuel cell in response to the interruption command; characterized in that the command output unit and the voltage measurement unit are each a relay circuit.
An apparatus comprising: one or more processors and, memory in communication with the one or more processors, the memory comprising code (714, 716, 718, 720, 722) that, when executed, causes the one or more processors to control the apparatus to: receive first data, the first data comprising information related to a region to be imaged and information related to a field of vision of a camera device positioned above a mobile entity on an aerial platform having a steering device, wherein the first data is entered by a user; determine, based at least on the first data, a path within the region and provide information on the first path to the mobile entity; characterized in that, the code, when executed, causes further the one or more processors to control the apparatus to: receive second data, the second data indicating a parameter related to power consumption by the camera device, and provide the second data to the camera device; receive third data from the camera device as the mobile entity moves the aerial platform along the first path using the steering apparatus, the third data including one or more images taken by the camera device according to the second data. one or more processors and, memory in communication with the one or more processors, the memory comprising code (714, 716, 718, 720, 722) that, when executed, causes the one or more processors to control the apparatus to: receive first data, the first data comprising information related to a region to be imaged and information related to a field of vision of a camera device positioned above a mobile entity on an aerial platform having a steering device, wherein the first data is entered by a user; determine, based at least on the first data, a path within the region and provide information on the first path to the mobile entity; receive first data, the first data comprising information related to a region to be imaged and information related to a field of vision of a camera device positioned above a mobile entity on an aerial platform having a steering device, wherein the first data is entered by a user; determine, based at least on the first data, a path within the region and provide information on the first path to the mobile entity; characterized in that, the code, when executed, causes further the one or more processors to control the apparatus to: receive second data, the second data indicating a parameter related to power consumption by the camera device, and provide the second data to the camera device; receive third data from the camera device as the mobile entity moves the aerial platform along the first path using the steering apparatus, the third data including one or more images taken by the camera device according to the second data. receive second data, the second data indicating a parameter related to power consumption by the camera device, and provide the second data to the camera device; receive third data from the camera device as the mobile entity moves the aerial platform along the first path using the steering apparatus, the third data including one or more images taken by the camera device according to the second data.
A computer-implemented method for visualizing a map of atrial fibrillation,AF, in a heart, the method comprising: receiving an electrogram, EGM, signal exhibiting the AF, acquired at a given position in the heart; identifying, in the EGM signal, two or more primary activation peaks and calculating a cycle length, CL, between adjacent primary activation peaks; identifying, in the EGM signal, one or more fragmentation peaks within the CL, wherein identifying the one or more fragmentation peaks comprises identifying one of more candidate peaks, wherein each of the one or more candidate peaks has an absolute value larger than a noise threshold, and wherein identifying the one or more fragmentation peaks comprises merging, based on being within a predefined time interval and on having the same sign, two or more adjacent candidate peaks in the EGM signal; calculating a local fragmentation index, FI, that is indicative of a number of the fragmentation peaks per CL; and visualizing, on a display, the local FI on a map of at least part of the heart. receiving an electrogram, EGM, signal exhibiting the AF, acquired at a given position in the heart; identifying, in the EGM signal, two or more primary activation peaks and calculating a cycle length, CL, between adjacent primary activation peaks; identifying, in the EGM signal, one or more fragmentation peaks within the CL, wherein identifying the one or more fragmentation peaks comprises identifying one of more candidate peaks, wherein each of the one or more candidate peaks has an absolute value larger than a noise threshold, and wherein identifying the one or more fragmentation peaks comprises merging, based on being within a predefined time interval and on having the same sign, two or more adjacent candidate peaks in the EGM signal; calculating a local fragmentation index, FI, that is indicative of a number of the fragmentation peaks per CL; and visualizing, on a display, the local FI on a map of at least part of the heart.
A carton (8; 108) comprising a strap carrying handle, the carton having a top wall (12, 20; 112,120) and end walls, the strap carrying handle comprising a strap section (72, 74; 172, 174) that is formed at least partially in a top wall of the carton, that is deployable above the top wall and that is attached to each end of the carton, the strap carrying handle further comprising a handle structure (6; 106) affixed to an underside of the strap section, characterised by the handle structure comprising a series of foldably interconnected panels (62, 68, 100, 102; 162, 168a, 168b, 1100, 1102) which series of interconnected panels is foldable into at least substantially tubular 3-dimensional structure having three or more sides disposed at least partially beneath the strap section of the strap carrying handle.
An image sensor formed on an integrated circuit comprising: an array of pixels, said array of pixels including a plurality of bright pixels and a plurality of dark pixels, wherein each of said plurality of bright pixels has an associated dark pixel adjacent to it; a dark exposure control circuit for controlling the exposure time of said plurality of dark pixels; and a bright exposure control circuit for controlling the exposure time of said plurality of bright pixels; wherein said dark exposure control circuit is configured to increase the exposure time of said dark pixels if the number of said dark pixels that are darker than a dark pixel too dark ("DPTD") threshold exceeds a predetermined threshold D2; wherein said bright exposure control circuit is configured to decrease the exposure time of said bright pixels if the number of said bright pixels that are brighter than a bright pixel too bright ("BPTB") threshold exceeds a predetermined threshold B1; wherein, for each bright pixel and associated dark pixel, the image sensor is configured to combine the signal from the bright pixel with the signal from the associated dark pixel to form a composite pixel element signal. an array of pixels, said array of pixels including a plurality of bright pixels and a plurality of dark pixels, wherein each of said plurality of bright pixels has an associated dark pixel adjacent to it; a dark exposure control circuit for controlling the exposure time of said plurality of dark pixels; and a bright exposure control circuit for controlling the exposure time of said plurality of bright pixels; wherein said dark exposure control circuit is configured to increase the exposure time of said dark pixels if the number of said dark pixels that are darker than a dark pixel too dark ("DPTD") threshold exceeds a predetermined threshold D2; wherein said bright exposure control circuit is configured to decrease the exposure time of said bright pixels if the number of said bright pixels that are brighter than a bright pixel too bright ("BPTB") threshold exceeds a predetermined threshold B1; wherein, for each bright pixel and associated dark pixel, the image sensor is configured to combine the signal from the bright pixel with the signal from the associated dark pixel to form a composite pixel element signal.
Method for producing a plastic tank, wherein at least one outer layer of the tank wall of the plastic tank is composed of a first material, wherein a reinforcing sheet, which is composed at least partially of the first material, is attached to an outer layer of the tank wall of the plastic tank in at least one region, wherein first of all the tank wall is prepared as a hot extrudate, characterized in that the reinforcing sheet is secured, in particular welded, on the extrudate outside a shaping tool, wherein outside the shaping tool, the reinforcing sheet is secured on the extrudate by means of an extendable ram, wherein the ram is pressed into the hot extrudate in a force- or travel-controlled manner in order to secure the reinforcing sheet on the hot extrudate outside the shaping tool, in that the extrudate is then introduced with the secured reinforcing sheet into the shaping tool, and is shaped in the shaping tool to form the tank wall of the plastic tank, whereby the reinforcing sheet is secured more strongly on the tank wall, in particular welded more strongly to the tank wall.
A side-grid (9, 9'), especially for a baking oven with at least two bars (6, 7, 7') which are substantially parallel in the X direction and which are spaced from each other in the Z direction, whereby at least one fastening element (10, 10') is fixed to two bars (6, 7, 7') of the side-grid for arranging a pull-out guide, in or on a domestic appliance, on two bars (6, 7, 7') which are substantially parallel in the X direction and which are spaced from each other in the Z direction, comprising a first holder which can be arranged on a first bar (7, 7') and a second holder (20, 20') which can be arranged on a second bar, whereby the second holder (20, 20') is arranged as a fixed bearing for accommodating a second bar in various thicknesses, and the first holder is configured as a movable bearing for compensating different designs, spacings and/or thicknesses of the two bars (6, 7, 7'), characterized in that two identical fastening elements (10, 10') are provided, on which a guide rail of a pull-out guide is fixed.
A repair device (14, 100) configured for repairing tissues at a targeted anatomical site, the repair device (14, 100) comprising: a shaft (12, 140); a first distal gripping element (18, 118, 318) having a medial end pivotally coupled to the shaft (12, 140) and extending to a free lateral end; a first proximal gripping element (16, 116, 318) having a medial end pivotally coupled to the shaft (12, 140) and extending to a free lateral end, wherein the proximal gripping element (16, 116, 318) is configured to cooperate with the distal gripping element (18, 118, 318) to grasp targeted tissue therebetween; at least one adjustable arm (117, 119, 319) coupled to an associated distal gripping element (18, 118, 318) or proximal gripping element (16, 116, 318) so that, upon actuation, the adjustable arm (117, 119, 319) extends to lengthen a lateral reach of the associated gripping element; characterised by at least one spring positioned between the adjustable arm (117, 119, 319) and a stop, the at least one spring configured to provide a force to bias the adjustable arm (117, 119, 319) toward an extended position, and a control line (124, 126, 326) attached to the adjustable arm (117, 119, 319), the control line (124, 126, 326) being routed such that applying tension to the control line (124, 126, 326) moves the adjustable arm (117, 119, 319) toward a retracted position and releasing tension moves the adjustable arm (117, 119, 319) toward the extended position. a shaft (12, 140); a first distal gripping element (18, 118, 318) having a medial end pivotally coupled to the shaft (12, 140) and extending to a free lateral end; a first proximal gripping element (16, 116, 318) having a medial end pivotally coupled to the shaft (12, 140) and extending to a free lateral end, wherein the proximal gripping element (16, 116, 318) is configured to cooperate with the distal gripping element (18, 118, 318) to grasp targeted tissue therebetween; at least one adjustable arm (117, 119, 319) coupled to an associated distal gripping element (18, 118, 318) or proximal gripping element (16, 116, 318) so that, upon actuation, the adjustable arm (117, 119, 319) extends to lengthen a lateral reach of the associated gripping element; characterised by at least one spring positioned between the adjustable arm (117, 119, 319) and a stop, the at least one spring configured to provide a force to bias the adjustable arm (117, 119, 319) toward an extended position, and a control line (124, 126, 326) attached to the adjustable arm (117, 119, 319), the control line (124, 126, 326) being routed such that applying tension to the control line (124, 126, 326) moves the adjustable arm (117, 119, 319) toward a retracted position and releasing tension moves the adjustable arm (117, 119, 319) toward the extended position.
A vestibular implant comprising hybrid MEMS microfluidic gyroscope, comprising: a micro-machined base enclosure having a top fluid enclosure, a fluid sensing enclosure and a bottom fluid enclosure, the top fluid enclosure is constructed by partially etching or machining glass, thereby creating a pair of discrete canals on a bottom side of the top fluid enclosure, the fluid sensing enclosure is micro machined to include a sensing structure, which is accessible to a fluid via an opening on either side of the fluid sensing enclosure and the bottom fluid enclosure is constructed by partially etching or machining glass, thereby creating two discrete canals on a top side of the bottom fluid enclosure; a plurality of piezo-resistors disposed within the micro-machined base enclosure, the piezo-resistors is deformed by the fluid, the fluid prevents gravitational forces asserted onto the hybrid MEMS microfluidic gyroscope from affecting the piezo-resistors; and a plurality of cantilevers disposed within the micro-machined base enclosure, the cantilevers serve as a plurality of hair cells, wherein angular rotation of the hybrid MEMS microfluidic gyroscope creates an inertial force, which increases pressure on the cantilevers, leading to a detectable deflection that is proportional to the angular rotation. a micro-machined base enclosure having a top fluid enclosure, a fluid sensing enclosure and a bottom fluid enclosure, the top fluid enclosure is constructed by partially etching or machining glass, thereby creating a pair of discrete canals on a bottom side of the top fluid enclosure, the fluid sensing enclosure is micro machined to include a sensing structure, which is accessible to a fluid via an opening on either side of the fluid sensing enclosure and the bottom fluid enclosure is constructed by partially etching or machining glass, thereby creating two discrete canals on a top side of the bottom fluid enclosure; a plurality of piezo-resistors disposed within the micro-machined base enclosure, the piezo-resistors is deformed by the fluid, the fluid prevents gravitational forces asserted onto the hybrid MEMS microfluidic gyroscope from affecting the piezo-resistors; and a plurality of cantilevers disposed within the micro-machined base enclosure, the cantilevers serve as a plurality of hair cells, wherein angular rotation of the hybrid MEMS microfluidic gyroscope creates an inertial force, which increases pressure on the cantilevers, leading to a detectable deflection that is proportional to the angular rotation.
A health care composition comprising about 35% (w) Cyclocarya paliurus leaves, about 35% (w) Puerariae lobatae Radix and about 30% (w) Polygonati odorati Rhizoma.
A method for mitigating inter-cell interference at a mobile station in a multi-cell environment, the method comprising: measuring, by the mobile station, a channel from at least one neighboring base station generating interference with a signal received from a serving base station; calculating, by the mobile station, two or more first precoding matrix indexes which act as the strongest interference for at least one neighboring base station (BS2, BS3) in order of maximizing the interference based on the measured channel and two or more second precoding matrix indexes which act as the weakest interference for the at least one neighboring base station (BS2, BS3) in order of minimizing the interference based on the measured channel; and transmitting, by the mobile station, the two or more first precoding matrix indexes and the two or more second precoding matrix indexes to a serving base station together with base station identifier information for the two or more first precoding matrix indexes and the two or more second precoding matrix indexes, wherein the two or more first precoding matrix indexes are for restricting a use of precoding matrixes corresponding to the first precoding matrix indexes, and wherein the two or more second precoding matrix indexes are for recommending a use of precoding matrixes corresponding to the second precoding matrix indexes. measuring, by the mobile station, a channel from at least one neighboring base station generating interference with a signal received from a serving base station; calculating, by the mobile station, two or more first precoding matrix indexes which act as the strongest interference for at least one neighboring base station (BS2, BS3) in order of maximizing the interference based on the measured channel and two or more second precoding matrix indexes which act as the weakest interference for the at least one neighboring base station (BS2, BS3) in order of minimizing the interference based on the measured channel; and transmitting, by the mobile station, the two or more first precoding matrix indexes and the two or more second precoding matrix indexes to a serving base station together with base station identifier information for the two or more first precoding matrix indexes and the two or more second precoding matrix indexes, wherein the two or more first precoding matrix indexes are for restricting a use of precoding matrixes corresponding to the first precoding matrix indexes, and wherein the two or more second precoding matrix indexes are for recommending a use of precoding matrixes corresponding to the second precoding matrix indexes.