mhurhangee/ep-ind-claims huggingface dataset:
A measuring apparatus for determining the amount of at least one substance in blood of a subject, the measuring apparatus comprising: - a sensor unit comprising - an emitter unit comprising a first plurality of emitter elements configured to emit radiation at a second plurality of wavelengths; and - a detector unit configured to receive radiation generated by the emitter unit and transmitted through tissue of a subject, wherein the detector unit is further configured to produce measurement signals indicative of absorption caused by blood of the subject; - a first memory (216; 222) storing sensor-specific information about the sensor unit, wherein the sensor-specific information includes at least calibration data for calibrating the apparatus for a selected measurement mode that corresponds to a given combination of wavelengths; and - a sensor ability maintenance unit (231, 236; 237) configured to perform a sensor ability update process in which at least part of the sensor-specific information is updated, thereby to update the ability of the sensor unit to operate in the selected measurement mode. - a sensor unit comprising - an emitter unit comprising a first plurality of emitter elements configured to emit radiation at a second plurality of wavelengths; and - a detector unit configured to receive radiation generated by the emitter unit and transmitted through tissue of a subject, wherein the detector unit is further configured to produce measurement signals indicative of absorption caused by blood of the subject; - an emitter unit comprising a first plurality of emitter elements configured to emit radiation at a second plurality of wavelengths; and - a detector unit configured to receive radiation generated by the emitter unit and transmitted through tissue of a subject, wherein the detector unit is further configured to produce measurement signals indicative of absorption caused by blood of the subject; - a first memory (216; 222) storing sensor-specific information about the sensor unit, wherein the sensor-specific information includes at least calibration data for calibrating the apparatus for a selected measurement mode that corresponds to a given combination of wavelengths; and - a sensor ability maintenance unit (231, 236; 237) configured to perform a sensor ability update process in which at least part of the sensor-specific information is updated, thereby to update the ability of the sensor unit to operate in the selected measurement mode.
A polarizing element comprising an alignment layer and a polarizing layer formed by aligning a dichroic coloring agent by deposition which are successively disposed on a substrate, wherein the alignment layer is a sol-gel film formed by using a material comprising at least a sol of an inorganic oxide and an alkoxysilane represented by following general formula and/or a hexaalkoxydisiloxane represented by following general formula, and a ratio of an amount by mole of Component to an amount by mole of solid components in Component [ / (solid components)] is 99.9/0.1 to 40/60: Si(OR 1) a (R 2) 4-n (R 3 O) 3 Si-O-Si(OR 4) 3 wherein R 1, R 3 and R 4 each independently represent an alkyl group having 1 to 5 carbon atoms, R 2 represents an alkyl group having 1 to 10 carbon atoms, and a represents a number of 3 or 4.
A system, comprising: an interface, which is configured to receive, for at least a region of an anatomical map of at least a portion of a heart, positions and respective electrophysiological wave propagation velocity vectors, the vectors having respective magnitudes; and a processor, which is configured to: scale the magnitudes; and present scaled vectors, having the scaled magnitudes, overlaid on the anatomical map; and characterized in that the processor is configured to nonlinearly scale the magnitudes by: dividing a range of the magnitudes into a low-magnitude region, a high-magnitude region, and an intermediate-magnitude region between the low-magnitude region and the high-magnitude region; and emphasizing magnitude differences within the intermediate-magnitude region relative to the low-magnitude region and the high-magnitude region. an interface, which is configured to receive, for at least a region of an anatomical map of at least a portion of a heart, positions and respective electrophysiological wave propagation velocity vectors, the vectors having respective magnitudes; and a processor, which is configured to: scale the magnitudes; and present scaled vectors, having the scaled magnitudes, overlaid on the anatomical map; and characterized in that the processor is configured to nonlinearly scale the magnitudes by: scale the magnitudes; and present scaled vectors, having the scaled magnitudes, overlaid on the anatomical map; and characterized in that the processor is configured to nonlinearly scale the magnitudes by: dividing a range of the magnitudes into a low-magnitude region, a high-magnitude region, and an intermediate-magnitude region between the low-magnitude region and the high-magnitude region; and emphasizing magnitude differences within the intermediate-magnitude region relative to the low-magnitude region and the high-magnitude region.
A method, comprising: selecting at least one activity-specific dynamic visual indicator (102, 122, 140, 176, 202, 204, 206, 208, 210, 212, 214, 216, 306, 308, 362, 364, 366, 358, 360, 362, 364, 366); and applying the selected dynamic visual indicator (102, 122, 140, 176, 202, 204, 206, 208, 210, 212, 214, 216, 306, 308, 362, 364, 366, 358, 360, 362, 364, 366) to an athletic uniform, wherein the dynamic visual indicator (102, 122, 140, 176, 202, 204, 206, 208, 210, 212, 214, 216, 306, 308, 362, 364, 366, 358, 360, 362, 364, 366) is selected based on measured activity-specific responses to the dynamic visual indicator (102, 122, 140, 176, 202, 204, 206, 208, 210, 212, 214, 216, 306, 308, 362, 364, 366, 358, 360, 362, 364, 366) and wherein the at least one dynamic visual indicator is a predictive indicator (102, 122, 140, 176, 202, 204, 206, 208, 210, 212, 214, 216, 306, 308, 362, 364, 366, 358, 360, 362, 364, 366), configured to heighten visual perceptions that facilitate estimations of likely future player movements.
A method for controlling a wireless power transmitter (100, 200, 601, 602, 701, 702, 801, 802, 901), the method characterized by comprising: transmitting, to a wireless power receiver (110-1, 110-2, 110-n, 250, 603, 703, 704, 803, 804, 805, 902), a control signal including first time information; detecting that a load of the wireless power receiver (110-1, 110-2, 110-n, 250, 603, 703, 704, 803, 804, 805, 902) is changed in response to the control signal and the changed load is maintained for a first period of time; determining whether the first period of time corresponds to the first time information; and stopping charging the wireless power receiver (110-1, 110-2, 110-n, 250, 603, 703, 704, 803, 804, 805, 902), if the first period of time of the detected load change does not correspond to the first time information. transmitting, to a wireless power receiver (110-1, 110-2, 110-n, 250, 603, 703, 704, 803, 804, 805, 902), a control signal including first time information; detecting that a load of the wireless power receiver (110-1, 110-2, 110-n, 250, 603, 703, 704, 803, 804, 805, 902) is changed in response to the control signal and the changed load is maintained for a first period of time; determining whether the first period of time corresponds to the first time information; and stopping charging the wireless power receiver (110-1, 110-2, 110-n, 250, 603, 703, 704, 803, 804, 805, 902), if the first period of time of the detected load change does not correspond to the first time information.
A patient support comprising: a frame; a deck supported by the frame, the deck including a plurality of panels (114, 116, 118, 120) removably coupled to the deck and means for removably securing the plurality of deck panels (116, 118, 120) to the deck; and a mattress supported by the plurality of panels (116, 118, 120); the patient support being characterized in that the panels (116, 118, 120) include a plurality of apertures having upwardly facing openings, and the patient support including a plurality of panel holders coupled to the deck and configured to extend into the apertures to couple the plurality of deck panels(116, 118, 120) to the deck. a frame; a deck supported by the frame, the deck including a plurality of panels (114, 116, 118, 120) removably coupled to the deck and means for removably securing the plurality of deck panels (116, 118, 120) to the deck; and a mattress supported by the plurality of panels (116, 118, 120);
A processor implemented method for automatic speech recognition in resource constrained devices, the method comprising: receiving, by one or more hardware processors, an audio file as input; transcribing, by the one or more hardware processors, each of a plurality of utterances in the audio file using an acoustic model to generate an Intermediate Greedy Transcript; marking, by the one or more hardware processors, one or more splitting locations in the Intermediate Greedy Transcript, comprising: splitting the Intermediate Greedy Transcript based on a space symbol to generate a plurality of pieces of Intermediate Greedy Transcript; determining acoustically distinct and indistinct words in each of the plurality of pieces of Intermediate Greedy Transcript; and labeling space after the acoustically distinct words with a marker; splicing, by the one or more hardware processors, the audio file at locations where corresponding Intermediate Greedy Transcript has the marker, to get a set of audio segments; associating, by the one or more hardware processors, each audio segment from the set of audio segments with corresponding transcript from the Intermediate Greedy Transcript to get a training dataset; and training, by the one or more hardware processors, a size-constrained neural network model with the training dataset to get a trained model for recognizing short bursts of words. receiving, by one or more hardware processors, an audio file as input; transcribing, by the one or more hardware processors, each of a plurality of utterances in the audio file using an acoustic model to generate an Intermediate Greedy Transcript; marking, by the one or more hardware processors, one or more splitting locations in the Intermediate Greedy Transcript, comprising: splitting the Intermediate Greedy Transcript based on a space symbol to generate a plurality of pieces of Intermediate Greedy Transcript; determining acoustically distinct and indistinct words in each of the plurality of pieces of Intermediate Greedy Transcript; and labeling space after the acoustically distinct words with a marker; splitting the Intermediate Greedy Transcript based on a space symbol to generate a plurality of pieces of Intermediate Greedy Transcript; determining acoustically distinct and indistinct words in each of the plurality of pieces of Intermediate Greedy Transcript; and labeling space after the acoustically distinct words with a marker; splicing, by the one or more hardware processors, the audio file at locations where corresponding Intermediate Greedy Transcript has the marker, to get a set of audio segments; associating, by the one or more hardware processors, each audio segment from the set of audio segments with corresponding transcript from the Intermediate Greedy Transcript to get a training dataset; and training, by the one or more hardware processors, a size-constrained neural network model with the training dataset to get a trained model for recognizing short bursts of words.
A portable freestanding stove intended to combust organic material pieces, composed of open combustion chamber including upper inverted truncated sheet metal cone, at a certain distance below which lower second inverted truncated sheet metal cone is positioned, whereas at lower part of upper cone a fire grate is fitted, and below which ash pan is placed, the stove resting on supporting structure, characterized in that upper cone of combustion chamber and lower cone of air draft rigidly connect to each other by means of circumferential sheet metal ring to which upper edge of upper cone of combustion chamber and away below it at axial spacing (h) also upper edge of lower cone are fixed, the circumference of upper edge of upper cone having additional air supplying ports, the ports having diameter (d) complying with condition (0.01 D < d ≤ 0.1 D), where is internal diameter of circumferential ring of combustion chamber and (d) is diameter of additional air supplying port, whereas circumferential sheet metal ring rests on supporting structure and fire grate rigidly connects to lower part of upper cone by means of at least three struts of thickness (g) complying with condition (0.01 D < g ≤ 0.1 D), where is internal diameter of circumferential ring of combustion chamber and (g) is thickness of strut struts that define a gap between sidewall of combustion chamber and external edge of fire grate.
A target platform for processing irradiated targets from a nuclear reactor, comprising at least one target tube extending along the target platform and shaped to receive the targets, characterized by a detector arrangement with one or more radiation detectors arranged above the target tube, and a calibration device for calibrating the radiation detector(s) in the detector arrangement, a guide element that is arranged in the target platform near the at least one target tube and further comprises at least one radiation source mounted on a positioning element, the radiation source being designed to be movable along the guide element by means of the positioning element to position the radiation source below each of the radiation detectors. at least one target tube extending along the target platform and shaped to receive the targets, characterized by a detector arrangement with one or more radiation detectors arranged above the target tube, and a calibration device for calibrating the radiation detector(s) in the detector arrangement, a guide element that is arranged in the target platform near the at least one target tube and further comprises at least one radiation source mounted on a positioning element, the radiation source being designed to be movable along the guide element by means of the positioning element to position the radiation source below each of the radiation detectors.
Drive arrangement for a swivel wing, having a connection mechanism which comprises a drive module with a drive housing and a drive chain, which drive module can be articulated on the swivel wing on the one hand and on an associated frame on the other hand and the drive movement of which drive module allows the swivel wing to be moved between its closed position and its open position, wherein the drive housing is mounted about a pivot axis extending at a distance from its centre of gravity, wherein, in the closed position of the swivel wing, the drive housing can be displaced about the pivot axis into a structurally defined end position with substantial suppression of the play in the pivoting direction, characterized in that an automatic displacement of the drive housing into the end position is provided by means of an auxiliary drive of the drive arrangement, and in that the auxiliary drive is formed by a spring arrangement by means of whose spring force the drive housing is driven into the end position which is defined by stop means of the drive arrangement, comprising a stop lug (15.3) which can be fastened to the frame and a stop fork (15.6) which is connected to the drive housing.
Position measuring device, having a basic body, a first housing part (10.1) extending in a longitudinal direction and connected to the basic body, and a second housing part (10.2) extending in the longitudinal direction and connected to the basic body, wherein a hollow profile is formed by at least the first housing part (10.1) and the second housing part (10.2), wherein the position measuring device has a scale arranged within the hollow profile and a scanning unit for scanning the scale, wherein the basic body and the scale are directly connected to each other, wherein the position measuring device has a driver for carrying the scanning unit, wherein the scanning unit comprises a cable (14.1), wherein the driver is designed in such a manner that the cable (14.1) can be guided through at least part of the driver, characterized in that the driver has a cutout (16.4') provided in a longitudinal section of the driver, in that the driver has a closure element (16.4) corresponding to the cutout (16.4') and connected releasably to a complementary part of the driver, in that the driver has a first inner contour (17.1), in that the closure element (16.4) has a second inner contour (17.2) opposite the first inner contour (17.1), in that an opening for the receiving and guiding through of the cable (14.1) is formed by the first inner contour (17.1) and the second inner contour (17.2), and in that the opening extends through the longitudinal section of the driver. a basic body, a first housing part (10.1) extending in a longitudinal direction and connected to the basic body, and a second housing part (10.2) extending in the longitudinal direction and connected to the basic body, wherein a hollow profile is formed by at least the first housing part (10.1) and the second housing part (10.2), wherein the position measuring device has a scale arranged within the hollow profile and a scanning unit for scanning the scale, wherein the basic body and the scale are directly connected to each other, wherein the position measuring device has a driver for carrying the scanning unit, wherein the scanning unit comprises a cable (14.1), wherein the driver is designed in such a manner that the cable (14.1) can be guided through at least part of the driver, characterized in that the driver has a cutout (16.4') provided in a longitudinal section of the driver, in that the driver has a closure element (16.4) corresponding to the cutout (16.4') and connected releasably to a complementary part of the driver, in that the driver has a first inner contour (17.1), in that the closure element (16.4) has a second inner contour (17.2) opposite the first inner contour (17.1), in that an opening for the receiving and guiding through of the cable (14.1) is formed by the first inner contour (17.1) and the second inner contour (17.2), and in that the opening extends through the longitudinal section of the driver.
A downhole tool coupling system, comprising: a drive stem having shoulders on a bottom surface of the drive stem for transferring torque; a sleeve longitudinally movable relative to the drive stem; and a plurality of locking clamps at least partially encompassed by the sleeve, the locking clamps radially moveable between an open position and a locked position and having a lower exterior shoulder and an upper exterior shoulder, the sleeve oriented relative to the locking clamps to move both exterior shoulders of the locking clamps in a radial inward direction from the open position to the locked position as the sleeve moves longitudinally from a first position to a second position, each locking clamp having an interior recessed region configured to clamp the drive stem to a tool stem when in the locked position, wherein the tool stem includes shoulders configured to mate with the shoulders of the drive stem to transfer torque therebetween. a drive stem having shoulders on a bottom surface of the drive stem for transferring torque; a sleeve longitudinally movable relative to the drive stem; and a plurality of locking clamps at least partially encompassed by the sleeve, the locking clamps radially moveable between an open position and a locked position and having a lower exterior shoulder and an upper exterior shoulder, the sleeve oriented relative to the locking clamps to move both exterior shoulders of the locking clamps in a radial inward direction from the open position to the locked position as the sleeve moves longitudinally from a first position to a second position, each locking clamp having an interior recessed region configured to clamp the drive stem to a tool stem when in the locked position, wherein the tool stem includes shoulders configured to mate with the shoulders of the drive stem to transfer torque therebetween.
A retroreflective substrate having a light incident face and comprising a plurality of retroreflective elements and a reflective layer, and a marking layer disposed on at least a portion of the retroreflective substrate, characterized by: the marking layer comprising cesium tungsten oxide particles.
A method for use in a communications system (100, 200, 400) in which there can be a plurality of transceivers (110, 120, 130), with a first transceiver which can transmit data packets to at least a second and a third transceiver in the system, which method comprises, in at least said second transceiver, storing a representation of the first received data packets; transmitting to the first transceiver a quality value representative of the reception quality of one or more data packets which have been received by the second transceiver, which quality value the first transceiver can use to modify its data transmissions, the quality value being a measure of a mean Signal to Interference Noise Ratio, "SINR", a mean Log-Likelihood Ratio, "LLR", or variance of the LLR, and listening, at the least said second transceiver, for data packets intended both for itself and for said third transceiver, wherein the quality value which is transmitted by the second transceiver is representative of the reception quality of one or more of such data packets, and in that said reception quality value is expressed as one of a plurality of possible such values; the method being characterized in receiving at least one composite packet comprising a combination of data packets intended for both for itself and for said third transceiver jointly coded together into a single composite packet which joint coding thereof comprises application of a weight factor to individual packets of the combination; and decoding the composite packet by using the first received data packets. storing a representation of the first received data packets; transmitting to the first transceiver a quality value representative of the reception quality of one or more data packets which have been received by the second transceiver, which quality value the first transceiver can use to modify its data transmissions, the quality value being a measure of a mean Signal to Interference Noise Ratio, "SINR", a mean Log-Likelihood Ratio, "LLR", or variance of the LLR, and listening, at the least said second transceiver, for data packets intended both for itself and for said third transceiver, wherein the quality value which is transmitted by the second transceiver is representative of the reception quality of one or more of such data packets, and in that said reception quality value is expressed as one of a plurality of possible such values; the method being characterized in receiving at least one composite packet comprising a combination of data packets intended for both for itself and for said third transceiver jointly coded together into a single composite packet which joint coding thereof comprises application of a weight factor to individual packets of the combination; and decoding the composite packet by using the first received data packets.