mhurhangee/ep-ind-claims huggingface dataset:
An object detection device comprising: a calculation unit configured to set each frame, of a moving image including a plurality of frames, as a target frame, calculate a motion vector with reference to a reference frame over an entirety of the target frames, and calculate an index indicating a magnitude of change between a key frame and the target frame, which is represented by using the motion vector; a judgement unit configured to judge whether or not the index calculated by the calculation unit is equal to or greater than a predetermined threshold value; a first detection unit configured to detect a region indicating an object from the target frame by using an object detection model in a case in which the index is equal to or greater than the threshold value; a second detection unit configured to detect a region on the target frame, which is obtained by correcting a position of a region detected in the reference frame by using the motion vector in a case in which the index is less than the threshold value; and an output unit configured to output information of the region detected by the first detection unit and information of the region detected by the second detection unit, wherein the key frame is a frame closest to the target frame among frames in which the region is detected by the first detection unit. a calculation unit configured to set each frame, of a moving image including a plurality of frames, as a target frame, calculate a motion vector with reference to a reference frame over an entirety of the target frames, and calculate an index indicating a magnitude of change between a key frame and the target frame, which is represented by using the motion vector; a judgement unit configured to judge whether or not the index calculated by the calculation unit is equal to or greater than a predetermined threshold value; a first detection unit configured to detect a region indicating an object from the target frame by using an object detection model in a case in which the index is equal to or greater than the threshold value; a second detection unit configured to detect a region on the target frame, which is obtained by correcting a position of a region detected in the reference frame by using the motion vector in a case in which the index is less than the threshold value; and an output unit configured to output information of the region detected by the first detection unit and information of the region detected by the second detection unit, wherein the key frame is a frame closest to the target frame among frames in which the region is detected by the first detection unit.
Device for braking the fall of a load, comprising a sling and a braking element (3, 30), said sling comprising: - a first end constrainable to an anchoring point; - a second end constrainable to said load; - a folded section comprising a first portion of said sling reversibly joined to a second portion of said sling, said folded section providing a resistance to the separation of said first and second portions (23a, 23b); - a first free section comprised between said first portion of said folded section and said first end; - a second free section comprised between said second portion of said folded section and said second end; and wherein said braking element (3, 30) comprises a plurality of passages for said sling, said first free section crossing at least one first passage, said second free section crossing at least one second passage so that said first portion, as a consequence of the application of a traction force (FT, FT') higher than a threshold value to at least one of said two ends (21, 22), separates from said second portion and crosses said first passage, and said second portion crosses said second passage. - a first end constrainable to an anchoring point; - a second end constrainable to said load; - a folded section comprising a first portion of said sling reversibly joined to a second portion of said sling, said folded section providing a resistance to the separation of said first and second portions (23a, 23b); - a first free section comprised between said first portion of said folded section and said first end; - a second free section comprised between said second portion of said folded section and said second end;
A method of identifying a maize plant with newly conferred or enhanced tolerance to gray leaf spot comprising detecting in the germplasm of the maize plant at least one allele of a marker locus wherein the marker locus is located in a chromosomal interval defined by markers BNLG1755 and UMC1299 and wherein the at least one allele is associated with newly conferred or enhanced tolerance to gray leaf spot, wherein said marker locus is: a) PHM 15534-13 wherein the reference sequence is SEQ ID NO:55, b) PHM 04694-10 wherein the reference sequence is SEQ ID NO:60, c) PHM 01811-32 wherein the reference sequence is SEQ ID NO:65, d) PHM 01963-15 wherein the reference sequence is SEQ ID NO:70, e) PHM 01963-22 wherein the reference sequence is SEQ ID NO:75, f) PHM 05013-12 wherein the reference sequence is SEQ ID NO:80, or g) PHM 00586-10 wherein the reference sequence is SEQ ID NO:85. a) PHM 15534-13 wherein the reference sequence is SEQ ID NO:55, b) PHM 04694-10 wherein the reference sequence is SEQ ID NO:60, c) PHM 01811-32 wherein the reference sequence is SEQ ID NO:65, d) PHM 01963-15 wherein the reference sequence is SEQ ID NO:70, e) PHM 01963-22 wherein the reference sequence is SEQ ID NO:75, f) PHM 05013-12 wherein the reference sequence is SEQ ID NO:80, or g) PHM 00586-10 wherein the reference sequence is SEQ ID NO:85.
A computer-implemented method comprising: determining a heart rate from a segment of an ECG signal, the segment having a pre-determined length, and determining a first confidence level in the heart rate determined from the segment of the ECG signal; if the first confidence level does not exceed a predetermined value: determining a set of features from the segment of the ECG signal; and classifying (8a,8b) the segment of the ECG signal based on one or more features selected from the determined set of features and the heart rate, wherein classifying the segment of ECG signal comprises classifying the segment of ECG signal into any one of at least three classes: noise, an abnormal rhythm, and a normal rhythm; otherwise, outputting the heart rate determined from the segment of the ECG signal without classifying the segment of the ECG signal. determining a heart rate from a segment of an ECG signal, the segment having a pre-determined length, and determining a first confidence level in the heart rate determined from the segment of the ECG signal; if the first confidence level does not exceed a predetermined value: determining a set of features from the segment of the ECG signal; and classifying (8a,8b) the segment of the ECG signal based on one or more features selected from the determined set of features and the heart rate, wherein classifying the segment of ECG signal comprises classifying the segment of ECG signal into any one of at least three classes: noise, an abnormal rhythm, and a normal rhythm; determining a set of features from the segment of the ECG signal; and classifying (8a,8b) the segment of the ECG signal based on one or more features selected from the determined set of features and the heart rate, wherein classifying the segment of ECG signal comprises classifying the segment of ECG signal into any one of at least three classes: noise, an abnormal rhythm, and a normal rhythm; otherwise, outputting the heart rate determined from the segment of the ECG signal without classifying the segment of the ECG signal.
An air compressor including: a compressor unit including a motor, a pump operably coupled to the motor, and a first tank fluidly connected to the pump to receive pressurized air from the pump when operated by the motor; and a tank unit including a second tank fluidly connected to the pump to receive pressurized air from the pump when operated by the motor; wherein the tank unit is removably coupled to the compressor unit in a stacked arrangement, characterized in that the motor housing includes opposed end caps (456, 460), wherein each end cap (456, 460) includes a leg formed as a single piece therewith, wherein each leg includes a pad at a distal end of the leg, and wherein the tank unit includes a plurality of supports upon which the respective pads are positioned when the tank unit is coupled to the compressor unit in the stacked arrangement. a compressor unit including a motor, a pump operably coupled to the motor, and a first tank fluidly connected to the pump to receive pressurized air from the pump when operated by the motor; and a motor, a pump operably coupled to the motor, and a first tank fluidly connected to the pump to receive pressurized air from the pump when operated by the motor; and a tank unit including a second tank fluidly connected to the pump to receive pressurized air from the pump when operated by the motor; wherein the tank unit is removably coupled to the compressor unit in a stacked arrangement, characterized in that the motor housing includes opposed end caps (456, 460), wherein each end cap (456, 460) includes a leg formed as a single piece therewith, wherein each leg includes a pad at a distal end of the leg, and wherein the tank unit includes a plurality of supports upon which the respective pads are positioned when the tank unit is coupled to the compressor unit in the stacked arrangement.
A carrier substrate for transferring a transfer layer from the carrier substrate onto a product substrate (2, 2', 2", 2e), comprising at least the following steps in the following sequence: - a carrier base substrate, - a protective layer and - the transfer layer, wherein the transfer layer is grown and the protective layer, characterised in that the carrier substrate comprises at least one release layer arranged between the carrier base substrate and the protective layer, wherein the protective layer shields the transfer layer. - a carrier base substrate, - a protective layer and - the transfer layer,
An adjustable orthodontic bracket comprising: at least one base plate comprising opposing sides (2a, 2b), a first side being a tooth engaging side and a second side comprising a plurality of vertical and horizontal columns of protrusions, and a plurality of vertical and horizontal channels created by the columns of protrusions; at least one connecting plate having opposing sides (4a, 4b), a rear side comprising a plurality of vertical and horizontal columns of protrusions and a plurality of vertical and horizontal channels created by the columns of protrusions, and a front side having a cavity for receiving a wire; wherein the protrusions (20, 40) are designed to travel vertically and horizontally within the channels during an adjustment stage; and wherein a securing device for locking the connecting plate to a desired position onto the base plate is provided, the securing device being situated within a channel when the connecting plate is locked into a certain position relative to the base plate. at least one base plate comprising opposing sides (2a, 2b), a first side being a tooth engaging side and a second side comprising a plurality of vertical and horizontal columns of protrusions, and a plurality of vertical and horizontal channels created by the columns of protrusions; at least one connecting plate having opposing sides (4a, 4b), a rear side comprising a plurality of vertical and horizontal columns of protrusions and a plurality of vertical and horizontal channels created by the columns of protrusions, and a front side having a cavity for receiving a wire; wherein the protrusions (20, 40) are designed to travel vertically and horizontally within the channels during an adjustment stage; and wherein a securing device for locking the connecting plate to a desired position onto the base plate is provided, the securing device being situated within a channel when the connecting plate is locked into a certain position relative to the base plate.
Method for key generation with quantum key exchange, between a first receiver and a second receiver of photons, wherein the method comprises the following steps: i) generation of entangled photon pairs, each with a signal photon and an idler photon in a source; ii) transmission of the signal photons in a first quantum channel to the first receiver and transmission of the idler photons in a second quantum channel to the second receiver; iii) measurement of photons at the first receiver to generate a first raw key and first receiver data and measurement of photons at the second receiver to generate a second raw key and second receiver data; iv) generation of a first sifted key at the first receiver and generation of a second sifted key at the second receiver by sifting the first and second raw keys and then generation of a common key at the first receiver and the second receiver; wherein in step iv) the first receiver data is first transmitted from the first receiver to the second receiver, characterized in that, subsequently, in step iv), at the second receiver a pre-sifting is performed to reduce the second receiver data, based on the first receiver data and one or more pre-sifting parameters, and subsequently in step iv) the pre-sifted second receiver data is transmitted to the first receiver, and in step iv) the generation of the first sifted key and the second sifted key are performed on the basis of the first receiver data and the pre-sifted second receiver data and one or more sifting parameters. i) generation of entangled photon pairs, each with a signal photon and an idler photon in a source; ii) transmission of the signal photons in a first quantum channel to the first receiver and transmission of the idler photons in a second quantum channel to the second receiver; iii) measurement of photons at the first receiver to generate a first raw key and first receiver data and measurement of photons at the second receiver to generate a second raw key and second receiver data; iv) generation of a first sifted key at the first receiver and generation of a second sifted key at the second receiver by sifting the first and second raw keys and then generation of a common key at the first receiver and the second receiver; wherein in step iv) the first receiver data is first transmitted from the first receiver to the second receiver, characterized in that, subsequently, in step iv), at the second receiver a pre-sifting is performed to reduce the second receiver data, based on the first receiver data and one or more pre-sifting parameters, and subsequently in step iv) the pre-sifted second receiver data is transmitted to the first receiver, and in step iv) the generation of the first sifted key and the second sifted key are performed on the basis of the first receiver data and the pre-sifted second receiver data and one or more sifting parameters.
A method for signal transmission, comprising: generating, by a network device, beam-specific information corresponding to each of a plurality of beams, wherein first beam-specific information of a first beam of the plurality of beams is used to indicate a configuration parameter of the first beam and the configuration parameter of the first beam is used for a terminal device in coverage of the first beam to determine system information of the first beam, characterized in that, the first beam-specific information comprises a time-domain offset field, the time-domain offset field is used to indicate a sequence number of the first beam, and the sequence number of the first beam is used to instruct the terminal device to determine a time-domain offset between a first synchronization signal sent through the first beam and frame timing of a cell according to a corresponding relationship of the sequence number of the first beam, a sequence number of a time-domain location where the first synchronization signal is sent through the first beam and the time-domain offset; and sending, by the network device, corresponding beam-specific information to terminal devices in the cell through each beam. generating, by a network device, beam-specific information corresponding to each of a plurality of beams, wherein first beam-specific information of a first beam of the plurality of beams is used to indicate a configuration parameter of the first beam and the configuration parameter of the first beam is used for a terminal device in coverage of the first beam to determine system information of the first beam, characterized in that, the first beam-specific information comprises a time-domain offset field, the time-domain offset field is used to indicate a sequence number of the first beam, and the sequence number of the first beam is used to instruct the terminal device to determine a time-domain offset between a first synchronization signal sent through the first beam and frame timing of a cell according to a corresponding relationship of the sequence number of the first beam, a sequence number of a time-domain location where the first synchronization signal is sent through the first beam and the time-domain offset; and sending, by the network device, corresponding beam-specific information to terminal devices in the cell through each beam.
A vehicular headlight (100, 200), including: a light source; a reflector that reflects light from the light source; a lens having an entry surface through which the light reflected by the reflector enters, and an exit surface from which the light that has entered the entry surface exits into an irradiation region in front of the vehicle; and an extension member (50, 150) disposed at least in front of a lower end of the lens in a vehicle-mounted state, wherein the extension member (50, 150) includes a light-transmitting member (51, 152) that has a plate shape, that is provided with a first surface facing forward in the vehicle-mounted state and a second surface on an opposite side to the first surface, and that is capable of transmitting light from the first surface to the second surface, a colored portion (52, 151) disposed on the second surface of the light-transmitting member (51, 152), characterised by a light-scattering portion (53, 153) provided at least in a portion of the light-transmitting member (51, 152) below the lens in the vehicle-mounted state. a light source; a reflector that reflects light from the light source; a lens having an entry surface through which the light reflected by the reflector enters, and an exit surface from which the light that has entered the entry surface exits into an irradiation region in front of the vehicle; and an extension member (50, 150) disposed at least in front of a lower end of the lens in a vehicle-mounted state, wherein the extension member (50, 150) includes a light-transmitting member (51, 152) that has a plate shape, that is provided with a first surface facing forward in the vehicle-mounted state and a second surface on an opposite side to the first surface, and that is capable of transmitting light from the first surface to the second surface, a colored portion (52, 151) disposed on the second surface of the light-transmitting member (51, 152), characterised by a light-scattering portion (53, 153) provided at least in a portion of the light-transmitting member (51, 152) below the lens in the vehicle-mounted state.
A flow meter responsive to mass flow rate and density of a multi-phase flow and having electronics for determining a phase difference between a first sensor signal and a second sensor signal of the flow meter, comprising: an interface for receiving a first sensor signal and a second sensor signal; and a processing system in communication with the interface and configured to receive the first sensor signal and the second sensor signal, wherein the processing system is further configured to: generate a ninety degree phase shift from the first sensor signal, compute a frequency from the first sensor signal and the ninety degree phase shift, generate sine and cosine signals using the frequency, and quadrature demodulate the first sensor signal and the second sensor signal using the sine and cosine signals in order to determine the phase difference. an interface for receiving a first sensor signal and a second sensor signal; and a processing system in communication with the interface and configured to receive the first sensor signal and the second sensor signal, wherein the processing system is further configured to: generate a ninety degree phase shift from the first sensor signal, compute a frequency from the first sensor signal and the ninety degree phase shift, generate sine and cosine signals using the frequency, and quadrature demodulate the first sensor signal and the second sensor signal using the sine and cosine signals in order to determine the phase difference. generate a ninety degree phase shift from the first sensor signal, compute a frequency from the first sensor signal and the ninety degree phase shift, generate sine and cosine signals using the frequency, and quadrature demodulate the first sensor signal and the second sensor signal using the sine and cosine signals in order to determine the phase difference.
A laser light source module (100, 101) having a semiconductor laser array obtained by arranging a plurality of semiconductor laser elements in an array pattern mounted thereon, comprising: - a stem; - a plurality of power feeding lead pins (2A, 2B) arranged in a standing manner on the stem; - a heat sink made of a material excellent in thermal conductivity and is mounted on the stem; - a sub-mount substrate made of a material excellent in insulation property and is mounted on the heat sink; - a first lead frame (5, 5B) made of a material excellent in electric conductivity and thermal conductivity and having a linear expansion coefficient similar to the linear expansion coefficient of the semiconductor laser array, mounted on the sub-mount substrate, having the semiconductor laser array mounted thereon, composing a power feeding path of the semiconductor laser array, and electrically bonded to the power feeding lead pins (2A, 2B); - a second lead frame (6, 6B) made of a material excellent in electric conductivity and thermal conductivity, arranged on the sub-mount substrate side by side with the first lead frame (5, 5), composing the power feeding path of the semiconductor laser array, and electrically bonded to other power feeding lead pins (2A, 2B); and - a wire for electrically bonding the semiconductor laser array and the second lead frame (6, 6B), wherein the semiconductor laser array, the first lead frame (5, 5B), the sub-mount substrate, and the heat sink are made of GaAs, CuW, AIN and Cu, respectively, as main components. - a stem; - a plurality of power feeding lead pins (2A, 2B) arranged in a standing manner on the stem; - a heat sink made of a material excellent in thermal conductivity and is mounted on the stem; - a sub-mount substrate made of a material excellent in insulation property and is mounted on the heat sink; - a first lead frame (5, 5B) made of a material excellent in electric conductivity and thermal conductivity and having a linear expansion coefficient similar to the linear expansion coefficient of the semiconductor laser array, mounted on the sub-mount substrate, having the semiconductor laser array mounted thereon, composing a power feeding path of the semiconductor laser array, and electrically bonded to the power feeding lead pins (2A, 2B); - a second lead frame (6, 6B) made of a material excellent in electric conductivity and thermal conductivity, arranged on the sub-mount substrate side by side with the first lead frame (5, 5), composing the power feeding path of the semiconductor laser array, and electrically bonded to other power feeding lead pins (2A, 2B); and - a wire for electrically bonding the semiconductor laser array and the second lead frame (6, 6B), wherein the semiconductor laser array, the first lead frame (5, 5B), the sub-mount substrate, and the heat sink are made of GaAs, CuW, AIN and Cu, respectively, as main components.