mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for segmenting medical images, the method comprising: receiving an image from a memory; identifying at least one landmark point within the image, each landmark point being an anatomical landmark of an anatomical structure; selecting an image point in the image; determining , by a processor, at least one feature for the image point relative to the at least one landmark point ; and associating , by the processor, the image point with an anatomical structure by using a classification model based on the at least one determined feature; wherein the at least one determined feature comprises: a relative distance between the image point and the at least one landmark point ; or a direction component of a displacement vector formed between the image point and the at least one landmark point ; or geometric measurements determined from a shape formed by the image point and multiple landmark points including the at least one landmark point . receiving an image from a memory; identifying at least one landmark point within the image, each landmark point being an anatomical landmark of an anatomical structure; selecting an image point in the image; determining , by a processor, at least one feature for the image point relative to the at least one landmark point ; and associating , by the processor, the image point with an anatomical structure by using a classification model based on the at least one determined feature; wherein the at least one determined feature comprises: a relative distance between the image point and the at least one landmark point ; or a direction component of a displacement vector formed between the image point and the at least one landmark point ; or geometric measurements determined from a shape formed by the image point and multiple landmark points including the at least one landmark point . a relative distance between the image point and the at least one landmark point ; or a direction component of a displacement vector formed between the image point and the at least one landmark point ; or geometric measurements determined from a shape formed by the image point and multiple landmark points including the at least one landmark point .
A device comprising: a processor , a loudspeaker comprising a voice coil , one or more devices configured to determine loudspeaker voltage and loudspeaker current, and a memory storing a Bl product for the loudspeaker , the processor configured to: receive a plurality of loudspeaker currents I ( t ) and a corresponding plurality of loudspeaker voltages V ( t ) from the one or more devices as a function of time, t; derive a current-from-voltage transfer function H IV ( ω ) from the plurality of loudspeaker currents l ( t ) and the corresponding plurality of loudspeaker voltages V ( t ), as a function of frequency, ω; determine a Fourier space excursion-from-voltage transfer function H XV (ω) using: H XV ω = 1 Bl 1 − H IV ω R vc jω − L vc H IV ω where: j denotes a square root of -1, and wherein the form of H XV (ω) is constrained by parameters H IV (ω), Bl, R vc . and L vc , where: R vc comprises a resistance of the voice coil ; and L vc comprises an inductance of the voice coil ; determine filter coefficients using the Fourier space excursion-from-voltage transfer function, H XV ( ω ) ; and, apply a filter to an input signal for the loudspeaker using the filter coefficients in order to place limits on the filtered input signal, the limits based on a maximum excursion of the voice coil. receive a plurality of loudspeaker currents I ( t ) and a corresponding plurality of loudspeaker voltages V ( t ) from the one or more devices as a function of time, t; derive a current-from-voltage transfer function H IV ( ω ) from the plurality of loudspeaker currents l ( t ) and the corresponding plurality of loudspeaker voltages V ( t ), as a function of frequency, ω; determine a Fourier space excursion-from-voltage transfer function H XV (ω) using: H XV ω = 1 Bl 1 − H IV ω R vc jω − L vc H IV ω where: j denotes a square root of -1, and wherein the form of H XV (ω) is constrained by parameters H IV (ω), Bl, R vc . and L vc , where: R vc comprises a resistance of the voice coil ; and L vc comprises an inductance of the voice coil ; where: j denotes a square root of -1, and wherein the form of H XV (ω) is constrained by parameters H IV (ω), Bl, R vc . and L vc , where: R vc comprises a resistance of the voice coil ; and L vc comprises an inductance of the voice coil ; determine filter coefficients using the Fourier space excursion-from-voltage transfer function, H XV ( ω ) ; and, apply a filter to an input signal for the loudspeaker using the filter coefficients in order to place limits on the filtered input signal, the limits based on a maximum excursion of the voice coil.
A process for producing an OSB provided with a printed surface, comprising the steps of a) providing at least one OSB carrier board, b) applying at least one layer of at least one hot melt adhesive (hotmelt) to at least one surface of the OSB, c) smoothing of the applied at least one layer of hotmelt adhesive, d) printing on the smoothed hotmelt adhesive layer with a print decoration using digital printing with UV inks, the printing being carried out directly on the smoothed hotmelt adhesive layer, and e) applying at least one lacquer layer to the printed hotmelt adhesive layer. a) providing at least one OSB carrier board, b) applying at least one layer of at least one hot melt adhesive (hotmelt) to at least one surface of the OSB, c) smoothing of the applied at least one layer of hotmelt adhesive, d) printing on the smoothed hotmelt adhesive layer with a print decoration using digital printing with UV inks, the printing being carried out directly on the smoothed hotmelt adhesive layer, and e) applying at least one lacquer layer to the printed hotmelt adhesive layer.
A wireless power transmitter comprising: a transmission coil receiving unit ; a transmission coil , disposed in the transmission coil receiving unit , configured to transmit wireless power to a wireless power receiver ; a power supply device connected to the transmission coil configured to supply power to the transmission coil ; a heat radiation member disposed on the power supply device configured to radiate the heat generated from the power supply device ; an inlet device disposed at to one side of the transmission coil , wherein the inlet device is configured to supply the air to the transmission coil and the heat radiation member configured to decrease the internal temperature of the wireless power transmitter , characterized in that the wireless power transmitter further comprises a first case and a second case coupled to the first case , wherein a first passage groove is provided in the second case in such a way that the heat generated from the transmission coil flows into the first passage groove , wherein air is introduced into the first passage groove through the inlet device , wherein the first passage groove is in a form of surrounding an outer periphery of the transmission coil. a transmission coil receiving unit ; a transmission coil , disposed in the transmission coil receiving unit , configured to transmit wireless power to a wireless power receiver ; a power supply device connected to the transmission coil configured to supply power to the transmission coil ; a heat radiation member disposed on the power supply device configured to radiate the heat generated from the power supply device ; an inlet device disposed at to one side of the transmission coil , wherein the inlet device is configured to supply the air to the transmission coil and the heat radiation member configured to decrease the internal temperature of the wireless power transmitter , characterized in that the wireless power transmitter further comprises a first case and a second case coupled to the first case , wherein a first passage groove is provided in the second case in such a way that the heat generated from the transmission coil flows into the first passage groove , wherein air is introduced into the first passage groove through the inlet device , wherein the first passage groove is in a form of surrounding an outer periphery of the transmission coil.
Projection device for a motor vehicle headlamp, the projection device being set up for imaging light from at least one light source associated with the projection device in an area in front of a motor vehicle in the form of at least one light distribution, the projection device comprising: - an entrance optics , which has a number of micro-entrance optics , which are preferably arranged in an array, - an exit optics comprising a number of micro-exit optics , preferably arranged in an array, wherein each micro-entry optics is associated with exactly one micro-exit optics , wherein the micro-entry optics are configured and/or the micro-entry optics and the micro-exit optics are arranged relative to one another in such a way that substantially all of the light emerging from a micro-entry optic enters only the associated micro-exit optic , and wherein the light preformed by the micro-entry optics is imaged by the micro-exit optics into an area in front of the motor vehicle as at least one light distribution, wherein the entrance optics as well as the exit optics are fixedly connected to at least one light-transmitting carrier (5, 5', 5") arranged between the entrance optics and the exit optics , wherein the at least one carrier (5, 5', 5") consists at least partially of glass, characterized in that the at least one carrier (5, 5', 5") consists at least partially of glass, in that two mutually opposite supports (5', 5") spaced apart from one another for improved cooling of the optics are arranged between the entrance optics and the exit optics , the entrance optics and the exit optics each being firmly connected to one of the supports (5', 5") by means of a light-transmitting adhesive. - an entrance optics , which has a number of micro-entrance optics , which are preferably arranged in an array, - an exit optics comprising a number of micro-exit optics , preferably arranged in an array, wherein
A method performed by a system comprising: assigning each of a plurality of test points to a respective physical space of a target building ; using previously collected grid RF test results of adjacent buildings that are relevant to the target building to calculate a respective predictive RF result for each of the plurality of test points ; using the respective predictive RF result for each of the plurality of test points to calculate an optimized test path through the target building ; measuring a respective actual RF signal value of each of the plurality of test points in succession along the optimized test path; counting failing ones of the plurality of test points for which the respective actual RF signal value is below a passing threshold value; and when a counted number of the failing ones of the plurality of test points exceeds a failure threshold value, stopping measurements of the respective actual RF signal value of each of the plurality of test points in succession along the optimized test path. assigning each of a plurality of test points to a respective physical space of a target building ; using previously collected grid RF test results of adjacent buildings that are relevant to the target building to calculate a respective predictive RF result for each of the plurality of test points ; using the respective predictive RF result for each of the plurality of test points to calculate an optimized test path through the target building ; measuring a respective actual RF signal value of each of the plurality of test points in succession along the optimized test path; counting failing ones of the plurality of test points for which the respective actual RF signal value is below a passing threshold value; and when a counted number of the failing ones of the plurality of test points exceeds a failure threshold value, stopping measurements of the respective actual RF signal value of each of the plurality of test points in succession along the optimized test path.
A self-clumping cat litter formed of litter granules comprised of extruded starch-containing pellets which each have a plurality of pairs of internal voids that aid liquid absorption, which have an outer surface and which include a water-soluble carbohydrate polymer binder formed during extrusion that functions as a litter clump agent, having: (a) at least 40% starch by weight of the cat litter, and, characterized in that : (b) each pellet has between 2% and 15% carbohydrate polymer binder by uncoated untreated pellet weight of the cat litter formed from starch during making of the cat litter, with at least some of the carbohydrate polymer binder disposed at or along the outer surface of each pellet enabling it to be dissolved by water, urine or another liquid to form a flowable liquid adhesive that flows from the pellet clumping the cat litter. (a) at least 40% starch by weight of the cat litter, and, characterized in that : (b) each pellet has between 2% and 15% carbohydrate polymer binder by uncoated untreated pellet weight of the cat litter formed from starch during making of the cat litter, with at least some of the carbohydrate polymer binder disposed at or along the outer surface of each pellet enabling it to be dissolved by water, urine or another liquid to form a flowable liquid adhesive that flows from the pellet clumping the cat litter.
A method of operating a gas turbine engine rated greater than or equal to 15,000 lbs (6,804 kg) and less than or equal to 35,000 lbs (15,876 kg) in rated thrust at take-off, the method comprising: driving a gear reduction using a fan drive turbine ; driving a fan rotor using said gear reduction ; supplying oil to said gear reduction using a lubrication system having an oil tank sized to hold greater than or equal to 25 quarts (23.7 L) of oil and less than or equal to 35 quarts (33.1 L) of oil, wherein an oil capture gutter surrounds said gear reduction , said gear reduction includes a sun gear driving intermediate gears , oil baffles are located circumferentially between said intermediate gears , and oil remains in the oil tank for a dwell time of less than or equal to five seconds. driving a gear reduction using a fan drive turbine ; driving a fan rotor using said gear reduction ; supplying oil to said gear reduction using a lubrication system having an oil tank sized to hold greater than or equal to 25 quarts (23.7 L) of oil and less than or equal to 35 quarts (33.1 L) of oil, wherein an oil capture gutter surrounds said gear reduction , said gear reduction includes a sun gear driving intermediate gears , oil baffles are located circumferentially between said intermediate gears , and oil remains in the oil tank for a dwell time of less than or equal to five seconds.
A single-unit aerospace remote sensing and solid state power controller, SSPC, comprising: a processing module ; a remote data concentrator, RDC, module in communication with the processing module , and configured to receive analog or discrete input comprising load sensor information from at least one load sensor and translate the analog or discrete input into a protocol operable by the processing module; and a SSPC in communication with the RDC and the processing module, configured to receive the load sensor information from the RDC module and control at least one load mechanism based on the load sensor information, wherein the RDC , the processing module , and the SSPC are unified into a single card; wherein the RDC comprises an analog or discrete input connection , a CAN bus, a secondary communications bus, and a tertiary communications bus; the RDC includes a plurality of input channels configured to provide data transmission to and from the RDC and the processing module ; the SSPC comprises a plurality of output channels configured to operate a plurality of control load mechanisms ; and the SSPC receives power from power inputs , which also feeds power to the RDC and the processing module . a processing module ; a remote data concentrator, RDC, module in communication with the processing module , and configured to receive analog or discrete input comprising load sensor information from at least one load sensor and translate the analog or discrete input into a protocol operable by the processing module; and a SSPC in communication with the RDC and the processing module, configured to receive the load sensor information from the RDC module and control at least one load mechanism based on the load sensor information, wherein the RDC , the processing module , and the SSPC are unified into a single card; wherein the RDC comprises an analog or discrete input connection , a CAN bus, a secondary communications bus, and a tertiary communications bus; the RDC includes a plurality of input channels configured to provide data transmission to and from the RDC and the processing module ; the SSPC comprises a plurality of output channels configured to operate a plurality of control load mechanisms ; and the SSPC receives power from power inputs , which also feeds power to the RDC and the processing module .
A control system (A-1000) for mixing materials for livestock feed, comprising: - a container (B-1100) which receives the materials ; - agitators (B-1300) which mix the materials in the container (B-1100); - a driveline (B-1200) which drives the agitators (B-1300) at an output speed (W out ) with an output torque (T out ); - a power source (C-1000) which provides an input speed (Win) with an input torque (T in ); - a continuously variable transmission (A-1500) that connects the driveline (B-1200) and the power source (C-1000); and - an electronic control unit (A-1100) configured to control the input torque (T in ) and to prevent the power source (C-1000) from being overcome by the output torque (T out ) required by the agitators (B-1300) and to maintain an increase of the input torque (T in ), said control system being characterised in that the electronic control unit (A-1100) is configured to adjust a speed ratio (R in/out ) between the input speed (W in ) and the output speed (W out ) of the continuously variable transmission (A-1500) to provide a linear relationship between the input torque (T in ) and the output torque (T out ) with a slope (M), equal to the ratio of an output target speed (W out target ) of the agitators (B-1300) and the input speed (W in ), when the input torque (T in ) is below a control input threshold (T in control ), and follow a corrected linear relationship between the input torque (T in ) and the output torque (T out ) with a corrected slope (M c ), based on a maximum input torque (T in max ) and a maximum output torque (T out max ), smaller than the slope (M) when the input torque (T in ) is above the control input threshold (T in control ), a value of the input speed (W in ) being acquired via a speed sensor (A-1430) and a value of the output torque (T out ) is acquired via a torque sensor (A-1410), wherein the value of the input torque (T in ) is dependent on the value of the output torque (T out ) and the value of the speed ratio (R in/out ) that corresponds to the output target speed (W out target ). - a container (B-1100) which receives the materials ; - agitators (B-1300) which mix the materials in the container (B-1100); - a driveline (B-1200) which drives the agitators (B-1300) at an output speed (W out ) with an output torque (T out ); - a power source (C-1000) which provides an input speed (Win) with an input torque (T in ); - a continuously variable transmission (A-1500) that connects the driveline (B-1200) and the power source (C-1000); and - an electronic control unit (A-1100) configured to control the input torque (T in ) and to prevent the power source (C-1000) from being overcome by the output torque (T out ) required by the agitators (B-1300) and to maintain an increase of the input torque (T in ), said control system being characterised in that
A machine readable storage medium containing executable machine readable instructions configured to cause processor of a source device to: access a set of training fingerprints , wherein each of the training fingerprints specifies an access point of a plurality of access points to which a wireless mobile device made a successful connection and a cellular tower identifier and cellular signal strength of a cellular tower near the wireless mobile device when the successful connection was made; generate an interim model from the accessed set of training fingerprints, the interim model containing a subset of the information in the set of training fingerprints and configured for use by a destination wireless device to generate a prediction model to predict an availability of an access point, wherein the interim model has the same probability mass function distribution characteristics as a source prediction model generated from the set of training finger prints ; the source prediction model allowing predicting an availability of an access point in response to a cellular finger print; and transfer the generated interim model to the destination wireless device. access a set of training fingerprints , wherein each of the training fingerprints specifies an access point of a plurality of access points to which a wireless mobile device made a successful connection and a cellular tower identifier and cellular signal strength of a cellular tower near the wireless mobile device when the successful connection was made; generate an interim model from the accessed set of training fingerprints, the interim model containing a subset of the information in the set of training fingerprints and configured for use by a destination wireless device to generate a prediction model to predict an availability of an access point, wherein the interim model has the same probability mass function distribution characteristics as a source prediction model generated from the set of training finger prints ; the source prediction model allowing predicting an availability of an access point in response to a cellular finger print; and transfer the generated interim model to the destination wireless device.
A digital broadcast video reception apparatus, the apparatus comprising a de-interleaver configured to de-interleave data carriers in an Orthogonal Frequency Division Multiplexed, OFDM, symbol of a digital broadcast video signal onto data cells of an OFDM symbol in accordance with at least a first generator polynomial and a bit permutation, the OFDM symbols being associated with a 4K mode characterized in that the bit permutation is changing from one OFDM symbol to another.
A user equipment, comprising: a radio interface operative to transmit a signalling message (65; 70; 75; 91; 94; 95) including paging related information (72; 76) that is indicative of whether the user equipment, UE , is pageable or unpageable such that the UE does not listen on a paging channel; and an electronic circuit operative to control the radio interface in dependence on the paging related information (72; 76), wherein the electronic circuit is operative to control the radio interface such that the UE does not listen on a paging channel if the paging related information (72; 76) indicates that the UE is unpageable, wherein the UE that is unpageable is operative to receive downlink user data after the UE initiates mobile originated, MO, traffic. a radio interface operative to transmit a signalling message (65; 70; 75; 91; 94; 95) including paging related information (72; 76) that is indicative of whether the user equipment, UE , is pageable or unpageable such that the UE does not listen on a paging channel; and an electronic circuit operative to control the radio interface in dependence on the paging related information (72; 76), wherein the electronic circuit is operative to control the radio interface such that the UE does not listen on a paging channel if the paging related information (72; 76) indicates that the UE is unpageable, wherein the UE that is unpageable is operative to receive downlink user data after the UE initiates mobile originated, MO, traffic.