mhurhangee/ep-ind-claims huggingface dataset:
An isolated human antibody that specifically binds human Tie2 and inhibits Tie2-mediated signaling, wherein the antibody comprises the heavy and light chain variable regions of the antibody produced from a cell line deposited with the American Type Culture Collection under accession number PTA-12295 and a human IgG4 constant region.
A method of enabling Hybrid Automatic Request, HARQ, in an IEEE 802.11 communication, the method comprising transmitting, in an element in a Block Acknowledgement, BA, setup of a Medium Access Control, MAC, message, which element indicates a request to use HARQ; receiving a response to said request; and starting to apply HARQ, wherein bits of a BA bitmap in a NACK during application of HARQ indicate which codewords are erroneously received, and wherein in case HARQ is used, fragmentation is disabled and a fragment subfield in the BA is remapped to a codeword identifier subfield. transmitting, in an element in a Block Acknowledgement, BA, setup of a Medium Access Control, MAC, message, which element indicates a request to use HARQ; receiving a response to said request; and starting to apply HARQ, wherein bits of a BA bitmap in a NACK during application of HARQ indicate which codewords are erroneously received, and wherein in case HARQ is used, fragmentation is disabled and a fragment subfield in the BA is remapped to a codeword identifier subfield.
A method, performed at an aircraft, comprising: sending a request from the aircraft to obtain bandwidth with an initial set of transmit parameters; initiating a communication session between the aircraft and at least one satellite using a first set of transmit parameters; monitoring aircraft and environmental conditions capable of affecting transmit/receive properties during the communication session; determining a change in uplink power at a time interval equal to a transmit frame length; determining a maximum allowable transmission output power based, at least in part, on governmental regulations and the monitored aircraft and environmental conditions; and adjusting one or more transmit parameters from the first set of transmit parameters to maintain aircraft transmission output power below the maximum allowable transmission output power, wherein the aircraft conditions include at least one of antenna skew angle, and aircraft position, and wherein the environmental conditions include at least presence of precipitation and absence of precipitation. sending a request from the aircraft to obtain bandwidth with an initial set of transmit parameters; initiating a communication session between the aircraft and at least one satellite using a first set of transmit parameters; monitoring aircraft and environmental conditions capable of affecting transmit/receive properties during the communication session; determining a change in uplink power at a time interval equal to a transmit frame length; determining a maximum allowable transmission output power based, at least in part, on governmental regulations and the monitored aircraft and environmental conditions; and adjusting one or more transmit parameters from the first set of transmit parameters to maintain aircraft transmission output power below the maximum allowable transmission output power, wherein the aircraft conditions include at least one of antenna skew angle, and aircraft position, and wherein the environmental conditions include at least presence of precipitation and absence of precipitation.
A method for detecting a spoofed voice source, the method comprising: receiving a voice sample; extracting at least deep acoustic features from the voice sample using a first deep neural network, DNN, wherein the first DNN comprises a pooling layer configured to extract at least one feature sensitive to audio and/or channel artifacts from the deep acoustic features; calculating, via a second DNN that receives the extracted at least deep acoustic features, a first likelihood that the voice sample includes a spoofing condition based in part on the at least one feature sensitive to audio and/or channel artifacts in the deep acoustic features; and characterised by classifying the voice sample, using a binary classifier, as being either genuine or spoofed based on the first likelihood that the voice sample includes the spoofing condition from the second DNN and a second likelihood that an enrollment sample includes the spoofing condition. receiving a voice sample; extracting at least deep acoustic features from the voice sample using a first deep neural network, DNN, wherein the first DNN comprises a pooling layer configured to extract at least one feature sensitive to audio and/or channel artifacts from the deep acoustic features; calculating, via a second DNN that receives the extracted at least deep acoustic features, a first likelihood that the voice sample includes a spoofing condition based in part on the at least one feature sensitive to audio and/or channel artifacts in the deep acoustic features; and characterised by classifying the voice sample, using a binary classifier, as being either genuine or spoofed based on the first likelihood that the voice sample includes the spoofing condition from the second DNN and a second likelihood that an enrollment sample includes the spoofing condition.
A non-volatile memory, comprising: an array of memory cells, comprising: a first section (107-1, 207-1) comprising a plurality of rows (235-1,1 to 235-1,N); and a second section (107-2, 207-2) comprising a plurality of rows (235-2,1 to 235-2,N); and a controller configured to perform a wear leveling operation and, in association with performing the wear leveling operation: transfer data stored in a first row (235-1,1) of the first section from the first row to a register; and transfer the data from the register to a destination row (235-2,1) of the second section while data in a second row (235-1,2) of the first section is being sensed. an array of memory cells, comprising: a first section (107-1, 207-1) comprising a plurality of rows (235-1,1 to 235-1,N); and a second section (107-2, 207-2) comprising a plurality of rows (235-2,1 to 235-2,N); and a first section (107-1, 207-1) comprising a plurality of rows (235-1,1 to 235-1,N); and a second section (107-2, 207-2) comprising a plurality of rows (235-2,1 to 235-2,N); and a controller configured to perform a wear leveling operation and, in association with performing the wear leveling operation: transfer data stored in a first row (235-1,1) of the first section from the first row to a register; and transfer the data from the register to a destination row (235-2,1) of the second section while data in a second row (235-1,2) of the first section is being sensed. transfer data stored in a first row (235-1,1) of the first section from the first row to a register; and transfer the data from the register to a destination row (235-2,1) of the second section while data in a second row (235-1,2) of the first section is being sensed.
A starter system (200, 201) for a vehicle, said starter system (200, 201) comprising: a starter means functionally connected to a crankshaft of a power unit (125, 425) of said vehicle; a power source electrically coupled to said starter means for driving said starter means; and a starter control unit having means (M1-M6, 210F) for controlling the rotation speed of the starter means and having means for calculating a first parameter, which includes at least one of an engine speed, a rotational speed of crankshaft or a rotational speed of one of more rotating members connected to said crankshaft, wherein said starter control unit, during an initial attempt to start the engine, is trying to crank said power unit (125, 425) through said starter means, whose rotational speed is increased up to a first speed, said starter control unit checks, based on at least the first parameter of said power unit (125, 425), whether the power unit has started or not, and, during a first attempt to start the engine after the initial attempt is unsuccessful, said starter control unit is trying to crank said power unit (125, 425) through said starter means, whose rotational speed is increased up to a second speed, said starter control unit being characterized in that said second speed is greater than said first speed. a starter means functionally connected to a crankshaft of a power unit (125, 425) of said vehicle; a power source electrically coupled to said starter means for driving said starter means; and a starter control unit having means (M1-M6, 210F) for controlling the rotation speed of the starter means and having means for calculating a first parameter, which includes at least one of an engine speed, a rotational speed of crankshaft or a rotational speed of one of more rotating members connected to said crankshaft, wherein said starter control unit, during an initial attempt to start the engine, is trying to crank said power unit (125, 425) through said starter means, whose rotational speed is increased up to a first speed, said starter control unit checks, based on at least the first parameter of said power unit (125, 425), whether the power unit has started or not, and, during a first attempt to start the engine after the initial attempt is unsuccessful, said starter control unit is trying to crank said power unit (125, 425) through said starter means, whose rotational speed is increased up to a second speed, said starter control unit being characterized in that said second speed is greater than said first speed.
A face seal assembly (100, 200) comprising: a seal carrier (110, 210) defining an axis and having a pilot flange disposed circumferentially about said axis; a seal element (130, 230) disposed at least partially in said seal carrier (110, 210); and a retaining plate (120, 220, 300) connected to one axial end of said seal carrier (110, 210) and configured to retain the seal element (130, 230) in position axially, characterized in that: said retaining plate (120, 220, 300) has an axial step (128, 260, 330) disposed circumferentially about said retaining plate (120, 220, 300), wherein said axial step (128, 260, 330) is interfaced with said pilot flange, and in that said retaining plate (120, 220, 300) further comprises a plurality of radially outward retainer flanges (122, 222, 320) and said seal carrier (110, 210) comprises a plurality of radially outward carrier flanges (112, 214), wherein each of said retainer flanges (122, 222, 320) corresponds to one of said carrier flanges (112, 214). a seal carrier (110, 210) defining an axis and having a pilot flange disposed circumferentially about said axis; a seal element (130, 230) disposed at least partially in said seal carrier (110, 210); and a retaining plate (120, 220, 300) connected to one axial end of said seal carrier (110, 210) and configured to retain the seal element (130, 230) in position axially, characterized in that: said retaining plate (120, 220, 300) has an axial step (128, 260, 330) disposed circumferentially about said retaining plate (120, 220, 300), wherein said axial step (128, 260, 330) is interfaced with said pilot flange, and in that said retaining plate (120, 220, 300) further comprises a plurality of radially outward retainer flanges (122, 222, 320) and said seal carrier (110, 210) comprises a plurality of radially outward carrier flanges (112, 214), wherein each of said retainer flanges (122, 222, 320) corresponds to one of said carrier flanges (112, 214). said retaining plate (120, 220, 300) has an axial step (128, 260, 330) disposed circumferentially about said retaining plate (120, 220, 300), wherein said axial step (128, 260, 330) is interfaced with said pilot flange, and in that said retaining plate (120, 220, 300) further comprises a plurality of radially outward retainer flanges (122, 222, 320) and said seal carrier (110, 210) comprises a plurality of radially outward carrier flanges (112, 214), wherein each of said retainer flanges (122, 222, 320) corresponds to one of said carrier flanges (112, 214).
A PSA assay method comprising using insoluble carriers with two kinds of anti-PSA monoclonal antibodies immobilized thereon, and bringing the insoluble carriers into contact with a sample in the presence of an agglutination accelerator, wherein the two kinds of anti-PSA monoclonal antibodies can react with both free PSA and complex of free PSA and α1-antichymotrypsin (PSA-ACT) and recognize different epitopes in a one-step reaction, wherein the insoluble carriers have an identical average particle size that is more than 0.20 μm and equal to or less than 0.40 μm, wherein the two kinds of anti-PSA monoclonal antibodies have a ratio (fKd/cKd) of a dissociation constant (fKd) for free PSA to a dissociation constant (cKd) for complex of free PSA and α1-antichymotrypsin (PSA-ACT) of more than 0.1 and equal to or less than 2.0, and wherein the agglutination accelerator is one or more agglutination accelerators selected from polyethylene glycol, a polysaccharide, polyvinylpyrrolidone, polyvinyl chloride, a poly-γ-glutamate, and poly(2-methacryloyloxyethylphosphorylcholine):
A hot-stamping formed body comprising: a steel sheet; and a zinc-plated layer that is provided on the steel sheet, wherein the steel sheet has a chemical composition containing, by mass %, C: 0.18% to 0.50%, Si: 0.10% to 1.50%, Mn: 1.5% to 2.5%, sol.Al: 0.001% to 0.100%, Ti: 0.010% to 0.100%, S: 0.0100% or less, P: 0.100% or less, N: 0.010% or less, Nb: 0% to 0.05%, V: 0% to 0.50%, Cr: 0% to 0.50%, Mo: 0% to 0.50%, B: 0% to 0.010%, Ni: 0% to 2.00%, and a total of REM, Ca, Co, and Mg: 0% to 0.030%, a remainder consisting of Fe and impurities, an area % of martensite is 90% or more in microstructure at a position corresponding to 1/4 of a sheet thickness of the steel sheet from a surface of the steel sheet in a sheet thickness direction, the zinc-plated layer includes a Γ phase and a Fe-Zn solid solution, and a cross-sectional area ratio of voids present in the zinc-plated layer is 15.0% or less, and wherein the area ratio of martensite, the Γ phase and the Fe-Zn solid solution, and the cross-sectional area ratio of voids are measured as described in the description. a steel sheet; and a zinc-plated layer that is provided on the steel sheet, wherein the steel sheet has a chemical composition containing, by mass %, C: 0.18% to 0.50%, Si: 0.10% to 1.50%, Mn: 1.5% to 2.5%, sol.Al: 0.001% to 0.100%, Ti: 0.010% to 0.100%, S: 0.0100% or less, P: 0.100% or less, N: 0.010% or less, Nb: 0% to 0.05%, V: 0% to 0.50%, Cr: 0% to 0.50%, Mo: 0% to 0.50%, B: 0% to 0.010%, Ni: 0% to 2.00%, and a total of REM, Ca, Co, and Mg: 0% to 0.030%, a remainder consisting of Fe and impurities, C: 0.18% to 0.50%, Si: 0.10% to 1.50%, Mn: 1.5% to 2.5%, sol.Al: 0.001% to 0.100%, Ti: 0.010% to 0.100%, S: 0.0100% or less, P: 0.100% or less, N: 0.010% or less, Nb: 0% to 0.05%, V: 0% to 0.50%, Cr: 0% to 0.50%, Mo: 0% to 0.50%, B: 0% to 0.010%, Ni: 0% to 2.00%, and a total of REM, Ca, Co, and Mg: 0% to 0.030%, a remainder consisting of Fe and impurities, an area % of martensite is 90% or more in microstructure at a position corresponding to 1/4 of a sheet thickness of the steel sheet from a surface of the steel sheet in a sheet thickness direction, the zinc-plated layer includes a Γ phase and a Fe-Zn solid solution, and a cross-sectional area ratio of voids present in the zinc-plated layer is 15.0% or less, and wherein the area ratio of martensite, the Γ phase and the Fe-Zn solid solution, and the cross-sectional area ratio of voids are measured as described in the description.
An automatic washing machine for household and community use, the housing of which is covered by a door, side panels and a top panel and contains a machine frame, a tub with a tub edge containing a drum, a loading opening decor frame above the tub edge, furthermore it contains a motor with a drive belt and a pulley, water inlet valves, a washing water pump, a debris filter, a shock absorber element, a heater, and a closing panel covering the water space, furthermore it contains a control front panel above the door in the continuation of the door, with a built-in control electronic panel including a touch screen and equipped characterised in that the control front panel includes a RFID label reader, and in that the main units of the electronic panel are a heavy current and a light current panel, and a processor with event-driven software; the tub is connected to a tub frame, the door is fixed to the front side of the tub frame, and the lower part of the tub frame is connected to the lower part of the machine frame by a door and tub frame rotation shaft, furthermore it contains at least two electromagnetic limit stops, with one electromagnetic limit stop located on the upper, inner part of the machine frame and another electromagnetic limit stop above the tub frame and in that there is an electromagnetic door lock on the upper part of the machine frame, which locks the door when the door is closed, when the door is opened, such that, the electromagnetic door lock releases the door, and it swings out with the tub frame at an angle from the machine frame around the door and tub frame rotation shaft until the electromagnetic limit stops come into contact, and the loading opening of the drum mounted within the tub frame held firmly by the electromagnetic limit stops becomes accessible.
A system for improving a braking efficiency of an aircraft having an elevator or other rear pitch control surface, the system comprising: an acceleration sensor configured to measure a longitudinal deceleration of the aircraft; a brake pedal sensor to measure a position of a brake pedal; and a controller coupled to the acceleration sensor and/or the brake pedal sensor, the system being characterized by the fact that the controller implements a flight control law that enhances braking efficiency of the aircraft through the operation of the elevator or the other rear pitch control surface by using the measured longitudinal deceleration and/or the measured brake pedal position as references to the control law, wherein the controller is configured to selectively control the deflection of the elevator or the other rear pitch control surface to generate a rear downward lift force L HT as a function of the measured longitudinal deceleration and/or the measured brake pedal position to increase the vertical load in the main landing gear and consequently to enhance the braking efficiency of the aircraft and wherein the controller is configured to adjust the relationship between the measured longitudinal deceleration and/or the measured brake pedal position with the deflection of the elevator or the other rear pitch control surface to always keep at least a minimum vertical load on the nose landing gear to provide adequate directional handing qualities during take-off and landing. an acceleration sensor configured to measure a longitudinal deceleration of the aircraft; a brake pedal sensor to measure a position of a brake pedal; and a controller coupled to the acceleration sensor and/or the brake pedal sensor, the system being characterized by the fact that the controller implements a flight control law that enhances braking efficiency of the aircraft through the operation of the elevator or the other rear pitch control surface by using the measured longitudinal deceleration and/or the measured brake pedal position as references to the control law, wherein the controller is configured to selectively control the deflection of the elevator or the other rear pitch control surface to generate a rear downward lift force L HT as a function of the measured longitudinal deceleration and/or the measured brake pedal position to increase the vertical load in the main landing gear and consequently to enhance the braking efficiency of the aircraft and wherein the controller is configured to adjust the relationship between the measured longitudinal deceleration and/or the measured brake pedal position with the deflection of the elevator or the other rear pitch control surface to always keep at least a minimum vertical load on the nose landing gear to provide adequate directional handing qualities during take-off and landing.
A connector for a coaxial cable, comprising: a coupler configured to engage another coaxial cable connector; a body disposed at least partially within the coupler; an outer conductor engager made of a conductive material disposed within the body and the coupler; and a biasing element on an interior of the body; during a coupling of the connector to the coaxial cable: a connector end of the outer conductor engager moves axially relative to the body; the outer conductor engager is compressed by the biasing element; and an interior of the outer conductor engager is inwardly compressed against an outer conductor of the coaxial cable, characterized in that the connector end of the outer conductor engager does not move axially relative to the coupler during a coupling of the connector to the coaxial cable. a coupler configured to engage another coaxial cable connector; a body disposed at least partially within the coupler; an outer conductor engager made of a conductive material disposed within the body and the coupler; and a biasing element on an interior of the body; during a coupling of the connector to the coaxial cable: a connector end of the outer conductor engager moves axially relative to the body; the outer conductor engager is compressed by the biasing element; and an interior of the outer conductor engager is inwardly compressed against an outer conductor of the coaxial cable, a connector end of the outer conductor engager moves axially relative to the body; the outer conductor engager is compressed by the biasing element; and an interior of the outer conductor engager is inwardly compressed against an outer conductor of the coaxial cable,
A light projection device comprising: a mixing tube having an open exit end; a plurality of light sources of different colors, each of the plurality of light sources positioned to emit a light stream toward the open exit end of the mixing tube; a diffuser disposed between the plurality of light sources and the open exit end of the mixing tube, the diffuser configured to diffuse the light streams from the plurality of light sources into a diffused light stream; and a template positioned proximate the open exit end of the mixing tube and configured to shape the diffused light stream from the diffuser into a patterned light stream, the mixing tube having an effective length L EFF configured to mix the diffused light stream into a homogenous color, the effective length being defined as the length of a portion of the mixing tube extending between the diffuser and the template, the intensity of each differently colored light stream being variable so that the patterned light stream is provided in a spectrum of colors. a mixing tube having an open exit end; a plurality of light sources of different colors, each of the plurality of light sources positioned to emit a light stream toward the open exit end of the mixing tube; a diffuser disposed between the plurality of light sources and the open exit end of the mixing tube, the diffuser configured to diffuse the light streams from the plurality of light sources into a diffused light stream; and a template positioned proximate the open exit end of the mixing tube and configured to shape the diffused light stream from the diffuser into a patterned light stream, the mixing tube having an effective length L EFF configured to mix the diffused light stream into a homogenous color, the effective length being defined as the length of a portion of the mixing tube extending between the diffuser and the template, the intensity of each differently colored light stream being variable so that the patterned light stream is provided in a spectrum of colors.