mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a wireless transmit/receive unit, WTRU (102, 220), the method comprising: operating in a wake-up radio, WUR, on-state, wherein, in the WUR on-state, the WTRU simultaneously operates in a primary connectivity radio, PCR, off-state, wherein, in a WUR off-state, the WTRU simultaneously operates in PCR on-state, and wherein the WTRU has a lower power consumption when operating in the WUR on-state than when operating in the PCR on-state; receiving a WUR frame from an access point, AP, wherein the WUR frame comprises a multicast counter, MC, field; determining a received MC value based on the MC field; determining whether the received MC value is a same value as a stored MC value; responsive to a determination that the received MC value is the same value as the stored MC value, operating in the WUR on-state; and responsive to a determination that the received MC value is not the same value as the stored MC value, entering the PCR on-state. operating in a wake-up radio, WUR, on-state, wherein, in the WUR on-state, the WTRU simultaneously operates in a primary connectivity radio, PCR, off-state, wherein, in a WUR off-state, the WTRU simultaneously operates in PCR on-state, and wherein the WTRU has a lower power consumption when operating in the WUR on-state than when operating in the PCR on-state; receiving a WUR frame from an access point, AP, wherein the WUR frame comprises a multicast counter, MC, field; determining a received MC value based on the MC field; determining whether the received MC value is a same value as a stored MC value; responsive to a determination that the received MC value is the same value as the stored MC value, operating in the WUR on-state; and responsive to a determination that the received MC value is not the same value as the stored MC value, entering the PCR on-state.
A ring laser gyroscope, comprising: a traveling-wave resonator cavity comprising three or more mirrors (102-1, 102-2, 102-3); a gain medium positioned in the traveling-wave resonator cavity between two mirrors of the three or more mirrors (102-1, 102-2, 102-3), wherein the gain medium is a solid-state gain medium or a nonlinear optical medium; a first pump laser configured to pump the gain medium in a first direction and generate a first lasing signal that traverses the traveling-wave resonator cavity; a second pump laser configured to pump the gain medium in a second direction and generate a second lasing signal that traverses the traveling-wave resonator cavity in a direction opposite the first lasing signal; a first photodetector configured to measure a power level of the first lasing signal; and a second photodetector configured to measure a power level of the second lasing signal; characterized in further comprising: at least one processor configured to adjust a power level of the first pump laser and/or a power level of the second pump laser based on the measured power level of the first lasing signal and the measured power level of the second lasing signal. a traveling-wave resonator cavity comprising three or more mirrors (102-1, 102-2, 102-3); a gain medium positioned in the traveling-wave resonator cavity between two mirrors of the three or more mirrors (102-1, 102-2, 102-3), wherein the gain medium is a solid-state gain medium or a nonlinear optical medium; a first pump laser configured to pump the gain medium in a first direction and generate a first lasing signal that traverses the traveling-wave resonator cavity; a second pump laser configured to pump the gain medium in a second direction and generate a second lasing signal that traverses the traveling-wave resonator cavity in a direction opposite the first lasing signal; a first photodetector configured to measure a power level of the first lasing signal; and a second photodetector configured to measure a power level of the second lasing signal;
A data center thermosiphon cooling system, comprising: a plurality of evaporator sections, each evaporator section configured to thermally couple to one or more heat-generating devices mountable in a rack of a data center; a condenser module that comprises a heat transfer surface and is mounted internal to the rack; wherein the plurality of evaporator sections comprise a plurality of fluid channels that each comprise a liquid phase inlet to deliver a liquid phase of a working fluid from the condenser module to the respective evaporator section and a liquid phase outlet to deliver a mixed-phase of the working fluid from the respective evaporator section to the condenser module, the mixed-phase of the working fluid comprising heat transferred from the one or more heat-generating devices to the working fluid through the respective evaporator section, the system further comprising a plurality of server shells that at least partially enclose a plurality of server boards that support the one or more heat-generating devices, the server shells defining the plurality of fluid channels therebetween. a plurality of evaporator sections, each evaporator section configured to thermally couple to one or more heat-generating devices mountable in a rack of a data center; a condenser module that comprises a heat transfer surface and is mounted internal to the rack; wherein the plurality of evaporator sections comprise a plurality of fluid channels that each comprise a liquid phase inlet to deliver a liquid phase of a working fluid from the condenser module to the respective evaporator section and a liquid phase outlet to deliver a mixed-phase of the working fluid from the respective evaporator section to the condenser module, the mixed-phase of the working fluid comprising heat transferred from the one or more heat-generating devices to the working fluid through the respective evaporator section, the system further comprising a plurality of server shells that at least partially enclose a plurality of server boards that support the one or more heat-generating devices, the server shells defining the plurality of fluid channels therebetween.
A propulsion system (14, 16) for an aircraft, the propulsion system (14, 16) comprising a gas turbine engine including an engine core and a fan coupled to the engine core, the fan configured to discharge pressurized bypass air that is passed around the engine core, and a nacelle surrounding a portion of the gas turbine engine, the nacelle including a strut that extends away from the gas turbine engine and a cooling unit housed in the strut, the cooling unit fluidly coupled to the gas turbine engine to cool fluid or gas from the gas turbine engine and return the cooled fluid or gas to the gas turbine engine, wherein the cooling unit includes a duct, a heat exchanger positioned within the duct, and a diverter valve, wherein the duct comprises an inlet, an outlet and a flow path, characterized in that the diverter valve is movable within the duct from a first position arranged to direct pressurized bypass air moving through the duct into contact with the heat exchanger to a second position arranged to divert pressurized bypass air conducted by the duct around the heat exchanger along the flow path such that the temperature of the pressurized bypass air remains substantially the same as the pressurized bypass air flows away from the inlet of the duct, around the heat exchanger, and to the outlet of the duct along the flow path.
A blood separation device comprising: a centrifugal separator; a spinning membrane separator drive unit; a pump system; and a controller configured to control the pump system to convey blood into the centrifugal separator, control the centrifugal separator to separate plasma from the blood, and control the pump system to collect at least a portion of the plasma without recirculating any of the separated plasma through the centrifugal separator. a centrifugal separator; a spinning membrane separator drive unit; a pump system; and a controller configured to control the pump system to convey blood into the centrifugal separator, control the centrifugal separator to separate plasma from the blood, and control the pump system to collect at least a portion of the plasma without recirculating any of the separated plasma through the centrifugal separator. control the pump system to convey blood into the centrifugal separator, control the centrifugal separator to separate plasma from the blood, and control the pump system to collect at least a portion of the plasma without recirculating any of the separated plasma through the centrifugal separator.
A method of handling control PDUs in a wireless communications system, which operates in Acknowledged Mode, AM, said wireless communications system comprising a communications device having a Radio Link Control entity, in the following referred to as RLC entity, said RLC entity comprising a transmitting side and a receiving side, the method characterised by: re-establishing only the receiving side; discarding a first control PDU corresponding to the receiving side; and further retaining and not discarding a second control PDU corresponding to the transmitting side, wherein the first control PDU corresponding to the receiving side is an ACK/NACK Status PDU or a Change Window Size Status PDU or an MRW ACK Status PDU or a RESET ACK PDU; and wherein the second control PDU corresponding to the transmitting side is an MRW PDU or a RESET PDU. re-establishing only the receiving side; discarding a first control PDU corresponding to the receiving side; and further retaining and not discarding a second control PDU corresponding to the transmitting side, wherein the first control PDU corresponding to the receiving side is an ACK/NACK Status PDU or a Change Window Size Status PDU or an MRW ACK Status PDU or a RESET ACK PDU; and wherein the second control PDU corresponding to the transmitting side is an MRW PDU or a RESET PDU.
Method for producing a shell wall for a laundry drum for a household appliance for the care of items of laundry, having the following steps: - providing a metallic plate; - shaping the metallic plate to form a hollow cylinder; - generating an expansion region, bulging radially outward, in the hollow cylinder, wherein the expansion region is generated completely circulating around a longitudinal axis of the hollow cylinder and an edge (6, 7) of the expansion region circulating around the longitudinal axis is generated at a distance from a hollow cylinder edge (4, 5) of the hollow cylinder so that a ring-shaped edge strip (8, 9) of the hollow cylinder is formed between the edge (6, 7) of the expansion region and the hollow cylinder edge; characterised by the following steps: - generating at least one embossed structure (13, 14) with a plurality of embossing elements in the expansion region; - generating at least one compensation embossing in the edge strip and/or in a conical segment (10, 12) of the expansion region in order to locally adjust the height (h) of the edge strip (8, 9) measured in the axial direction. - providing a metallic plate; - shaping the metallic plate to form a hollow cylinder; - generating an expansion region, bulging radially outward, in the hollow cylinder, wherein the expansion region is generated completely circulating around a longitudinal axis of the hollow cylinder and an edge (6, 7) of the expansion region circulating around the longitudinal axis is generated at a distance from a hollow cylinder edge (4, 5) of the hollow cylinder so that a ring-shaped edge strip (8, 9) of the hollow cylinder is formed between the edge (6, 7) of the expansion region and the hollow cylinder edge; - generating at least one embossed structure (13, 14) with a plurality of embossing elements in the expansion region; - generating at least one compensation embossing in the edge strip and/or in a conical segment (10, 12) of the expansion region in order to locally adjust the height (h) of the edge strip (8, 9) measured in the axial direction.
An oxidized Aβ peptide capable of inhibiting Aβ peptide aggregation wherein one or more amino acid residues of an Aβ peptide have been oxidized, wherein at least His13 or His 14 is oxidized and wherein the oxidized His has a dehydroimidazolone ring or a hydroxyimidazolone ring.
Service switching device with an insulating housing and with a connection terminal arrangement for the terminal connection of a connecting conductor, wherein the connection terminal arrangement has: - a connecting conductor with an annular terminal lug and - a connecting plate mounted in the device interior and - a thread element and - a clamping screw, which has a screw head and a screw shaft, the screw shaft passing through the annular terminal lug and being in threaded engagement with the thread element during the terminal connection of the connecting conductor, and the connection terminal arrangement containing - a terminal accommodating area with an insertion opening for the connecting conductor and with an access opening for the screw head for actuation thereof, characterized in that the connecting plate has a holding section which locks the thread element, wherein, via the holding section, the tightening torque of the clamping screw can be absorbed by the connecting plate. - a connecting conductor with an annular terminal lug and - a connecting plate mounted in the device interior and - a thread element and - a clamping screw, which has a screw head and a screw shaft, the screw shaft passing through the annular terminal lug and being in threaded engagement with the thread element during the terminal connection of the connecting conductor, and the connection terminal arrangement containing - a terminal accommodating area with an insertion opening for the connecting conductor and with an access opening for the screw head for actuation thereof,
A printer, comprising: a paper feed shaft unit configured to hold a roll of recording paper on which printing is to be performed, wherein the paper feed shaft unit includes a helical projection part at a surface of the paper feed shaft unit; and an arm unit connected to an end of the paper feed shaft unit in such a manner as to allow rotation of the paper feed shaft unit, wherein the helical projection part is helically formed so as to be directed toward the end of the paper feed shaft unit. a paper feed shaft unit configured to hold a roll of recording paper on which printing is to be performed, wherein the paper feed shaft unit includes a helical projection part at a surface of the paper feed shaft unit; and an arm unit connected to an end of the paper feed shaft unit in such a manner as to allow rotation of the paper feed shaft unit, wherein the helical projection part is helically formed so as to be directed toward the end of the paper feed shaft unit.
A cooling head for cooling a heat source with a working medium, the cooling head being connectable with a heat exchanger configured to cool down the working medium, the cooling head comprising: a casing; a base configured to be in contact with the heat source in order to absorb the heat generated from the heat source and to transfer the heat to the working medium, wherein an active space is defined by the base and the casing collaboratively and the active space is configured to be filled with the working medium; and a pump installed in the casing and comprising an impeller, wherein the impeller is disposed within the active space and comprises a seat part and a hollow part, wherein the seat part divides the active space into a heat-absorbing space (51 in which the heat absorbed by the base is transferred to the working medium, and a drainage space, and wherein the hollow part is configured to fluidly couple the heat-absorbing space and the drainage space and this in a way that, when the impeller is driven, the working medium is transferred from the heat-absorbing space to the drainage space through the hollow part, characterized in that the seat part side which is directly in contact with the heat-absorbing space is directly facing the base. a casing; a base configured to be in contact with the heat source in order to absorb the heat generated from the heat source and to transfer the heat to the working medium, wherein an active space is defined by the base and the casing collaboratively and the active space is configured to be filled with the working medium; and a pump installed in the casing and comprising an impeller, wherein the impeller is disposed within the active space and comprises a seat part and a hollow part, wherein the seat part divides the active space into a heat-absorbing space (51 in which the heat absorbed by the base is transferred to the working medium, and a drainage space, and wherein the hollow part is configured to fluidly couple the heat-absorbing space and the drainage space and this in a way that, when the impeller is driven, the working medium is transferred from the heat-absorbing space to the drainage space through the hollow part, characterized in that the seat part side which is directly in contact with the heat-absorbing space is directly facing the base.
A beam steering device comprising: a multiplexer configured to simultaneously receive input lights having first different wavelengths, and multiplex the received input lights into a multiplexed light; an optical splitter configured to split the multiplexed light, each of the split light having multiple wavelengths; an optical modulator configured to modulate the split light; and an emitter comprising a plurality of waveguides extending in a first direction, the waveguides further comprising a grating structure, the waveguides configured to simultaneously emit output lights having second different wavelengths to different points arranged in the first direction, based on the modulated light, wherein the characteristics or direction of emitting output light from each waveguide varies according to the grating structure; and characterized in that the optical modulator is adapted to modulate at least one of the phase and amplitude of the split light to different degrees to adjust the wavefronts of the emitter lights output from the emitter to vary the directions of the emitted output lights in a second direction perpendicular to the first direction. a multiplexer configured to simultaneously receive input lights having first different wavelengths, and multiplex the received input lights into a multiplexed light; an optical splitter configured to split the multiplexed light, each of the split light having multiple wavelengths; an optical modulator configured to modulate the split light; and an emitter comprising a plurality of waveguides extending in a first direction, the waveguides further comprising a grating structure, the waveguides configured to simultaneously emit output lights having second different wavelengths to different points arranged in the first direction, based on the modulated light, wherein the characteristics or direction of emitting output light from each waveguide varies according to the grating structure; and characterized in that the optical modulator is adapted to modulate at least one of the phase and amplitude of the split light to different degrees to adjust the wavefronts of the emitter lights output from the emitter to vary the directions of the emitted output lights in a second direction perpendicular to the first direction.
An apparatus for processing a depth map, the apparatus comprising: a depth map source for providing a depth map for an image, the depth map comprising depth values for pixels of the depth map; a confidence map source for providing a confidence map comprising confidence values for pixels of the depth map, the confidence value for a pixel designating the pixel as a confident pixel or a non-confident pixel, a confident pixel having a depth value meeting a reliability criterion and a non-confident pixel having a depth value not meeting the reliability criterion; a depth modifier arranged to perform a depth modification operation comprising modifying depth values for pixels of the depth map, the depth modifier being arranged to set a modified depth value for a first pixel to a current depth value for the first pixel if the first pixel is designated as a confident pixel or if there are no confident pixels within a neighborhood set of pixels for the first pixel, and characterized by to otherwise set the modified value to a highest depth value of the current depth value and a depth value determined as a function of depth values of pixels within the neighborhood set of pixels that are designated as confident pixels. a depth map source for providing a depth map for an image, the depth map comprising depth values for pixels of the depth map; a confidence map source for providing a confidence map comprising confidence values for pixels of the depth map, the confidence value for a pixel designating the pixel as a confident pixel or a non-confident pixel, a confident pixel having a depth value meeting a reliability criterion and a non-confident pixel having a depth value not meeting the reliability criterion; a depth modifier arranged to perform a depth modification operation comprising modifying depth values for pixels of the depth map, the depth modifier being arranged to set a modified depth value for a first pixel to a current depth value for the first pixel if the first pixel is designated as a confident pixel or if there are no confident pixels within a neighborhood set of pixels for the first pixel, and characterized by to otherwise set the modified value to a highest depth value of the current depth value and a depth value determined as a function of depth values of pixels within the neighborhood set of pixels that are designated as confident pixels.
A method of controlling a vehicle including a front left wheel, a rear left wheel, a front right wheel, and a rear right wheel, the method comprising the steps of: providing a system having a plurality of brakes (42, 44, 46, 48) and a curve detecting mechanism, each brake of the plurality of brakes (42, 44, 46, 48) being configured to slow rotation of a respective vehicle wheel (20, 22, 24, 26), detecting a curve in a forward travel path of the vehicle using the curve detecting mechanism and determining a direction of the curve after detecting the curve, and pre-filling brakes (42, 44, 46, 48) in response to the detection of a curve; characterized in that the step of pre-filling involves only pre-filling the brake of the front right wheel and the brake of the rear left wheel when a left hand curve is detected and only pre-filling the brake of the front left wheel and the brake of the rear right wheel when a right hand curve is detected; and the method further comprises the step of determining if the vehicle is oversteering or understeering as the vehicle is traversing the detected curve. providing a system having a plurality of brakes (42, 44, 46, 48) and a curve detecting mechanism, each brake of the plurality of brakes (42, 44, 46, 48) being configured to slow rotation of a respective vehicle wheel (20, 22, 24, 26), detecting a curve in a forward travel path of the vehicle using the curve detecting mechanism and determining a direction of the curve after detecting the curve, and pre-filling brakes (42, 44, 46, 48) in response to the detection of a curve; characterized in that the step of pre-filling involves only pre-filling the brake of the front right wheel and the brake of the rear left wheel when a left hand curve is detected and only pre-filling the brake of the front left wheel and the brake of the rear right wheel when a right hand curve is detected; and the method further comprises the step of determining if the vehicle is oversteering or understeering as the vehicle is traversing the detected curve.