mhurhangee/ep-ind-claims huggingface dataset:
A method for tracking a light-emitting entity in a sample, wherein in a plurality of tracking steps (T i), - the sample is illuminated at illumination positions in the vicinity of a position estimate of a light-emitting entity by focused illumination light having an illumination light distribution comprising a local intensity minimum and at least one intensity increasing area adjacent to the minimum, - detection light emitted from the light emitting entity in response to the illumination light is detected for each of the illumination positions, - a new position estimate of the light-emitting entity is determined based on the detection light once the detection light exceeds a predefined light dose, and - tracking data are generated from the determined position estimates, wherein the tracking data comprise position values (p i) of the light-emitting entity and time points (t i) corresponding to the position values (p i), characterized in that a tracking rate or a tracking time interval (t T) defined as the inverse of the tracking rate is obtained, wherein the tracking steps (T i) are performed, such that each time interval (Δt) between consecutive time points (t i) is equal to the tracking time interval (t T) or a multiple of said tracking time interval (t T), wherein the tracking steps (T i) are performed in a temporal sequence determined by the tracking rate or the tracking time interval (t T). - the sample is illuminated at illumination positions in the vicinity of a position estimate of a light-emitting entity by focused illumination light having an illumination light distribution comprising a local intensity minimum and at least one intensity increasing area adjacent to the minimum, - detection light emitted from the light emitting entity in response to the illumination light is detected for each of the illumination positions, - a new position estimate of the light-emitting entity is determined based on the detection light once the detection light exceeds a predefined light dose, and - tracking data are generated from the determined position estimates, wherein the tracking data comprise position values (p i) of the light-emitting entity and time points (t i) corresponding to the position values (p i), characterized in that a tracking rate or a tracking time interval (t T) defined as the inverse of the tracking rate is obtained, wherein the tracking steps (T i) are performed, such that each time interval (Δt) between consecutive time points (t i) is equal to the tracking time interval (t T) or a multiple of said tracking time interval (t T), wherein the tracking steps (T i) are performed in a temporal sequence determined by the tracking rate or the tracking time interval (t T).
A landing gear comprising: a shock strut assembly; and a bogie beam assembly (6, 6') coupled to the shock strut assembly, the bogie beam assembly (6,6') comprising a bogie beam (8, 8') comprising an elongated main body portion (14, 14') having an end portion (16, 16') disposed between a forward sleeve portion (18, 18') and an aft sleeve portion (20, 20') that are transverse to the elongated main body portion; and an axle (10, 10') extending through the forward sleeve portion (18, 18'), the end portion (16, 16'), and the aft sleeve portion (20, 20'); characterised by the bogie beam assembly (6, 6') further comprising at least one retention bolt (12, 12a, 12b) secured through at least one of: the forward sleeve portion (18, 18') and the axle; and the aft sleeve portion (20, 20') and the axle (10, 10'). a shock strut assembly; and a bogie beam assembly (6, 6') coupled to the shock strut assembly, the bogie beam assembly (6,6') comprising a bogie beam (8, 8') comprising an elongated main body portion (14, 14') having an end portion (16, 16') disposed between a forward sleeve portion (18, 18') and an aft sleeve portion (20, 20') that are transverse to the elongated main body portion; and an axle (10, 10') extending through the forward sleeve portion (18, 18'), the end portion (16, 16'), and the aft sleeve portion (20, 20'); characterised by the bogie beam assembly (6, 6') further comprising at least one retention bolt (12, 12a, 12b) secured through at least one of: the forward sleeve portion (18, 18') and the axle; and the aft sleeve portion (20, 20') and the axle (10, 10'). the forward sleeve portion (18, 18') and the axle; and the aft sleeve portion (20, 20') and the axle (10, 10').
A method for transmitting an Acknowledgement/Negative Acknowledgement, ACK/NACK, in a Long Term Evolution-Advanced, LTE-A, wireless communication system where carrier aggregation with cross-carrier scheduling is configured, the method comprising, at a user equipment, UE, configured with two or more carriers: in a case where, irrespective of a number of physical downlink control channels, PDCCHs, actually transmitted by a base station, only one PDCCH including a carrier indicator field, CIF, is received, receiving a physical downlink shared channel, PDSCH, scheduled by the received PDCCH through one of the two or more carriers according to the value of the CIF; and transmitting the ACK/NACK for the PDSCH via a physical uplink control channel, PUCCH, wherein if the value of the CIF indicates a primary carrier, a first PUCCH format is used for transmission of the ACK/NACK, and if the value of the CIF indicates a carrier other than the primary carrier, a second PUCCH format, different from the first PUCCH format, is used for transmission of the ACK/NACK. in a case where, irrespective of a number of physical downlink control channels, PDCCHs, actually transmitted by a base station, only one PDCCH including a carrier indicator field, CIF, is received, receiving a physical downlink shared channel, PDSCH, scheduled by the received PDCCH through one of the two or more carriers according to the value of the CIF; and transmitting the ACK/NACK for the PDSCH via a physical uplink control channel, PUCCH, wherein if the value of the CIF indicates a primary carrier, a first PUCCH format is used for transmission of the ACK/NACK, and if the value of the CIF indicates a carrier other than the primary carrier, a second PUCCH format, different from the first PUCCH format, is used for transmission of the ACK/NACK.
A processor system for a radio receiver, the processor system being adapted to process Direct Sequence Spread Spectrum (DS-SS) signals, said processor system having a demodulator, the demodulator comprising of a digitiser for digitising a received signal at a predetermined sample rate, said received signal comprising of a sequence of chips arriving at the processor at a known rate; and at least one correlator for correlating the digitised signal with a known signal, the correlator being arranged to have one tap per chip; the digitiser being arranged to take a plurality of samples of each chip, at differing points thereon as compared to the sample points on an adjacent chip, and to have a sample rate that is not an integer multiple of the chip rate; characterised in that the processor further incorporates a chip-matched filter arranged to filter the output of the digitiser and to provide an output sample for each input sample, and a sample selection unit arranged to receive outputs from the CMF and to select, for input to each tap of the correlator, the CMF output nearest in time to a desired ideal time in relation to a timing reference point on the chip, and wherein the CMF is matched to a predetermined chip waveform expected at the processor.
A method for allocation of time frequency resources comprising the following steps performed by a first base station: receiving, at the first base station, an uplink control channel transmission from a first wireless terminal not connected to the first base station, wherein the first wireless terminal is connected to a second base station; determining a set of time-frequency resources for the uplink control channel transmission from the first wireless terminal connected to the second base station; based on the determination, choosing a new set of time-frequency resources, wherein the new set of time-frequency resources are orthogonal to or only partially overlap the set of time-frequency resources for the uplink control channel transmission from the first wireless terminal connected to the second base station; and signaling the new set of time-frequency resources to a second wireless terminal connected to the first base station. receiving, at the first base station, an uplink control channel transmission from a first wireless terminal not connected to the first base station, wherein the first wireless terminal is connected to a second base station; determining a set of time-frequency resources for the uplink control channel transmission from the first wireless terminal connected to the second base station; based on the determination, choosing a new set of time-frequency resources, wherein the new set of time-frequency resources are orthogonal to or only partially overlap the set of time-frequency resources for the uplink control channel transmission from the first wireless terminal connected to the second base station; and signaling the new set of time-frequency resources to a second wireless terminal connected to the first base station.
An insulated wire, comprising: a conductor; a foamed insulating layer obtained by foaming a thermosetting resin; and a non-foamed filled layer on the inner and/or outer circumference of the foamed insulating layer, wherein the filled layer contains a partial discharge resistant material in an amount of 20% to 30% by mass relative to a resin; and wherein the foamed insulating layer has a thickness of 30% to 90% of the sum of the thickness of the foamed insulating layer and the thickness of the filled layer, and wherein the foamed insulating layer has an average bubble size of 5 μm or less, as determined by observing the cross-sectional surface of the foamed wire with a scanning electron microscope, whereby the diameters of 20 bubbles that are arbitrarily selected from the cross-sectional surface observed with the SEM are determined and the average value thereof is obtained, and wherein the partial discharge resistant material is contained in the filled layer on the inner circumference, or only in the filled layers on the inner circumference and the outer circumference, or only in the filled layer on the outer circumference, and wherein a foaming magnification of the foamed insulating layer is 1.4 times or more and 5.0 times or less; wherein the partial discharge resistant material is selected from microparticles of silica, titanium dioxide, alumina, barium titanate, zinc oxide, and gallium nitride. a conductor; a foamed insulating layer obtained by foaming a thermosetting resin; and a non-foamed filled layer on the inner and/or outer circumference of the foamed insulating layer, wherein the filled layer contains a partial discharge resistant material in an amount of 20% to 30% by mass relative to a resin; and wherein the foamed insulating layer has a thickness of 30% to 90% of the sum of the thickness of the foamed insulating layer and the thickness of the filled layer, and wherein the foamed insulating layer has an average bubble size of 5 μm or less, as determined by observing the cross-sectional surface of the foamed wire with a scanning electron microscope, whereby the diameters of 20 bubbles that are arbitrarily selected from the cross-sectional surface observed with the SEM are determined and the average value thereof is obtained, and wherein the partial discharge resistant material is contained in the filled layer on the inner circumference, or only in the filled layers on the inner circumference and the outer circumference, or only in the filled layer on the outer circumference, and wherein a foaming magnification of the foamed insulating layer is 1.4 times or more and 5.0 times or less; wherein the partial discharge resistant material is selected from microparticles of silica, titanium dioxide, alumina, barium titanate, zinc oxide, and gallium nitride.
A method for accessing, from a third-party communicating entity, a communication managed by a host communicating entity and established between the host communicating entity and at least one participating communicating entity via a packet network comprising the following steps: a transmission of a message from the third-party communicating entity to the host communicating entity, the message comprising at least one parameter associated with an identifier of a participating communicating entity, and characterized in that it comprises: an application of a restrictive mixing policy for communication flows exchanged between the participating communicating entity whose identifier is associated with the parameter and the third-party communicating entity, whereby no communication flow emitted by the participating communicating entity is received by the third-party communicating entity and no communication flow emitted by the third-party communicating entity is received by the participating communicating entity, said policy being determined by the parameter and the identifier associated with the parameter. a transmission of a message from the third-party communicating entity to the host communicating entity, the message comprising at least one parameter associated with an identifier of a participating communicating entity, and characterized in that it comprises: an application of a restrictive mixing policy for communication flows exchanged between the participating communicating entity whose identifier is associated with the parameter and the third-party communicating entity, whereby no communication flow emitted by the participating communicating entity is received by the third-party communicating entity and no communication flow emitted by the third-party communicating entity is received by the participating communicating entity, said policy being determined by the parameter and the identifier associated with the parameter. an application of a restrictive mixing policy for communication flows exchanged between the participating communicating entity whose identifier is associated with the parameter and the third-party communicating entity, whereby no communication flow emitted by the participating communicating entity is received by the third-party communicating entity and no communication flow emitted by the third-party communicating entity is received by the participating communicating entity, said policy being determined by the parameter and the identifier associated with the parameter.
A cushion for a respiratory mask, the cushion comprising: a face contacting portion comprising a locating region for locating a user's face relative to the respiratory mask and a sealing region for providing a seal against a user's face; a non-face contacting portion; characterized in that the cushion further comprises a stabilizing layer; wherein the sealing region surrounds the locating region, wherein the locating region comprises a textile material, and wherein the stabilizing layer comprises a layer of elastomeric material that supports at least a portion of the locating region. a face contacting portion comprising a locating region for locating a user's face relative to the respiratory mask and a sealing region for providing a seal against a user's face; a non-face contacting portion; characterized in that the cushion further comprises a stabilizing layer; wherein the sealing region surrounds the locating region, wherein the locating region comprises a textile material, and wherein the stabilizing layer comprises a layer of elastomeric material that supports at least a portion of the locating region.
A method including: - providing a substrate with a preformatted structure with structural elements arranged in a matrix, wherein the matrix extends in an X-direction and Y-direction; - providing a processing head - providing at least one sensor which is connected with the processing head; - scanning the substrate with the at least one sensor; - providing at least one signal with the at least one sensor during the scanning; characterised in that: the at least one sensor comprises a camera which comprises at least one series of sensors arranged along a main line that includes an angle with the X-direction and with the Y-direction, wherein the at least one signal that is provided by the camera provides during the scanning at least one one-dimensional camera signal which, by virtue of the angle between the main line and the X-direction and the Y-direction, contains spatially separated X-position information embodied as m spatially separated X-signals, and wherein the camera signal, by virtue of the angle between the main line and the X-direction and the Y-direction, contains spatially separated Y-position information embodied as n spatially separated Y-signals, wherein the method additionally includes: - signal processing the camera signal to separate the X-position information and the Y-position information from the camera signal for real-time determining at least the X-position and the Y-position of the structure with respect to the camera. - providing a substrate with a preformatted structure with structural elements arranged in a matrix, wherein the matrix extends in an X-direction and Y-direction; - providing a processing head - providing at least one sensor which is connected with the processing head; - scanning the substrate with the at least one sensor; - providing at least one signal with the at least one sensor during the scanning; the at least one sensor comprises a camera which comprises at least one series of sensors arranged along a main line that includes an angle with the X-direction and with the Y-direction, wherein the at least one signal that is provided by the camera provides during the scanning at least one one-dimensional camera signal which, by virtue of the angle between the main line and the X-direction and the Y-direction, contains spatially separated X-position information embodied as m spatially separated X-signals, and wherein the camera signal, by virtue of the angle between the main line and the X-direction and the Y-direction, contains spatially separated Y-position information embodied as n spatially separated Y-signals, - signal processing the camera signal to separate the X-position information and the Y-position information from the camera signal for real-time determining at least the X-position and the Y-position of the structure with respect to the camera.
A method (200, 400, 600) of manufacturing an ink sensing lead frame assembly carrying an integrated circuit assembly configured to perform the ink sensing, the method (200, 400, 600) comprising: encapsulating a first circuit component (106, 306, 506) and a first portion of a trace array (110, 310, 510) of a pre-molded lead frame (104, 304, 504, 704, 804) for the integrated circuit assembly by a first insert molding component (112, 312, 512a, 512b, 712, 812), wherein the trace array (110, 310, 510) connects the first circuit component (106, 306, 506) to a second circuit component (108, 308, 508) of the pre-molded lead frame (104, 304, 504, 704, 804) and wherein the first insert molding component (112, 312, 512a, 512b, 712, 812) electrically isolates traces in the trace array (110, 310, 510) to prevent an electrical short in the trace array (110, 310, 510); and encapsulating a second portion of the trace array (110, 310, 510) by a second insert molding component (114, 314, 514, 714, 814), wherein the second portion of the trace array (110, 310, 510) is left exposed by the first insert molding component (112, 312, 512a, 512b, 712, 812). encapsulating a first circuit component (106, 306, 506) and a first portion of a trace array (110, 310, 510) of a pre-molded lead frame (104, 304, 504, 704, 804) for the integrated circuit assembly by a first insert molding component (112, 312, 512a, 512b, 712, 812), wherein the trace array (110, 310, 510) connects the first circuit component (106, 306, 506) to a second circuit component (108, 308, 508) of the pre-molded lead frame (104, 304, 504, 704, 804) and wherein the first insert molding component (112, 312, 512a, 512b, 712, 812) electrically isolates traces in the trace array (110, 310, 510) to prevent an electrical short in the trace array (110, 310, 510); and encapsulating a second portion of the trace array (110, 310, 510) by a second insert molding component (114, 314, 514, 714, 814), wherein the second portion of the trace array (110, 310, 510) is left exposed by the first insert molding component (112, 312, 512a, 512b, 712, 812).
Method of braking a motor vehicle fitted with an electric or hybrid propulsion system, and including a hydraulic braking system, an electric braking system allowing the recovery of electrical energy, a brake pedal, vehicle driver assistance systems, and an electronic vehicle stability control system, characterized in that the method comprises the following steps: - determining a torque setpoint for the pedal (c_pédale) relating to the position or the force exerted on the brake pedal, - determining a torque setpoint relating to the driver assistance systems (c_aides), said driver assistance systems including an adaptive speed regulator that generates one of the torque setpoints, - selection of one torque setpoint from between a pedal torque setpoint (c_pédale) relating to the position or the force exerted on the brake pedal and a torque setpoint relating to the driver assistance systems (c_aides), - formulation of a hydraulic braking torque setpoint (c_sub), independent of the state of the pedal, by means of the electric or hybrid propulsion system, - acquisition of data (d_stabilité) relating to the stability of the vehicle, - formulation of a hydraulic braking torque setpoint (c_fr_hyd) and an electric braking torque setpoint (c_fr_elec) intended for the electric or hybrid propulsion system, on the basis of the selected torque setpoint (c_sel), the independent hydraulic braking torque setpoint (c_sub) and the data relating to the stability of the vehicle (d_stabilité). - determining a torque setpoint for the pedal (c_pédale) relating to the position or the force exerted on the brake pedal, - determining a torque setpoint relating to the driver assistance systems (c_aides), said driver assistance systems including an adaptive speed regulator that generates one of the torque setpoints, - selection of one torque setpoint from between a pedal torque setpoint (c_pédale) relating to the position or the force exerted on the brake pedal and a torque setpoint relating to the driver assistance systems (c_aides), - formulation of a hydraulic braking torque setpoint (c_sub), independent of the state of the pedal, by means of the electric or hybrid propulsion system, - acquisition of data (d_stabilité) relating to the stability of the vehicle, - formulation of a hydraulic braking torque setpoint (c_fr_hyd) and an electric braking torque setpoint (c_fr_elec) intended for the electric or hybrid propulsion system, on the basis of the selected torque setpoint (c_sel), the independent hydraulic braking torque setpoint (c_sub) and the data relating to the stability of the vehicle (d_stabilité).