mhurhangee/patent-ind-claim-en huggingface dataset:
Method for converting an impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain into a filter definition signal, comprising: filtering the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain to obtain a plurality of complex valued subband signals forming the filter definition signal, wherein each complex valued subband signal of the plurality of complex valued subband signals corresponds to an impulse response for a subband filter for a subband signal to be filtered by the subband filter , wherein at least one of the complex valued subband signals of the plurality of complex valued subband signals comprises at least two different non-vanishing values, wherein each complex valued subband signal of the plurality of complex valued subband signals is shorter than the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain, wherein the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain is a time domain FIR (Finite Impulse Response) filter, and wherein the method for converting comprises performing an extension with zeroes of the time domain FIR filter, wherein L complex valued subband signals are output as the plurality of complex valued subband signals, wherein L is equal to 64. filtering the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain to obtain a plurality of complex valued subband signals forming the filter definition signal, wherein each complex valued subband signal of the plurality of complex valued subband signals corresponds to an impulse response for a subband filter for a subband signal to be filtered by the subband filter , wherein at least one of the complex valued subband signals of the plurality of complex valued subband signals comprises at least two different non-vanishing values, wherein each complex valued subband signal of the plurality of complex valued subband signals is shorter than the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain, wherein the impulse response signal indicative of the amplitude/frequency filter characteristic in the time domain is a time domain FIR (Finite Impulse Response) filter, and wherein the method for converting comprises performing an extension with zeroes of the time domain FIR filter, wherein L complex valued subband signals are output as the plurality of complex valued subband signals, wherein L is equal to 64.
An electronic device comprising: a first housing ; a second housing , wherein the second housing includes a fan , an inlet , and actuators ; and a hinge , wherein the hinge rotatably couples the first housing to the second housing, wherein when the first housing is rotated over the inlet, the inlet is lowered to create a gap between the inlet and the first housing. a first housing ; a second housing , wherein the second housing includes a fan , an inlet , and actuators ; and a hinge , wherein the hinge rotatably couples the first housing to the second housing, wherein when the first housing is rotated over the inlet, the inlet is lowered to create a gap between the inlet and the first housing.
Internal combustion engine with an open-loop or closed-loop control device , wherein at least one combustion chamber of the internal combustion engine is formed to burn a fuel-air mixture with at least one combustion parameter that can be influenced by the open-loop or closed-loop control device , wherein the open-loop or closed-loop control device has an emission control circuit, which is formed to control, via a functional relationship, the at least one combustion parameter as a substitute variable for the NO x emission through at least one actuator that influences the at least one combustion parameter such that at least one combustion parameter can be set for each target power or actual power of the internal combustion engine , characterized in that the functional relationship determines the boost pressure (p 2 ') on the basis of a desired value of the power (P mech ), the NOx emissions and an exhaust back pressure (p 3 ') and is stored in the open-loop or closed-loop control device , whereby the functional relationship takes into account an influence of a change in the exhaust back pressure (p 3 ') acting on the at least one combustion chamber .
A modified hydrocarbon resin comprising 20 mass% to 70 mass% of a 1,3-pentadiene monomer unit, 10 mass% to 35 mass% of a C4-C6 alicyclic monoolefin monomer unit, 5 mass% to 30 mass% of a C4-C8 acyclic monoolefin monomer unit, 0 mass% to 1 mass% of an alicyclic diolefin monomer unit, and 10 mass% to 40 mass% of an aromatic monoolefin monomer unit, and containing a carboxyl group or acid anhydride group, wherein a weight average molecular weight (Mw) of the resin is from 1,000 to 4,000; a Z average molecular weight (Mz) of the resin is from 2,500 to 10,000; a ratio (Mz/Mw) between the Z average molecular weight and the weight average molecular weight is from 1.5 to 2.5; a Gardner color scale of a 50 mass% toluene solution is 5 or less (measured in accordance with JIS K 0071-2); a softening point of the resin is 30°C or more (measured in accordance with JIS K 6863); an acid value of the resin is from 1 KOHmg/g to 20 KOHmg/g (measured in accordance with JIS K 0070); and wherein the ratio of the total amount of the 2-methyl-2-butene, isobutylene and diisobutylene in the C4-C8 acyclic monoolefin is 50 mass% or more.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: transmitting first information including a positioning reference signal, PRS, resource information with a best time of arrival, ToA, or propagation delay time measurement quality measured by the UE ; receiving, after the transmission of the first information, second information including a configuration for a reference transmission point, TP; receiving a plurality of PRSs from a plurality of TPs including the reference TP; performing a reference signal time difference, RSTD, measurement based on the plurality of PRSs and a reference timing obtained from the reference TP; and reporting the RSTD measurement, wherein the configuration for the reference TP includes PRS resource information of the reference TP. transmitting first information including a positioning reference signal, PRS, resource information with a best time of arrival, ToA, or propagation delay time measurement quality measured by the UE ; receiving, after the transmission of the first information, second information including a configuration for a reference transmission point, TP; receiving a plurality of PRSs from a plurality of TPs including the reference TP; performing a reference signal time difference, RSTD, measurement based on the plurality of PRSs and a reference timing obtained from the reference TP; and reporting the RSTD measurement, wherein the configuration for the reference TP includes PRS resource information of the reference TP.
A reversible water electrolysis system comprising: a reversible water electrolysis fuel cell 30 having a hydrogen pole, an air pole and an electrolyte disposed between the hydrogen pole and the air pole, wherein the reversible water electrolysis fuel cell is configured to be operated at one of a water electrolysis mode and a fuel cell mode; a first heat exchanger 41 configured to exchange a heat between a first exhaust gas exhausted from the hydrogen pole and a hydrogen or a mixed gas including the hydrogen and a steam, wherein the hydrogen or the mixed gas is supplied to the hydrogen pole; a steam supply passage L21 configured to supply the steam to the hydrogen pole; a water discharger configured to removing a water from the first exhaust gas; and a pump equipped to a water discharge passage L43 of the water discharge and configured to pump the water to outside, wherein the pump is configured to maintain a pressure difference between an inlet of the hydrogen pole and an inlet of the air pole within a predetermined range. a reversible water electrolysis fuel cell 30 having a hydrogen pole, an air pole and an electrolyte disposed between the hydrogen pole and the air pole, wherein the reversible water electrolysis fuel cell is configured to be operated at one of a water electrolysis mode and a fuel cell mode; a first heat exchanger 41 configured to exchange a heat between a first exhaust gas exhausted from the hydrogen pole and a hydrogen or a mixed gas including the hydrogen and a steam, wherein the hydrogen or the mixed gas is supplied to the hydrogen pole; a steam supply passage L21 configured to supply the steam to the hydrogen pole; a water discharger configured to removing a water from the first exhaust gas; and a pump equipped to a water discharge passage L43 of the water discharge and configured to pump the water to outside, wherein the pump is configured to maintain a pressure difference between an inlet of the hydrogen pole and an inlet of the air pole within a predetermined range.
A control system for controlling operation of a floating wind turbine , the floating wind turbine including a wind turbine generator coupled to a support tower, said control system comprising: an inclination sensor configured to collect wind turbine tower inclination data including an inclination angle and an inclination direction ; a processor communicatively coupled to said inclination sensor and configured to receive the wind turbine tower inclination data and to determine at least one operating parameter control value based at least partially on the wind turbine tower inclination data; and a wind direction sensor configured to provide wind direction data to said processor , wherein said processor is further configured to adjust wind turbine operation based at least partially on the operating parameter control value, wherein adjusting wind turbine operation comprises adjusting at least one of a blade pitch, a generator torque, and a nacelle yaw based at least partially on the operating parameter control value and the wind direction, wherein adjusting at least one of the blade pitch and the generator torque comprises adjusting the blade pitch and the generator torque when the inclination direction is not perpendicular to the measured wind direction, wherein adjusting the nacelle yaw comprises adjusting the nacelle yaw when the tower inclination direction is neither perpendicular to the measured wind direction nor parallel to the measured wind direction. an inclination sensor configured to collect wind turbine tower inclination data including an inclination angle and an inclination direction ; a processor communicatively coupled to said inclination sensor and configured to receive the wind turbine tower inclination data and to determine at least one operating parameter control value based at least partially on the wind turbine tower inclination data; and a wind direction sensor configured to provide wind direction data to said processor , wherein said processor is further configured to adjust wind turbine operation based at least partially on the operating parameter control value, wherein adjusting wind turbine operation comprises adjusting at least one of a blade pitch, a generator torque, and a nacelle yaw based at least partially on the operating parameter control value and the wind direction, wherein adjusting at least one of the blade pitch and the generator torque comprises adjusting the blade pitch and the generator torque when the inclination direction is not perpendicular to the measured wind direction, wherein adjusting the nacelle yaw comprises adjusting the nacelle yaw when the tower inclination direction is neither perpendicular to the measured wind direction nor parallel to the measured wind direction.
A radome for vehicles, comprising: - a substrate formed of a radio transmissive and light diffusing resin, the substrate having a proximal face and a distal face and a decoration layer applied to the proximal face, the decoration layer comprising a metalloid or a metalloid alloy deposited on the surface of the proximal face, - a transparent frontal cover overlying the decoration layer , characterized in that it also comprises a light source that illuminates the substrate , so that the light from the light source crosses the transparent frontal cover , and in that the decoration layer is opaque and it is applied only to a portion of the proximal face of the substrate leaving gaps for the passage of light from the light source . - a substrate formed of a radio transmissive and light diffusing resin, the substrate having a proximal face and a distal face and a decoration layer applied to the proximal face, the decoration layer comprising a metalloid or a metalloid alloy deposited on the surface of the proximal face, - a transparent frontal cover overlying the decoration layer ,
Facility for the continuous treatment of the surface of a strand profile consisting of a plastic material in a treatment chamber which can be flooded with a gas and which has an inlet for introducing the strand profile into the treatment chamber and an outlet for removing the treated strand profile from the treatment chamber , characterised in that both the inlet and the outlet each consist of at least one replaceable separating disc with an opening for the strand profile to be treated, the cross-section of the opening corresponding congruently to the cross-section of the strand profile, wherein the separating discs (6, 7; 15, 16) are contained in receptacles in a gas-tight manner, and the cutting discs are held in the receptacles by means of a bayonet catch . the separating discs (6, 7; 15, 16) are contained in receptacles in a gas-tight manner, and the cutting discs are held in the receptacles by means of a bayonet catch .
A ceramic core used for fabricating a hollow turbine blade for a turbine engine using the lost wax casting technique, said blade including calibrated dust-removal holes emanating from a top of at least one cavity and opening out into a bathtub of said blade, the core being characterized in that each of said calibrated dust-removal holes is formed in a core portion of height that is determined to be sufficient to guarantee mechanical strength, said core portion including a through orifice of axis perpendicular to a longitudinal axis of said calibrated dust-removal hole and defining on either side of said through orifice firstly a core cylinder having a determined diameter corresponding to said dust-removal hole that is to be formed, and secondly a remaining core volume that is to be plugged after casting, such that said calibrated dust-removal hole is obtained without drilling and without using connection rods.
An apparatus for processing dark-field X-ray image data information, comprising: a data interface ; and a data processing unit ; wherein the data interface is configured to provide the data processing unit with dark-field X-ray image data, wherein the data processing unit is configured to segment the image data to provide segmented image data of the lung, the segmented image data comprising at least a first lung segment and a second lung segment distinguishable therefrom, the first lung segment and the second lung segment being segmented to have a defined volume, wherein the data processing unit is configured to derive, from the image data, at least a first dark-field signal value assigned to the first lung segment and a second dark-field signal value assigned to the second lung segment, and wherein the data processing unit is configured to derive a quantitative measure by comparing the first dark-field signal value and the second dark-field signal value with each other, the quantitative measure being output data for lung analysis. a data interface ; and a data processing unit ; wherein the data interface is configured to provide the data processing unit with dark-field X-ray image data, wherein the data processing unit is configured to segment the image data to provide segmented image data of the lung, the segmented image data comprising at least a first lung segment and a second lung segment distinguishable therefrom, the first lung segment and the second lung segment being segmented to have a defined volume, wherein the data processing unit is configured to derive, from the image data, at least a first dark-field signal value assigned to the first lung segment and a second dark-field signal value assigned to the second lung segment, and wherein the data processing unit is configured to derive a quantitative measure by comparing the first dark-field signal value and the second dark-field signal value with each other, the quantitative measure being output data for lung analysis.
A system comprising an optoelectronic module and a pluggable connector configured to removably couple an end of an optical cable to the optoelectronic module , the pluggable connector comprising: a ferrule ; characterized by further comprising a clip; comprising a first portion comprising a latching portion configured to engage a latch slot of the optoelectronic module to retain the ferrule within the optoelectronic module when the ferrule is optically coupled to optical fibers of the optical cable ; and the clip further comprising a second portion configured to engage the ferrule to prevent removal of the ferrule from within the optoelectronic module when the first portion engages the latch slot , the second portion comprising two lever portions of said clip that extend downward from opposite sides of the latching portion . a ferrule ; characterized by further comprising a clip; comprising a first portion comprising a latching portion configured to engage a latch slot of the optoelectronic module to retain the ferrule within the optoelectronic module when the ferrule is optically coupled to optical fibers of the optical cable ; and the clip further comprising a second portion configured to engage the ferrule to prevent removal of the ferrule from within the optoelectronic module when the first portion engages the latch slot , the second portion comprising two lever portions of said clip that extend downward from opposite sides of the latching portion .
A device for decoding video data, the device comprising: a memory; and a processor, connected to the memory, configured to: determine motion vectors of a first control point and a second control point, corresponding to a 4-parameter affine transform model, of a current block of the video data; derive, using the motion vectors of the first control point and the second control point, motion vectors predictors for a third control point for a 6-parameter affine transform model; insert, into an affine motion vector predictor (MVP) set candidate list, the motion vector predictors for the third control point; determine, based on an index signaled in a bitstream, a selected affine MVP set in the affine MVP set candidate list; determine, based on motion vector predictors included in the selected affine MVP set, motion vectors of the third control point of the current block; generate, based on the motion vectors of the first control point, the second control point, and the third control point of the current block, a predictive block; and reconstruct the current block based on residual data and the predictive block. a memory; and a processor, connected to the memory, configured to: determine motion vectors of a first control point and a second control point, corresponding to a 4-parameter affine transform model, of a current block of the video data; derive, using the motion vectors of the first control point and the second control point, motion vectors predictors for a third control point for a 6-parameter affine transform model; insert, into an affine motion vector predictor (MVP) set candidate list, the motion vector predictors for the third control point; determine, based on an index signaled in a bitstream, a selected affine MVP set in the affine MVP set candidate list; determine, based on motion vector predictors included in the selected affine MVP set, motion vectors of the third control point of the current block; generate, based on the motion vectors of the first control point, the second control point, and the third control point of the current block, a predictive block; and reconstruct the current block based on residual data and the predictive block. determine motion vectors of a first control point and a second control point, corresponding to a 4-parameter affine transform model, of a current block of the video data; derive, using the motion vectors of the first control point and the second control point, motion vectors predictors for a third control point for a 6-parameter affine transform model; insert, into an affine motion vector predictor (MVP) set candidate list, the motion vector predictors for the third control point; determine, based on an index signaled in a bitstream, a selected affine MVP set in the affine MVP set candidate list; determine, based on motion vector predictors included in the selected affine MVP set, motion vectors of the third control point of the current block; generate, based on the motion vectors of the first control point, the second control point, and the third control point of the current block, a predictive block; and reconstruct the current block based on residual data and the predictive block.
Method for managing the mobility of a mobile terminal in a communication network comprising a plurality of access points and an access point discovery server adapted to provide the mobile terminal with a list of access points selected from among the access points of the network, the method comprising the following steps: reception (S2), by a quality of service application equipment, of a message containing an identifier of a type of service that the mobile terminal is accessing; reception (S5), by the access point discovery server, of a quality of service class determined by the quality of service application equipment on the basis of the type of service that the mobile terminal accesses; and generation (S7), by the access point discovery server, of the list of access points by selecting at least one access point compatible with the quality of service class determined by the quality of service application equipment. reception (S2), by a quality of service application equipment, of a message containing an identifier of a type of service that the mobile terminal is accessing; reception (S5), by the access point discovery server, of a quality of service class determined by the quality of service application equipment on the basis of the type of service that the mobile terminal accesses; and generation (S7), by the access point discovery server, of the list of access points by selecting at least one access point compatible with the quality of service class determined by the quality of service application equipment.
A turbine ring assembly comprising a plurality of ring sectors (1; 1') made of ceramic matrix composite material, together with a ring support structure , each ring sector (1; 1') having a portion forming an annular base with an inner face defining the inner face of the turbine ring and an outer face from which there project at least two tab-forming portions (9a; 9b; 9'a; 9'b), the assembly being characterized in that the ring support structure has at least two attachment tabs (11a; 11b; 11'a; 11'b) extending radially, the tabs (9a; 9b; 9'a; 9'b) of each ring sector (1; 1') axially gripping the attachment tabs (11a; 11b; 11'a; 11'b) of the ring support structure at least at the radially-inner ends (14a; 14b; 14'a; 14'b) of said attachment tabs (11a; 11b; 11'a; 11'b), and in that the tabs (9a; 9b; 9'a; 9'b) of the ring sectors (1; 1') present, in meridian section, sloping portions (12a; 12b; 12'a; 12'b; 12"a; 12"b) bearing against the attachment tabs (11a; 11b; 11'a; 11'b) of the ring support structure , the sloping portions (12a; 12b; 12'a; 12'b; 12"a; 12"b) forming respective non-zero angles (α 1 , α 2 ) relative to the radial direction (R) and to the axial direction (A) and wherein the tabs of the ring sectors are not present in-between the attachment tabs of the ring support structure .