mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless transmit/receive unit, WTRU, configured to send a random access request to a base station for random access on a physical random access channel, PRACH, characterized in comprising: a receiver configured to receive a control channel from the base station, the control channel being a physical downlink control channel, PDCCH, and a data channel, the data channel being a physical downlink shared channel, PDSCH , wherein a common control portion of the PDCCH includes a plurality of control channel elements, CCEs, having random access channel, RACH, response control information intended for a plurality of WTRUs; a processor configured to: perform blind decoding of the CCEs within the common control portion of the control channel, wherein the CCEs of the common control portion include location information to direct the WTRU to a resource allocation for a RACH response in one or more transport blocks of the PDSCH; and process the random access response in the PDSCH; wherein the plurality of CCEs include transport format and modulation and coding scheme, MCS, information, wherein the processor is configured to process the RACH response in the PDSCH to decode the RACH response in the one or more transport blocks of the PDSCH using the MCS information included in the plurality of CCEs. a receiver configured to receive a control channel from the base station, the control channel being a physical downlink control channel, PDCCH, and a data channel, the data channel being a physical downlink shared channel, PDSCH , wherein a common control portion of the PDCCH includes a plurality of control channel elements, CCEs, having random access channel, RACH, response control information intended for a plurality of WTRUs; a processor configured to: perform blind decoding of the CCEs within the common control portion of the control channel, wherein the CCEs of the common control portion include location information to direct the WTRU to a resource allocation for a RACH response in one or more transport blocks of the PDSCH; and process the random access response in the PDSCH; wherein the plurality of CCEs include transport format and modulation and coding scheme, MCS, information, wherein the processor is configured to process the RACH response in the PDSCH to decode the RACH response in the one or more transport blocks of the PDSCH using the MCS information included in the plurality of CCEs. perform blind decoding of the CCEs within the common control portion of the control channel, wherein the CCEs of the common control portion include location information to direct the WTRU to a resource allocation for a RACH response in one or more transport blocks of the PDSCH; and process the random access response in the PDSCH; wherein the plurality of CCEs include transport format and modulation and coding scheme, MCS, information, wherein the processor is configured to process the RACH response in the PDSCH to decode the RACH response in the one or more transport blocks of the PDSCH using the MCS information included in the plurality of CCEs.
A TNF family ligand trimer-containing antigen binding molecule comprising two Fab molecules capable of specific binding to a target cell antigen, an IgG Fc domain composed of a first and a second subunit capable of stable association, each subunit comprising CH2 and CH3 IgG heavy chain constant domains, and a first and a second polypeptide that are linked to each other by a disulfide bond, wherein the antigen binding molecule is characterized in that the first polypeptide comprises two ectodomains of a TNF ligand family member selected from 4-1BBL comprising the amino acid sequence selected from the group consisting of SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO:3, SEQ ID NO:4, SEQ ID NO:96, SEQ ID NO: 373, SEQ ID NO:374 and SEQ ID NO:375 or OX40L comprising the amino acid sequence of SEQ ID NO:53 or SEQ ID NO:54 that are connected to each other and to the C-terminus of the CH3 domain by a peptide linker and in that the second polypeptide comprises only one ectodomain of said TNF ligand family member selected from 4-1BBL comprising the amino acid sequence selected from the group consisting of SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO:3, SEQ ID NO:4, SEQ ID NO:96, SEQ ID NO: 373, SEQ ID NO:374 and SEQ ID NO:375 or OX40L comprising the amino acid sequence of SEQ ID NO:53 or SEQ ID NO:54 connected via a peptide linker to C-terminus of the other CH3 domain: two Fab molecules capable of specific binding to a target cell antigen, an IgG Fc domain composed of a first and a second subunit capable of stable association, each subunit comprising CH2 and CH3 IgG heavy chain constant domains, and a first and a second polypeptide that are linked to each other by a disulfide bond, wherein the antigen binding molecule is characterized in that the first polypeptide comprises two ectodomains of a TNF ligand family member selected from 4-1BBL comprising the amino acid sequence selected from the group consisting of SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO:3, SEQ ID NO:4, SEQ ID NO:96, SEQ ID NO: 373, SEQ ID NO:374 and SEQ ID NO:375 or OX40L comprising the amino acid sequence of SEQ ID NO:53 or SEQ ID NO:54 that are connected to each other and to the C-terminus of the CH3 domain by a peptide linker and in that the second polypeptide comprises only one ectodomain of said TNF ligand family member selected from 4-1BBL comprising the amino acid sequence selected from the group consisting of SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO:3, SEQ ID NO:4, SEQ ID NO:96, SEQ ID NO: 373, SEQ ID NO:374 and SEQ ID NO:375 or OX40L comprising the amino acid sequence of SEQ ID NO:53 or SEQ ID NO:54 connected via a peptide linker to C-terminus of the other CH3 domain:
A composition comprising a therapeutically effective amount of tiglic aldehyde for use to treat dysphagia.
An information processing apparatus comprising: an acquisition unit configured to acquire depth information of each pixel of a texture image representing a position of each pixel in a depth direction, and depth representation information including a minimum value and a maximum value of the depth information; a preprocessing unit configured to, on the basis of the depth representation information, generate a depth image obtained by quantizing the depth information; and a file generation unit , for generating an mp4 file, configured to: arrange, in a first track of the mp4 file, an encoded stream obtained by encoding the depth image in units of samples, group one or more consecutive samples of the depth representation information with the same depth representation information in groups, arrange, in a second track of the mp4 file, wherein the second track is different from the first track, the depth representation information for each group as a sample, and describe, in the mp4 file, information specifying the first track for the encoded stream as a track referred to by the second track for the depth representation information. an acquisition unit configured to acquire depth information of each pixel of a texture image representing a position of each pixel in a depth direction, and depth representation information including a minimum value and a maximum value of the depth information; a preprocessing unit configured to, on the basis of the depth representation information, generate a depth image obtained by quantizing the depth information; and a file generation unit , for generating an mp4 file, configured to: arrange, in a first track of the mp4 file, an encoded stream obtained by encoding the depth image in units of samples, group one or more consecutive samples of the depth representation information with the same depth representation information in groups, arrange, in a second track of the mp4 file, wherein the second track is different from the first track, the depth representation information for each group as a sample, and describe, in the mp4 file, information specifying the first track for the encoded stream as a track referred to by the second track for the depth representation information. arrange, in a first track of the mp4 file, an encoded stream obtained by encoding the depth image in units of samples, group one or more consecutive samples of the depth representation information with the same depth representation information in groups, arrange, in a second track of the mp4 file, wherein the second track is different from the first track, the depth representation information for each group as a sample, and describe, in the mp4 file, information specifying the first track for the encoded stream as a track referred to by the second track for the depth representation information.
Use of a material for insolubilizing a designated hazardous substance by conducting treatment to soil so that the soil does not reach a strongly basic region of a pH of 11 or more from start to finish, the insolubilizing material consisting of: a water-soluble aluminum compound, which is aluminum sulfate or a hydrate thereof, not being strongly basic and not being amorphous; and a concomitant component selected from the group consisting of calcium carbonate, calcium sulfate, and hard-burned calcium oxide. a water-soluble aluminum compound, which is aluminum sulfate or a hydrate thereof, not being strongly basic and not being amorphous; and a concomitant component selected from the group consisting of calcium carbonate, calcium sulfate, and hard-burned calcium oxide.
A method for wireless communications, the method comprising: transmitting , by a network controller to a user equipment, UE, a first set of reference signals; receiving , by the network controller, feedback information from the UE of a first subset of the first set of reference signals selected by the UE; transmitting , by the network controller to the UE, a second set of reference signals; and indicating , by the network controller to the UE, a first linkage between the first subset of the first set of reference signals and the second set of reference signals; wherein the first linkage comprises that same receive beams at the UE are used for the first subset of the first set of reference signals and the second set of reference signals. transmitting , by a network controller to a user equipment, UE, a first set of reference signals; receiving , by the network controller, feedback information from the UE of a first subset of the first set of reference signals selected by the UE; transmitting , by the network controller to the UE, a second set of reference signals; and indicating , by the network controller to the UE, a first linkage between the first subset of the first set of reference signals and the second set of reference signals; wherein the first linkage comprises that same receive beams at the UE are used for the first subset of the first set of reference signals and the second set of reference signals.
A geothermal power plant , the plant comprising: an injection well and a production well, the wells being spaced apart and accessing a geothermal formation ; a pump to pump operating fluid at a pump pressure into the injection well for extraction as hot operating fluid from the production well; an energy conversion unit to transfer energy from the hot operating fluid to another energy; a downhole pressure gauge located in at least one well , means to transmit data from the downhole pressure gauge at a first sampling frequency to surface and a surface data acquisition unit characterised in that : the downhole pressure gauge is adapted to record a change in pressure as a pressure trace , the means to transmit data is adapted to transmit the pressure trace as data to surface, the surface data acquisition unit is adapted to store the data, and in that the power plant comprises means to calculate at least one fracture parameter from the stored data, the fracture parameter being selected from a group comprising one or more of: fracture length, volume of fractures, lateral extension of fractures and estimation of global fracture network shape; and means to adjust the pump rate based on the at least one fracture parameter. the downhole pressure gauge is adapted to record a change in pressure as a pressure trace , the means to transmit data is adapted to transmit the pressure trace as data to surface, the surface data acquisition unit is adapted to store the data, and in that the power plant comprises means to calculate at least one fracture parameter from the stored data, the fracture parameter being selected from a group comprising one or more of: fracture length, volume of fractures, lateral extension of fractures and estimation of global fracture network shape; and means to adjust the pump rate based on the at least one fracture parameter.
A whirlpool nozzle, comprising a valve body , a core extension , a nozzle sieve , a sealing , a compression spring , a core and an electro-magnetic actuator , wherein the core is positioned within at least one coil of the electro-magnetic actuator , wherein the core forms an integral or assembled control member with the core extension , wherein the core extension is mounted movable within the valve body , wherein the nozzle sieve is inserted, preferably screwed, into the valve body on the front-face, wherein the nozzle sieve forms an area of the front face of the whirlpool nozzle, wherein the valve body is mechanically connected to the electro-magnetic actuator , wherein the core extension has a front-face recess, into which the sealing is inserted, wherein the compression spring presses the sealing via the core extension against the water pressure acting on the front face of the whirlpool nozzle onto the nozzle sieve .
An instrument comprising: a reagent management system , the reagent management system comprising a plurality of reagent wells , each reagent well operable to contain a reagent of a plurality of reagents positioned therein, the reagent management system operable to select a flow of reagent from one of the plurality of reagent wells ; a flexible connection comprised of a laminate stack, the flexible connection comprising a first flexible channel in fluid communication with the reagent management system , the first flexible channel operable to route the flow of reagent therethrough; and a flow cell , operable to be positioned in the instrument , the flow cell comprising a flow channel in fluid communication with the first flexible channel , the flow channel operable to route the flow of reagent over analytes positioned in the flow channel ; and a detection module ; wherein the flow cell is moveable by the instrument relative to a fixed reference point in the instrument , wherein the flexible connection comprises: a top layer defining a top of the first flexible channel ; a bottom layer defining a bottom of the first flexible channel ; and an intermediate layer defining a wall width and a channel width of the first flexible channel ; wherein a ratio of the wall width to the channel width is greater than about 2.5. a reagent management system , the reagent management system comprising a plurality of reagent wells , each reagent well operable to contain a reagent of a plurality of reagents positioned therein, the reagent management system operable to select a flow of reagent from one of the plurality of reagent wells ; a flexible connection comprised of a laminate stack, the flexible connection comprising a first flexible channel in fluid communication with the reagent management system , the first flexible channel operable to route the flow of reagent therethrough; and a flow cell , operable to be positioned in the instrument , the flow cell comprising a flow channel in fluid communication with the first flexible channel , the flow channel operable to route the flow of reagent over analytes positioned in the flow channel ; and a detection module ; wherein the flow cell is moveable by the instrument relative to a fixed reference point in the instrument , wherein the flexible connection comprises: a top layer defining a top of the first flexible channel ; a bottom layer defining a bottom of the first flexible channel ; and an intermediate layer defining a wall width and a channel width of the first flexible channel ; a top layer defining a top of the first flexible channel ; a bottom layer defining a bottom of the first flexible channel ; and an intermediate layer defining a wall width and a channel width of the first flexible channel ; wherein a ratio of the wall width to the channel width is greater than about 2.5.
A method for detecting excess flow in an engine fluid system , the method comprising: sensing a temperature of a fluid flowing in a fluid line of the fluid system , the fluid line located downstream of a fluid flow restrictor configured to receive the fluid from a source upstream thereof and to flow the fluid from the source into the fluid line downstream thereof, the fluid flow restrictor being configured to create a choked flow thereat and to cause a decrease in the temperature downstream of the fluid flow restrictor upon excess fluid flow being supplied into the fluid line , wherein sensing the temperature comprises sensing the decrease in the temperature downstream of the fluid flow restrictor ; comparing the temperature to a temperature threshold; and when the temperature is beyond the temperature threshold, detecting excess flow of the fluid in the fluid line and outputting an excess flow indication accordingly. sensing a temperature of a fluid flowing in a fluid line of the fluid system , the fluid line located downstream of a fluid flow restrictor configured to receive the fluid from a source upstream thereof and to flow the fluid from the source into the fluid line downstream thereof, the fluid flow restrictor being configured to create a choked flow thereat and to cause a decrease in the temperature downstream of the fluid flow restrictor upon excess fluid flow being supplied into the fluid line , wherein sensing the temperature comprises sensing the decrease in the temperature downstream of the fluid flow restrictor ; comparing the temperature to a temperature threshold; and when the temperature is beyond the temperature threshold, detecting excess flow of the fluid in the fluid line and outputting an excess flow indication accordingly.
A Lissajous Frequency Modulated gyroscope, comprising: a mechanical resonator having a first mode of vibration along a first axis having an associated first natural frequency, and a second mode of vibration along a second axis perpendicular to the first axis having an associated second natural frequency, wherein angular rate of motion input couples energy between said first mode of vibration and said second mode of vibration; sensors and actuators for each of the first mode and the second mode for transduction of an electrical signal into a mechanical vibration and transduction of a mechanical vibration into an electrical signal; sustaining circuitry connected to the sensors and actuators to maintain substantially constant, non-zero velocity amplitude vibrations in the first mode at a first oscillation frequency and the second mode at a second oscillation frequency; and output circuitry to infer an angular rate of motion from measurements of the instantaneous oscillation frequencies of both said first mode and said second mode; wherein said mechanical resonator has a non-zero static frequency difference between the vibration of said first and second modes of said mechanical resonator and a time-varying phase difference between the vibration of said first and second modes of said mechanical resonator; wherein said output circuitry first measures the instantaneous oscillation frequencies using FM demodulation and then use AM demodulation of the measured instantaneous oscillation frequencies to infer the angular rate of motion. a mechanical resonator having a first mode of vibration along a first axis having an associated first natural frequency, and a second mode of vibration along a second axis perpendicular to the first axis having an associated second natural frequency, wherein angular rate of motion input couples energy between said first mode of vibration and said second mode of vibration; sensors and actuators for each of the first mode and the second mode for transduction of an electrical signal into a mechanical vibration and transduction of a mechanical vibration into an electrical signal; sustaining circuitry connected to the sensors and actuators to maintain substantially constant, non-zero velocity amplitude vibrations in the first mode at a first oscillation frequency and the second mode at a second oscillation frequency; and output circuitry to infer an angular rate of motion from measurements of the instantaneous oscillation frequencies of both said first mode and said second mode; wherein said mechanical resonator has a non-zero static frequency difference between the vibration of said first and second modes of said mechanical resonator and a time-varying phase difference between the vibration of said first and second modes of said mechanical resonator; wherein said output circuitry first measures the instantaneous oscillation frequencies using FM demodulation and then use AM demodulation of the measured instantaneous oscillation frequencies to infer the angular rate of motion.
An electronic device, comprising: a power transmitting circuit configured to transmit power to a wireless power receiver ; a communication circuit configured to perform communication with the wireless power receiver ; and a control circuit configured to: control the power transmitting circuit to apply a first power to a coil of the power transmitting circuit , control the power transmitting circuit to stop applying the first power and prevent power from being applied to the coil during a first period (Δt1), identify a first Q-factor during the first period, control the power transmitting circuit to apply, to the coil , a second power during a calibration operation for identifying at least one parameter used for identifying a power loss during power transmission, control the power transmitting circuit to stop applying the second power and prevent power from being applied to the coil during a second period (Δt2), identify a second Q-factor during the second period, and identify a validity of the at least one parameter based on the first Q-factor or the second Q-factor. a power transmitting circuit configured to transmit power to a wireless power receiver ; a communication circuit configured to perform communication with the wireless power receiver ; and a control circuit configured to: control the power transmitting circuit to apply a first power to a coil of the power transmitting circuit , control the power transmitting circuit to stop applying the first power and prevent power from being applied to the coil during a first period (Δt1), identify a first Q-factor during the first period, control the power transmitting circuit to apply, to the coil , a second power during a calibration operation for identifying at least one parameter used for identifying a power loss during power transmission, control the power transmitting circuit to stop applying the second power and prevent power from being applied to the coil during a second period (Δt2), identify a second Q-factor during the second period, and identify a validity of the at least one parameter based on the first Q-factor or the second Q-factor. control the power transmitting circuit to apply a first power to a coil of the power transmitting circuit , control the power transmitting circuit to stop applying the first power and prevent power from being applied to the coil during a first period (Δt1), identify a first Q-factor during the first period, control the power transmitting circuit to apply, to the coil , a second power during a calibration operation for identifying at least one parameter used for identifying a power loss during power transmission, control the power transmitting circuit to stop applying the second power and prevent power from being applied to the coil during a second period (Δt2), identify a second Q-factor during the second period, and identify a validity of the at least one parameter based on the first Q-factor or the second Q-factor.