mhurhangee/ep-ind-claims huggingface dataset:
A base station, comprising: a receiving unit configured to receive a UE capability regarding a bandwidth from a mobile station; and a specifying unit configured to specify, by transmitting RRC (Radio Resource Control) signaling information in a predetermined basic frequency block, among plural basic frequency blocks included in a system band, one or more basic frequency blocks to be used by the mobile station based on the UE capability, wherein the plural basic frequency blocks are formed by dividing the system band based on a maximum transmission and reception bandwidth of the mobile station; wherein communication with the mobile station is maintained in the predetermined basic frequency block, after communication with the mobile station is started in the one or more basic frequency blocks. a receiving unit configured to receive a UE capability regarding a bandwidth from a mobile station; and a specifying unit configured to specify, by transmitting RRC (Radio Resource Control) signaling information in a predetermined basic frequency block, among plural basic frequency blocks included in a system band, one or more basic frequency blocks to be used by the mobile station based on the UE capability, wherein the plural basic frequency blocks are formed by dividing the system band based on a maximum transmission and reception bandwidth of the mobile station; wherein communication with the mobile station is maintained in the predetermined basic frequency block, after communication with the mobile station is started in the one or more basic frequency blocks.
Composite material comprising 10-98 wt.% of a synthetic particulate or fibrous filler and at least 2 wt.% of a polyester derived from an aliphatic polyalcohol with 2-15 carbon atoms and a polyacid, wherein the alcohol comprises at least 50 mole% of glycerol, and the acid comprises at least 50 wt.% of tricarboxylic acid.
A printer, comprising: a frame, a first print head, an idler platen roll cooperable with the first print head to print on one side of a web, a second print head, and a driven platen roll cooperable with the second print head and disposed downstream of the first platen roll to print on the other side of the web. a frame, a first print head, an idler platen roll cooperable with the first print head to print on one side of a web, a second print head, and a driven platen roll cooperable with the second print head and disposed downstream of the first platen roll to print on the other side of the web.
A method for spreading a plurality of data symbols ( d s) onto subcarriers of a carrier signal for a transmission in a transmission system, comprising the following steps: transforming a stream of the data symbols ( d s) with a serial/parallel converter to provide a data vector ( d), comprising the plurality of data symbols; performing a spreading allocation of the data vector ( d) using a spreading allocation matrix to deliver a vector (z) having a length, which corresponds to the number of subcarriers, transforming, by an inverse discrete Fourier transform, IDFT, the delivered vector ( z); and after transforming the delivered vector ( z), creating a spread data vector (w) based on the transformed data vector ( q) and a spreading matrix, wherein the spread data vector ( w) has a length, which corresponds to the number of subcarriers, wherein the spreading allocation assigns the data symbols in the data vector ( d) to the inputs of the IDFT. transforming a stream of the data symbols ( d s) with a serial/parallel converter to provide a data vector ( d), comprising the plurality of data symbols; performing a spreading allocation of the data vector ( d) using a spreading allocation matrix to deliver a vector (z) having a length, which corresponds to the number of subcarriers, transforming, by an inverse discrete Fourier transform, IDFT, the delivered vector ( z); and after transforming the delivered vector ( z), creating a spread data vector (w) based on the transformed data vector ( q) and a spreading matrix, wherein the spread data vector ( w) has a length, which corresponds to the number of subcarriers, wherein the spreading allocation assigns the data symbols in the data vector ( d) to the inputs of the IDFT.
A linear compressor comprising: a cylinder; a piston configured to axially reciprocate in the cylinder; a back cover disposed at a rear of the piston, the back cover defining an opening at a region around an axial centerline thereof; a first muffler unit coupled to the piston, the first muffler unit comprising (i) an inner guide disposed in the piston and (ii) a first intake muffler disposed between the inner guide and the back cover; and a second muffler unit comprising a second intake muffler that is in fluid communication with the first intake muffler and is coupled to the back cover; characterized by a muffler body that surrounds the second intake muffler, wherein an outer circumferential surface of the second intake muffler defines a first communication hole that fluidly communicates an inside of the second intake muffler with a first space that is defined radially between the second intake muffler and the muffler body. a cylinder; a piston configured to axially reciprocate in the cylinder; a back cover disposed at a rear of the piston, the back cover defining an opening at a region around an axial centerline thereof; a first muffler unit coupled to the piston, the first muffler unit comprising (i) an inner guide disposed in the piston and (ii) a first intake muffler disposed between the inner guide and the back cover; and a second muffler unit comprising a second intake muffler that is in fluid communication with the first intake muffler and is coupled to the back cover; characterized by a muffler body that surrounds the second intake muffler, wherein an outer circumferential surface of the second intake muffler defines a first communication hole that fluidly communicates an inside of the second intake muffler with a first space that is defined radially between the second intake muffler and the muffler body.
A composition for use in a method of treating Leber congenital amaurosis in an individual comprising: a) a nucleic acid encoding an engineered, non-naturally occurring Clustered Regularly Interspaced Short Palindromic Repeats (CRISPR)- CRISPR associated (Cas) (CRISPR-Cas) system comprising a first guide RNA and a second guide RNA wherein the first guide RNA and the second guide RNA hybridize to opposite strands of target DNA sequences flanking an intronic mutation in a CEP290 gene; and b) a Cas expression cassette comprising: i) a nucleotide sequence encoding a Cas protein, and ii) a first guide RNA target site, wherein the first guide RNA or the second guide RNA hybridizes to the first guide RNA target site; wherein the Cas protein is expressed from the Cas expression cassette; wherein the Cas protein cleaves the target DNA sequences flanking the mutation, thereby excising a portion of target DNA comprising the mutation; and wherein the Cas protein cleaves the Cas expression cassette at the first guide RNA target site, thereby reducing expression of the Cas protein, as compared to expression of the Cas protein prior to cleavage of the Cas expression cassette. a) a nucleic acid encoding an engineered, non-naturally occurring Clustered Regularly Interspaced Short Palindromic Repeats (CRISPR)- CRISPR associated (Cas) (CRISPR-Cas) system comprising a first guide RNA and a second guide RNA wherein the first guide RNA and the second guide RNA hybridize to opposite strands of target DNA sequences flanking an intronic mutation in a CEP290 gene; and b) a Cas expression cassette comprising: i) a nucleotide sequence encoding a Cas protein, and ii) a first guide RNA target site, wherein the first guide RNA or the second guide RNA hybridizes to the first guide RNA target site; i) a nucleotide sequence encoding a Cas protein, and ii) a first guide RNA target site, wherein the first guide RNA or the second guide RNA hybridizes to the first guide RNA target site; wherein the Cas protein is expressed from the Cas expression cassette; wherein the Cas protein cleaves the target DNA sequences flanking the mutation, thereby excising a portion of target DNA comprising the mutation; and wherein the Cas protein cleaves the Cas expression cassette at the first guide RNA target site, thereby reducing expression of the Cas protein, as compared to expression of the Cas protein prior to cleavage of the Cas expression cassette.
A semiconductor refrigerator, comprising: a liner having a storage compartment defined therein; at least one semiconductor cooler disposed behind a rear wall of the liner; and a plurality of cold end heat exchanging devices, each of the cold end heat exchanging devices being configured to allow the refrigerant to flow therein and undergo phase-change heat exchange to transfer cold from the cold end of the at least one semiconductor cooler to the storage compartment of the liner; and characterized in that each of the cold end heat exchanging devices has three refrigerant pipelines, each refrigerant pipeline having an evaporation section which is downwardly bent and extends in a vertical plane and has a closed tail end, and the evaporation sections of the three refrigerant pipelines of each of the cold end heat exchanging devices being thermally connected to the rear wall and two side walls of the liner respectively. a liner having a storage compartment defined therein; at least one semiconductor cooler disposed behind a rear wall of the liner; and a plurality of cold end heat exchanging devices, each of the cold end heat exchanging devices being configured to allow the refrigerant to flow therein and undergo phase-change heat exchange to transfer cold from the cold end of the at least one semiconductor cooler to the storage compartment of the liner; and characterized in that each of the cold end heat exchanging devices has three refrigerant pipelines, each refrigerant pipeline having an evaporation section which is downwardly bent and extends in a vertical plane and has a closed tail end, and the evaporation sections of the three refrigerant pipelines of each of the cold end heat exchanging devices being thermally connected to the rear wall and two side walls of the liner respectively.
A magnetic flowmeter, comprising: at least one coil configured to generate a magnetic field within a process fluid flow; a pair of electrodes configured to detect an electromotive force within the process fluid flow in response to the magnetic field; measurement circuitry operably coupled to the pair of electrodes and configured to provide an indication of the detected electromotive force; and a processor coupled to the measurement circuitry and configured to receive the indication of the detected electromotive force and an indication of process noise, the processor being configured to change a dead time parameter based on the indication of process noise and provide a process fluid flow output based on the indication of detected electromotive force and the dead time parameter characterized in that: the processor is configured to obtain the indication of process noise using a statistical parameter on a plurality of detected electromotive force indications. at least one coil configured to generate a magnetic field within a process fluid flow; a pair of electrodes configured to detect an electromotive force within the process fluid flow in response to the magnetic field; measurement circuitry operably coupled to the pair of electrodes and configured to provide an indication of the detected electromotive force; and a processor coupled to the measurement circuitry and configured to receive the indication of the detected electromotive force and an indication of process noise, the processor being configured to change a dead time parameter based on the indication of process noise and provide a process fluid flow output based on the indication of detected electromotive force and the dead time parameter characterized in that: the processor is configured to obtain the indication of process noise using a statistical parameter on a plurality of detected electromotive force indications.
A method for determining a disease status of a patient suffering from, or suspected of suffering from, ankylosing spondylitis, the method comprising the steps of: (a) amplifying molecules of nucleic acid from T-cells of a sample obtained from the patient, the molecules of nucleic acid comprising recombined DNA sequences from T-cell receptor genes; (b) sequencing the amplified molecules of nucleic acid to form a clonotype profile; (c) determining from the clonotype profile a presence, an absence and/or a level of clonotypes encoding segments of a T-cell receptor at least seventy percent identical to a segment in the group consisting of LCASSLEASGSSYNEQFFGPGTRLTV (SEQ ID NO: 1) and VYFCASSDSSGSTDTQYFGPGTRLTV (SEQ ID NO: 2); and (d) correlating the presence, absence and/or level of such clonotypes with a status of ankylosing spondylitis in the patient. (a) amplifying molecules of nucleic acid from T-cells of a sample obtained from the patient, the molecules of nucleic acid comprising recombined DNA sequences from T-cell receptor genes; (b) sequencing the amplified molecules of nucleic acid to form a clonotype profile; (c) determining from the clonotype profile a presence, an absence and/or a level of clonotypes encoding segments of a T-cell receptor at least seventy percent identical to a segment in the group consisting of LCASSLEASGSSYNEQFFGPGTRLTV (SEQ ID NO: 1) and VYFCASSDSSGSTDTQYFGPGTRLTV (SEQ ID NO: 2); and (d) correlating the presence, absence and/or level of such clonotypes with a status of ankylosing spondylitis in the patient.
Internal combustion engine with at least one combustion chamber, the internal combustion engine being connected by way of its outlet to an exhaust gas system, a heat exchanger of an exhaust gas heat recovery system being arranged in the exhaust gas system, by means of which heat exchanger the waste heat of the exhaust gas can be transferred to an operating fluid of the exhaust gas heat recovery system, the exhaust gas heat recovery system having a further heat exchanger, in which the waste heat of a compressed refrigerant of an air conditioning circuit can be transferred to the operating fluid of the exhaust gas heat recovery system, and an expansion machine being arranged in an operating fluid circuit of the exhaust gas heat recovery system, via which expansion machine a motor and/or a generator can be driven, characterized in that the expansion machine can be coupled via a power split device selectively to the internal combustion engine and/or to an electric drive motor or generator.
Fuel piping arrangement in common rail type fuel supply systems, the supply system comprising at least one common rail and at least one respective injector having an injector port, wherein the common rail is connected with the at least one injector directly, by means of only one joint characterized in that said only one joint is made of two concentric portions (32,33) axially fixed between each other, defining one single tubular element and in that a first end of the tubular joint is clamped on an annular shaped ring of the common rail port and a second end, opposite to the first end, of the joint is suitable to be screwed on the injector port, wherein one of said portions is rotatable with respect to the other portion.
An active pixel image sensor comprising: a pixel array of active pixels that are capable of being random access addressed to provide pixel readout signals from the addressed pixels on N output lines, where N is a plural integer; M ADC lanes arranged in parallel and each capable of performing analog-to-digital conversion of pixel readout signals, where M is a plural integer less than N; a switching arrangement capable of selectively connecting output lines to the M ADC lanes; and a control unit arranged to provide random access addressing of the pixels, and arranged, in synchronisation with the provision of random addressing of the pixels, to control the switching arrangement in accordance with the random access addressing of the pixels to connect the output lines on which the addressed pixels provide pixel readout signals to selected ADC lanes, characterized in that each ADC lane is arranged to supply a status signal to the control unit that indicates whether it is ready for operation, and the control unit is arranged to control the switching arrangement in response thereto so as to connect the output lines on which the addressed pixels provide pixel readout signals to ADC lanes that are indicated by their status signals to be ready for operation. a pixel array of active pixels that are capable of being random access addressed to provide pixel readout signals from the addressed pixels on N output lines, where N is a plural integer; M ADC lanes arranged in parallel and each capable of performing analog-to-digital conversion of pixel readout signals, where M is a plural integer less than N; a switching arrangement capable of selectively connecting output lines to the M ADC lanes; and a control unit arranged to provide random access addressing of the pixels, and arranged, in synchronisation with the provision of random addressing of the pixels, to control the switching arrangement in accordance with the random access addressing of the pixels to connect the output lines on which the addressed pixels provide pixel readout signals to selected ADC lanes, characterized in that each ADC lane is arranged to supply a status signal to the control unit that indicates whether it is ready for operation, and the control unit is arranged to control the switching arrangement in response thereto so as to connect the output lines on which the addressed pixels provide pixel readout signals to ADC lanes that are indicated by their status signals to be ready for operation.
A film comprising: a methacrylic resin which has a triad syndiotacticity (rr) of 58% to 75%, a weight average molecular weight of 50000 to 150000, a content of fraction having a molecular weight of not less than 200000 of 0.1 to 10%, and a content of fraction having a molecular weight of less than 15000 of 0.2 to 5%. a methacrylic resin which has a triad syndiotacticity (rr) of 58% to 75%, a weight average molecular weight of 50000 to 150000, a content of fraction having a molecular weight of not less than 200000 of 0.1 to 10%, and a content of fraction having a molecular weight of less than 15000 of 0.2 to 5%.
An electrically controllable seat post, comprising: a retractable rod comprising a switch and a cylinder, wherein the switch is configured to trigger an elongation and a contraction of the cylinder; and a switch actuator corresponding to the switch and comprising: a pushing member, which is linearly movable to open or close the switch so as to drive an elongation and a contraction of the retractable rod via elongation and contraction of the cylinder; and an electromagnetic coil generating a magnetic force by injecting a current therethrough; and a controller controlling the switch actuator; wherein the pushing member has a pole of a magnetic field formed at an end of the pushing member by injecting the current through the electromagnetic coil or by a magnetic property at the end of the pushing member; wherein the pushing member is directly and non-contactly driven by another pole of a magnetic field formed by the electromagnetic coil to be moved linearly; characterised in that the electromagnetic coil comprises an inner surface, the inner surface comprises a spiral groove, the pushing member comprises a protruding member corresponding to the spiral groove, and when the pushing member is elongated or contracted, the protruding member slides in the spiral groove to rotate the pushing member synchronously, so that the pushing member is linearly movable and rotatable to open or close the switch. a retractable rod comprising a switch and a cylinder, wherein the switch is configured to trigger an elongation and a contraction of the cylinder; and a switch actuator corresponding to the switch and comprising: a pushing member, which is linearly movable to open or close the switch so as to drive an elongation and a contraction of the retractable rod via elongation and contraction of the cylinder; and an electromagnetic coil generating a magnetic force by injecting a current therethrough; and a controller controlling the switch actuator; a pushing member, which is linearly movable to open or close the switch so as to drive an elongation and a contraction of the retractable rod via elongation and contraction of the cylinder; and an electromagnetic coil generating a magnetic force by injecting a current therethrough; and a controller controlling the switch actuator; wherein the pushing member has a pole of a magnetic field formed at an end of the pushing member by injecting the current through the electromagnetic coil or by a magnetic property at the end of the pushing member; wherein the pushing member is directly and non-contactly driven by another pole of a magnetic field formed by the electromagnetic coil to be moved linearly; characterised in that the electromagnetic coil comprises an inner surface, the inner surface comprises a spiral groove, the pushing member comprises a protruding member corresponding to the spiral groove, and when the pushing member is elongated or contracted, the protruding member slides in the spiral groove to rotate the pushing member synchronously, so that the pushing member is linearly movable and rotatable to open or close the switch.
A compressive sensing capturing device, comprising circuitry that includes a compressive imaging sensor, wherein the circuitry is configured to: obtain compressive sensing image data from the compressive imaging sensor; set a device attribute based on image attribute data, wherein the image attribute data are based on a machine learning algorithm performed in the compressing domain on the obtained compressive sensing image data, and wherein the machine learning algorithm is based on an artificial neural network configured to use the obtained compressive sensing image data as input and to output the image attribute data; and control the compressive sensing capturing device based on the set device attribute; wherein the controlling of the compressive sensing capturing device based on the set device attribute includes at least one of controlling optical elements for autofocus, auto-adjustment of luminance, shutter speed for setting illumination time, aperture size for illumination, auto-choosing of a shoot mode for picture/video mode, auto-choosing of flash mode, and tracking an object for autofocus. obtain compressive sensing image data from the compressive imaging sensor; set a device attribute based on image attribute data, wherein the image attribute data are based on a machine learning algorithm performed in the compressing domain on the obtained compressive sensing image data, and wherein the machine learning algorithm is based on an artificial neural network configured to use the obtained compressive sensing image data as input and to output the image attribute data; and wherein the image attribute data are based on a machine learning algorithm performed in the compressing domain on the obtained compressive sensing image data, and wherein the machine learning algorithm is based on an artificial neural network configured to use the obtained compressive sensing image data as input and to output the image attribute data; and control the compressive sensing capturing device based on the set device attribute; wherein the controlling of the compressive sensing capturing device based on the set device attribute includes at least one of controlling optical elements for autofocus, auto-adjustment of luminance, shutter speed for setting illumination time, aperture size for illumination, auto-choosing of a shoot mode for picture/video mode, auto-choosing of flash mode, and tracking an object for autofocus.