mhurhangee/patent-ind-claim-en huggingface dataset:
A method at a network node configured for operation in a communication network , the method comprising: obtaining historic usage data relating to a previous session from a database , for at least one of a first party and a second party involved in a chargeable event in the communication network ; determining a credit reservation quantity as a function of the historic usage data; and requesting or making a credit reservation from a subscriber account according to the credit reservation quantity, the subscriber account being associated with one of the first and second parties and the credit reservation being associated with initiating or continuing the chargeable event: characterized in that the database comprises historical usage data for a plurality of parties, indexed as a function of party identifiers, and wherein obtaining the historic usage data comprises accessing the database according to one or more identifiers associated with at least one of the first party and the second party. obtaining historic usage data relating to a previous session from a database , for at least one of a first party and a second party involved in a chargeable event in the communication network ; determining a credit reservation quantity as a function of the historic usage data; and requesting or making a credit reservation from a subscriber account according to the credit reservation quantity, the subscriber account being associated with one of the first and second parties and the credit reservation being associated with initiating or continuing the chargeable event: characterized in that the database comprises historical usage data for a plurality of parties, indexed as a function of party identifiers, and wherein obtaining the historic usage data comprises accessing the database according to one or more identifiers associated with at least one of the first party and the second party.
A method for simulating sensor data of a continuous wave, CW, Light Detection and Ranging, lidar, sensor, comprising the steps: generating a ray set comprising at least one ray, based on a CW signal , each ray in the ray set having an emission starting time, t_0 and an emission duration, T; propagating, using ray-tracing for each ray in the ray set, the ray through a simulated scene comprising at least one object; computing, for each ray in the ray set, a signal contribution of the propagated ray at a detection location in the simulated scene ; generating an output signal, based on mixing the CW signal with the computed signal contributions of the rays in the ray set, wherein the CW signal generally differs from the computed signal contributions of the rays in the ray set by a phase shift corresponding to the travel time of the ray; and at least one of storing and outputting the output signal . generating a ray set comprising at least one ray, based on a CW signal , each ray in the ray set having an emission starting time, t_0 and an emission duration, T; propagating, using ray-tracing for each ray in the ray set, the ray through a simulated scene comprising at least one object; computing, for each ray in the ray set, a signal contribution of the propagated ray at a detection location in the simulated scene ; generating an output signal, based on mixing the CW signal with the computed signal contributions of the rays in the ray set, wherein the CW signal generally differs from the computed signal contributions of the rays in the ray set by a phase shift corresponding to the travel time of the ray; and at least one of storing and outputting the output signal .
A method for operating a mobile station, MS, in a wireless communication system, the method comprising: transmitting , to a base station, BS, a first uplink, UL, reference signal using a plurality of transmit, Tx, beams of the MS; receiving , from the BS, feedback information indicating a first Tx beam of the MS among the plurality of Tx beams of the MS; transmitting , to the BS, a second UL reference signal using the first Tx beam; receiving , from the BS, feedback information indicating a first beamwidth and a first beam gain for a second Tx beam of the MS; determining an UL Tx power value based on a difference value between the first beam gain of the second Tx beam of the MS and a second beam gain of a receive, Rx, beam of the MS, wherein the difference value is used for compensating a path loss between the MS and the BS; and transmitting , to the BS, an UL signal using the second Tx beam with the first beam width and the first beam gain based on the determined UL Tx power value; wherein the Rx beam of the MS is identified for receiving a downlink, DL, reference signal among a plurality of Rx beams of the MS, wherein the DL reference signal is used for measuring the path loss, and wherein the first beamwidth is different from a second beamwidth for the Rx beam of the MS. transmitting , to a base station, BS, a first uplink, UL, reference signal using a plurality of transmit, Tx, beams of the MS; receiving , from the BS, feedback information indicating a first Tx beam of the MS among the plurality of Tx beams of the MS; transmitting , to the BS, a second UL reference signal using the first Tx beam; receiving , from the BS, feedback information indicating a first beamwidth and a first beam gain for a second Tx beam of the MS; determining an UL Tx power value based on a difference value between the first beam gain of the second Tx beam of the MS and a second beam gain of a receive, Rx, beam of the MS, wherein the difference value is used for compensating a path loss between the MS and the BS; and transmitting , to the BS, an UL signal using the second Tx beam with the first beam width and the first beam gain based on the determined UL Tx power value; wherein the Rx beam of the MS is identified for receiving a downlink, DL, reference signal among a plurality of Rx beams of the MS, wherein the DL reference signal is used for measuring the path loss, and wherein the first beamwidth is different from a second beamwidth for the Rx beam of the MS.
A system comprising: a family of local radio frequency (RF) coils, each local RF coil including a number of RF coil elements and being configured to be used with a same detachable magnetic resonance (MR) receiver block ; the system further comprising the detachable MR receiver block which includes: at least one galvanic connector which is adapted for connecting in a connected configuration to a radio frequency (RF) coil element of any one of the local RF coils of the family, respectively, to receive MR signals; at least one digitizer connected to the at least one galvanic connector , the at least one digitizer being adapted for converting the received MR signals to a digital format; a power supply connected to the at least one digitizer which is adapted for providing power to operate the at least one digitizer; and a receiver block housing configured to removably attach to a housing of any one of the local RF coils of the family in the connected configuration, the receiver block housing enclosing the at least one galvanic connector and the at least one digitizer . a family of local radio frequency (RF) coils, each local RF coil including a number of RF coil elements and being configured to be used with a same detachable magnetic resonance (MR) receiver block ; the system further comprising the detachable MR receiver block which includes: at least one galvanic connector which is adapted for connecting in a connected configuration to a radio frequency (RF) coil element of any one of the local RF coils of the family, respectively, to receive MR signals; at least one digitizer connected to the at least one galvanic connector , the at least one digitizer being adapted for converting the received MR signals to a digital format; a power supply connected to the at least one digitizer which is adapted for providing power to operate the at least one digitizer; and a receiver block housing configured to removably attach to a housing of any one of the local RF coils of the family in the connected configuration, the receiver block housing enclosing the at least one galvanic connector and the at least one digitizer .
A method of adjusting roller gaps in a speed reducer comprising a fixed internal gear formed with internal teeth on an inner periphery of the internal gear , an input shaft , at least one eccentric disk mounted on the input shaft at an end portion of the input shaft so as to be rotatable inside the internal gear , at least one rolling bearing mounted on a radially outer surface of the eccentric disk , an output shaft arranged coaxial with the input shaft , a cage mounted at an end of the output shaft facing the input shaft so as to be rotatable between the internal gear and the rolling bearing , wherein the cage has a portion radially facing the rolling bearing and formed with circumferentially equidistantly spaced apart pockets which are fewer in number than the internal teeth of the internal gear , and rollers received in the respective pockets so as to mesh with the internal teeth , whereby when the input shaft is rotated once, each of the rollers circumferentially moves by a distance equal to a circumferential width of one internal tooth while kept in meshing engagement with the internal tooth , due to eccentric rotation of the eccentric disk , causing the output shaft to be rotated at a reduced speed, characterized in that the size (δ 1 ) of roller gaps defined between the rollers and tooth bottoms of the internal gear are adjusted within a range of 0 to 20 μm by measuring beforehand a root radius (A) of the internal gear , a radius (B) of a circumcircle of the rolling bearing , the circumcircle having a center lying on a center axis of the input shaft , and an outer diameter (C) of the rollers , and the radius (B) of the circumcircle of the rolling bearing is measured by directly measuring a radially outer surface of an outer race of the rolling bearing , with the rolling bearing fitted on a radially outer surface of the eccentric disk .
A method performed by a direct memory access (DMA) engine disposed in a system having components that include a plurality of central processing units (CPUs) , one or more memory devices, one or more remote DMA engines , and an interconnect that provides interconnections among the components, the method comprising: creating a dependency pairing between descriptors in the system, the descriptors describing DMA-facilitated data movement among components over the interconnect, the dependencies being between one or more master descriptors and one or more slave descriptors; when a master descriptor is next in a queue for processing, polling a memory that stores handshake bits between master descriptors and slave descriptors, the handshake bits including a master bit configured for toggling by a master descriptor and a slave bit configured for toggling by a slave descriptor ; if the polling indicates that the handshake bits are mismatching, then holding processing of the master descriptor that is next in the queue for processing; and if the polling indicates that the handshake bits are matching, then enabling processing of the master descriptor that is next in the queue for processing. creating a dependency pairing between descriptors in the system, the descriptors describing DMA-facilitated data movement among components over the interconnect, the dependencies being between one or more master descriptors and one or more slave descriptors; when a master descriptor is next in a queue for processing, polling a memory that stores handshake bits between master descriptors and slave descriptors, the handshake bits including a master bit configured for toggling by a master descriptor and a slave bit configured for toggling by a slave descriptor ; if the polling indicates that the handshake bits are mismatching, then holding processing of the master descriptor that is next in the queue for processing; and if the polling indicates that the handshake bits are matching, then enabling processing of the master descriptor that is next in the queue for processing.
Bolt tensioning device for preloading and loosening high-strength preloadable threaded connections, consisting of a high-pressure hydraulic pump and a bolt tensioning cylinder having a working piston which is screwable onto a threaded shank of the bolt to be tensioned, characterized in that a high-pressure hydraulic pump is integrated inside the bolt tensioning cylinder , the high-pressure hydraulic pump is coupled with a hydraulic accumulator , a pneumatically operable drive is disposed on or inside the bolt tensioning cylinder , wherein the pneumatic drive is designed based on a diaphragm cylinder or a piston cylinder, the pneumatically operable drive drives a high-pressure piston and the pneumatic drive is coupled with a compressed air feeding device.
A polishing tool for polishing a spectacle lens (L) in a surface machining process, comprising a tool body for being rotatably supported about a rotational axis (RA1), wherein the tool body comprises a polishing surface being outwardly exposed at a first axial end of the tool body , the polishing surface being axially bulged convexly or concavely with respect to the rotational axis (RA1) for polishing an optical surface (L1, L2) of the spectacle lens (L), wherein the tool body comprises a channel extending axially through the tool body from an inlet , which is provided at a second axial end being opposite to the first axial end with respect to the rotational axis (RA1), to an outlet , which is provided at the first axial end , to supply the polishing surface with a polishing agent, characterized in that the polishing surface comprises at least one groove that extends radially away from the outlet , the outlet being the groove's starting point, to the perimeter of the polishing surface to distribute the polishing agent across the polishing surface . wherein the tool body comprises a polishing surface being outwardly exposed at a first axial end of the tool body , the polishing surface being axially bulged convexly or concavely with respect to the rotational axis (RA1) for polishing an optical surface (L1, L2) of the spectacle lens (L), wherein the tool body comprises a channel extending axially through the tool body from an inlet , which is provided at a second axial end being opposite to the first axial end with respect to the rotational axis (RA1), to an outlet , which is provided at the first axial end , to supply the polishing surface with a polishing agent, characterized in that the polishing surface comprises at least one groove that extends radially away from the outlet , the outlet being the groove's starting point, to the perimeter of the polishing surface to distribute the polishing agent across the polishing surface .
An active energy ray-curable resin composition, comprising: (A) 100 parts by mass of a polyfunctional (meth)acrylate; (B) 0.2 to 4 parts by mass of a compound having an alkoxysilyl group and a (meth)acryloyl group; (C) 0.05 to 3 parts by mass of an organotitanium; (D) 5 to 100 parts by mass of microparticles having an average particle diameter of 1 to 300 nm, wherein the average particle diameter of the microparticles is a particle diameter at which the cumulation from the smaller side of the particle diameter becomes 50% by mass in a particle diameter distribution curve measured using a laser diffraction/scattering particle size analyzer; and (E) 0.01 to 7 parts by mass of a water repellant. (A) 100 parts by mass of a polyfunctional (meth)acrylate; (B) 0.2 to 4 parts by mass of a compound having an alkoxysilyl group and a (meth)acryloyl group; (C) 0.05 to 3 parts by mass of an organotitanium; (D) 5 to 100 parts by mass of microparticles having an average particle diameter of 1 to 300 nm, wherein the average particle diameter of the microparticles is a particle diameter at which the cumulation from the smaller side of the particle diameter becomes 50% by mass in a particle diameter distribution curve measured using a laser diffraction/scattering particle size analyzer; and (E) 0.01 to 7 parts by mass of a water repellant.
Process for synthesizing a polymer bearing at least one phosphonate group in the polymer chain, said process comprising at least the reaction of a starting polymer bearing at least one nucleophilic function in the polymer chain with at least one electrophilic compound bearing both a phosphonate group and an electrophilic function characterized in that the electrophilic compound bearing both a phosphonate group and an electrophilic function has the general formula (I) A-B-X (I) in which: - A represents an electrophilic function selected from the halide function, the acyl halide function, the acyl chloride function, the carboxylic acid function, the ester function and the isocyanate function, - B is a spacer representing a (C 1 -C 24 )alkanediyl, - X represents a phosphonate group -P(O)(OR 1 )(OR 2 ) with R 1 and R 2 being identical or different and selected from a hydrogen atom or a hydrocarbon-based chain having from 1 to 6 carbon atoms. - A represents an electrophilic function selected from the halide function, the acyl halide function, the acyl chloride function, the carboxylic acid function, the ester function and the isocyanate function, - B is a spacer representing a (C 1 -C 24 )alkanediyl, - X represents a phosphonate group -P(O)(OR 1 )(OR 2 ) with R 1 and R 2 being identical or different and selected from a hydrogen atom or a hydrocarbon-based chain having from 1 to 6 carbon atoms.
An atomizer, comprising a glass tube and a cartridge , wherein the cartridge is disposed in the glass tube ; the cartridge comprises a side wall; and a lower end of the side wall comprises an air inlet and an air outlet ; wherein the side wall of the cartridge further comprises an e-liquid inlet disposed above the air inlet and the air outlet ; the atomizer further comprising a heating wire disposed in a lower end of the cartridge ; the atomizer further comprising a base ; wherein a bottom end of the glass tube abuts against the base ; the lower end of the cartridge is fixed in the base ; the air inlet and the air outlet are covered by a lower end of the base for separation of e-liquid; wherein the base comprises an air hole; and wherein the atomizer is configured such that, in use: e-liquid flows to the heating wire via the e-liquid inlet of the cartridge and is heated by the heating wire to produce vapor, and meanwhile bubbles are produced; the bubbles are discharged from the air outlet , thus preventing the bubbles from occupying the cavity of the atomizer so that the e-liquid can flow into the atomizer freely; and air enters the base via the air hole, and then flows into the cartridge via the air inlet on the lower end of the cartridge , to drive the vapor produced by the heating wire to flow from the top opening of the cartridge . an air outlet ; wherein the side wall of the cartridge further comprises an e-liquid inlet disposed above the air inlet and the air outlet ; the atomizer further comprising a heating wire disposed in a lower end of the cartridge ; the atomizer further comprising a base ; wherein a bottom end of the glass tube abuts against the base ; the lower end of the cartridge is fixed in the base ; the air inlet and the air outlet are covered by a lower end of the base for separation of e-liquid; wherein the base comprises an air hole; and wherein the atomizer is configured such that, in use: e-liquid flows to the heating wire via the e-liquid inlet of the cartridge and is heated by the heating wire to produce vapor, and meanwhile bubbles are produced; the bubbles are discharged from the air outlet , thus preventing the bubbles from occupying the cavity of the atomizer so that the e-liquid can flow into the atomizer freely; and air enters the base via the air hole, and then flows into the cartridge via the air inlet on the lower end of the cartridge , to drive the vapor produced by the heating wire to flow from the top opening of the cartridge . e-liquid flows to the heating wire via the e-liquid inlet of the cartridge and is heated by the heating wire to produce vapor, and meanwhile bubbles are produced; the bubbles are discharged from the air outlet , thus preventing the bubbles from occupying the cavity of the atomizer so that the e-liquid can flow into the atomizer freely; and air enters the base via the air hole, and then flows into the cartridge via the air inlet on the lower end of the cartridge , to drive the vapor produced by the heating wire to flow from the top opening of the cartridge .
A thin film transistor, comprising a gate electrode, a gate insulation layer, a semiconductor active layer, a source electrode and a drain electrode provided on a base substrate, wherein at least one of the gate electrode and a combination of the source electrode and the drain electrode is made of Cu or Cu alloy; wherein the thin film transistor further comprises an anti-oxidization layer made of a topological insulator material, the anti-oxidization layer being provided above and in contact with the at least one of the gate electrode and the combination of the source electrode and the drain electrode made of Cu or Cu alloy, wherein the semiconductor active layer is an active layer of nitrogen doped graphene, wherein the gate insulation layer comprises a first silicon nitride layer in contact with the active layer of nitrogen doped graphene, a second silicon nitride layer and a silicon dioxide layer between the first silicon nitride layer and the second silicon nitride layer; the anti-oxidization layer comprises a first anti-oxidization layer provided above and in contact with the gate electrode, and the second silicon nitride layer is in contact with the first anti-oxidization layer.
An adeno-associated viral (AAV) vector comprising a polynucleotide, said polynucleotide comprising a transgene expression cassette, comprising (a) a nucleic acid encoding the promoter of human rhodopsin gene (hRHO); (b) a nucleic acid encoding the human phosphodiesterase 6A cGMP-specific rod alpha subunit (hPDE6A) or fragments thereof exhibiting hPDE6A activity, and (c) a nucleic acid encoding regulatory elements, wherein said AAV vector is a circular plasmid further comprising a backbone having a length of ≥ 5,000 bp and wherein said AAV vector further comprises a nucleic acid encoding inverted terminal repeats (ITRs) flanking said transgene expression cassette. a transgene expression cassette, comprising (a) a nucleic acid encoding the promoter of human rhodopsin gene (hRHO); (b) a nucleic acid encoding the human phosphodiesterase 6A cGMP-specific rod alpha subunit (hPDE6A) or fragments thereof exhibiting hPDE6A activity, and (c) a nucleic acid encoding regulatory elements, (a) a nucleic acid encoding the promoter of human rhodopsin gene (hRHO); (b) a nucleic acid encoding the human phosphodiesterase 6A cGMP-specific rod alpha subunit (hPDE6A) or fragments thereof exhibiting hPDE6A activity, and (c) a nucleic acid encoding regulatory elements, wherein said AAV vector is a circular plasmid further comprising a backbone having a length of ≥ 5,000 bp and wherein said AAV vector further comprises a nucleic acid encoding inverted terminal repeats (ITRs) flanking said transgene expression cassette.