mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal supporting downlink carrier aggregation and not supporting concurrent transmission of uplink signals including Sounding Reference Signal, SRS, transmission in a plurality of component carriers, the terminal comprising: a transmission section configured to transmit an SRS; and a control section configured to control switching between a first carrier on a first band and a second carrier on a second band which is different from the first band to transmit the SRS, wherein Time Division Duplex is applied by the terminal to the first carrier and the second carrier, wherein the transmission section is configured to transmit, as capability information of the terminal , at least one of: information indicating supporting an SRS carrier based switching operation comprising performing uplink transmission in a first subframe of the first carrier, switching from the first carrier to the second carrier, transmitting the SRS in a last symbol of the first subframe and switching to the first carrier again to perform uplink transmission in a next subframe; and information indicating supporting an SRS carrier based switching operation comprising transmission of the SRS in the second carrier, during downlink reception in the first carrier, and wherein the first carrier is a PCell and the second carrier is a SCell. a transmission section configured to transmit an SRS; and a control section configured to control switching between a first carrier on a first band and a second carrier on a second band which is different from the first band to transmit the SRS, wherein Time Division Duplex is applied by the terminal to the first carrier and the second carrier, wherein the transmission section is configured to transmit, as capability information of the terminal , at least one of: information indicating supporting an SRS carrier based switching operation comprising performing uplink transmission in a first subframe of the first carrier, switching from the first carrier to the second carrier, transmitting the SRS in a last symbol of the first subframe and switching to the first carrier again to perform uplink transmission in a next subframe; and information indicating supporting an SRS carrier based switching operation comprising transmission of the SRS in the second carrier, during downlink reception in the first carrier, and wherein the first carrier is a PCell and the second carrier is a SCell. information indicating supporting an SRS carrier based switching operation comprising performing uplink transmission in a first subframe of the first carrier, switching from the first carrier to the second carrier, transmitting the SRS in a last symbol of the first subframe and switching to the first carrier again to perform uplink transmission in a next subframe; and information indicating supporting an SRS carrier based switching operation comprising transmission of the SRS in the second carrier, during downlink reception in the first carrier, and wherein the first carrier is a PCell and the second carrier is a SCell.
A thermoplastic composition with improved electroplate adhesion comprising, based on the total weight of the composition, from 45 wt.% to 68 wt.% of one or more polycarbonate resins, from 31 wt.% to 48 wt.% of a first impact modifier, and from 1 wt.% to 7 wt.% of a second impact modifier; wherein the composition exhibits an adhesion value at least 10% greater than that of a reference composition consisting essentially of substantially the same proportions of the same polycarbonate polymer and the same first impact modifier, wherein the first impact modifier is an acrylonitrile butadiene styrene terpolymer; and the second impact modifier is an acrylonitrile butadiene styrene terpolymer different than the first impact modifier, and the second impact modifier is an emulsion polymerized acrylonitrile butadiene styrene.
A process comprising: receiving light through an input face of a polarizing beamsplitter ("PBS") , wherein the light is in a selected waveband and is incident on the input face at an angle of incidence; splitting the received light into a first beam having substantially a first polarization and a second beam having substantially a second polarization, wherein the splitting of the received light has a substantially flat efficiency over the waveband for a particular range of the angles of incidence by trading off high polarization contrast in the first beam and the second beam and the polarizing beam splitter efficiency against the substantially flat efficiency; directing the first beam to a first output face of the PBS and directing the second beam to a second output face of the PBS; directing the first beams through an anti-reflective coating sandwiched between the first output face to which the first beam is directed and a linear polarizer coupled to the first output face and directing the second beam through an anti-reflective coating sandwiched between the second output face to which the second beam is directed and a further linear polarizer coupled to the second output face; and recovering polarization contrast in the first and second beams traded off at the splitting by passing the first and second beams through the respective linear polarizer coupled to the respective output face. receiving light through an input face of a polarizing beamsplitter ("PBS") , wherein the light is in a selected waveband and is incident on the input face at an angle of incidence; splitting the received light into a first beam having substantially a first polarization and a second beam having substantially a second polarization, wherein the splitting of the received light has a substantially flat efficiency over the waveband for a particular range of the angles of incidence by trading off high polarization contrast in the first beam and the second beam and the polarizing beam splitter efficiency against the substantially flat efficiency; directing the first beam to a first output face of the PBS and directing the second beam to a second output face of the PBS; directing the first beams through an anti-reflective coating sandwiched between the first output face to which the first beam is directed and a linear polarizer coupled to the first output face and directing the second beam through an anti-reflective coating sandwiched between the second output face to which the second beam is directed and a further linear polarizer coupled to the second output face; and recovering polarization contrast in the first and second beams traded off at the splitting by passing the first and second beams through the respective linear polarizer coupled to the respective output face.
A photosensitive composition comprising a plurality of nanosized fluorescent material, a (meth)acrylic polymer and a wetting and dispersing agent comprising an anchoring group, wherein the anchoring group is a tertiary amine represented by following chemical formula (I), -NR 1 R 2 - (I) wherein in the chemical formula (I), R 1 is a hydrogen atom, an alkyl group having 1 to 30 carbon atoms, or an aryl group having 1 to 30 atoms; R 2 is a hydrogen atom, an alkyl group having 1 to 30 carbon atoms, or an aryl group having 1 to 30 carbon atoms; R 1 and R 2 can be same or different of each other; and the wetting and dispersing agent is a copolymer selected from the group consisting of graft copolymers, block copolymers, alternating copolymers, and random copolymers.
A nucleic acid molecule comprising an adeno-associated virus expression vector (AAV vector) for use in a method of treating a disease caused by a mutation to LMNA, wherein the AAV vector comprises an operably linked transgene, wherein expression of the transgene in a transfected cell results in disruption of a Linker of Nucleoskeleton and Cytoskeleton (LINC) complex in the transfected cell, and wherein the transgene comprises nucleic acid sequences for expressing the SUN domain of a SUN domain-containing protein, an N-terminal signal sequence, a signal peptidase cleavage site, and a C-terminal targeting peptide sequence preventing secretion of a peptide expressed from the transgene.
A turbocharger assembly comprising: a turbine wheel , a turbine housing surrounding at least part of the turbine wheel , a wastegate port defined by the turbine housing and providing a bypass around the turbine wheel , wherein the wastegate port is defined in a section of the turbine housing that has a terminal surface that is flat and annular in shape, a valve plate movable between a first position closing the wastegate port and a number of additional positions opening the wastegate port , the valve plate having a face that faces the wastegate port , and the valve plate mating against the terminal surface when in the first position, a shaft connected to the valve plate and that rotates about an axis at a pivot point, and an arm extending from the shaft to the valve plate , wherein the pivot point and the axis are located on an opposite side of a plane defined by the face from the valve plate , when closed, and a curtain area is arranged radially inside the terminal surface of the section , wherein the curtain area is a flow area defined by a maximum cross-sectional area of an outlet of the wastegate port , wherein the valve plate and the arm are arranged to be completely out of the curtain area in an open position, such that an obstructed area is eliminated. a turbine wheel , a turbine housing surrounding at least part of the turbine wheel , a wastegate port defined by the turbine housing and providing a bypass around the turbine wheel , wherein the wastegate port is defined in a section of the turbine housing that has a terminal surface that is flat and annular in shape, a valve plate movable between a first position closing the wastegate port and a number of additional positions opening the wastegate port , the valve plate having a face that faces the wastegate port , and the valve plate mating against the terminal surface when in the first position, a shaft connected to the valve plate and that rotates about an axis at a pivot point, and an arm extending from the shaft to the valve plate , wherein the pivot point and the axis are located on an opposite side of a plane defined by the face from the valve plate , when closed, and a curtain area is arranged radially inside the terminal surface of the section , wherein the curtain area is a flow area defined by a maximum cross-sectional area of an outlet of the wastegate port , wherein the valve plate and the arm are arranged to be completely out of the curtain area in an open position, such that an obstructed area is eliminated.
A tooling for producing scallops and fastening holes of a clamp of a disc by electrochemical machining using an electrolyte, the tooling comprising: an annular support tray to receive said disc; lower and upper shields configured to protect said disc from splashes of the electrolyte; a clamping lock to hold said disc in position during the machining; and a die-sinking tool comprising in a substantially cylindrical insulating body a first and a second coaxial conductive cathode, said first and second cathodes being rigidly fastened to each other, characterized in that the first annular cathode includes at an external periphery a plurality of radial machining protrusions of a shape complementary to that of the scallops to be machined and the second cathode includes, on the same circumference external to the first cathode relative to the central axis of the disc, a plurality of axial machining nozzles of a shape similar to that of the fastening holes to be machined .
A resin composite; comprising: 65 to 99 parts by mass of a methacrylic resin (A) that contains no less than 80% by mass of a structural unit derived from methyl methacrylate and that has a melt viscosity η(A) of 1500 to 3500 Pa·s at 220°C and at a shear rate of 122/sec, measured as described in the description; and 1 to 35 parts by mass of a triblock copolymer (B) in which a methacrylic acid ester polymer block (b2) is coupled to each of two ends of an acrylic acid ester polymer block (b1), wherein the triblock copolymer (B) includes 30% to 60% by mass of the acrylic acid ester polymer block (b1) and 40% to 70% by mass of the methacrylic acid ester polymer block (b2), and the triblock copolymer (B) has a melt viscosity η(B) of 75 to 1500 Pa·s at 220°C and at a shear rate of 122/sec, measured as described in the description; and a ratio η(A)/η(B) of the melt viscosity η(A) to the melt viscosity η(B) is from 1 to 20, the resin composite further comprising: with respect to 100 parts by mass of the resin composite, 0.3 to 3 parts by mass of a processing aid that is composed of no less than 60% by mass of a methyl methacrylate unit and no greater than 40% by mass of a vinyl-based monomer unit that can be copolymerized with methyl methacrylate, the processing aid having a mean degree of polymerization of 3,000 to 40,000. 65 to 99 parts by mass of a methacrylic resin (A) that contains no less than 80% by mass of a structural unit derived from methyl methacrylate and that has a melt viscosity η(A) of 1500 to 3500 Pa·s at 220°C and at a shear rate of 122/sec, measured as described in the description; and 1 to 35 parts by mass of a triblock copolymer (B) in which a methacrylic acid ester polymer block (b2) is coupled to each of two ends of an acrylic acid ester polymer block (b1), wherein the triblock copolymer (B) includes 30% to 60% by mass of the acrylic acid ester polymer block (b1) and 40% to 70% by mass of the methacrylic acid ester polymer block (b2), and the triblock copolymer (B) has a melt viscosity η(B) of 75 to 1500 Pa·s at 220°C and at a shear rate of 122/sec, measured as described in the description; and a ratio η(A)/η(B) of the melt viscosity η(A) to the melt viscosity η(B) is from 1 to 20, the resin composite further comprising: with respect to 100 parts by mass of the resin composite, 0.3 to 3 parts by mass of a processing aid that is composed of no less than 60% by mass of a methyl methacrylate unit and no greater than 40% by mass of a vinyl-based monomer unit that can be copolymerized with methyl methacrylate, the processing aid having a mean degree of polymerization of 3,000 to 40,000.
A pipe support structure comprising a support member fabricated from structural steel defining a support surface, and a plurality of pipe support elements fabricated from and/or coated with a corrosion-resistant material, in that the material is more corrosion-resistant than is the structural steel material of the support member ; wherein the support surface defines a plurality of grooves in the support surface of the support member each correspondingly sized and shaped to receive a respective one of the pipe support elements, elements ; with the pipe support element being sized to project beyond its groove when so received, each of the plurality of pipe support elements being respectively received in a complementary groove.
A method for a wireless device operable to place a voice call, the method comprising: connecting with a cellular communication network ; displaying a first indicator associated with the connection to the cellular communication network ; connecting with a wireless Local Area Network, WLAN, while connected to the cellular communication network; displaying a second indicator associated with connection to the WLAN; automatically determining to route a voice call using a selected one of the cellular communication network or the WLAN, wherein the automatic determination is configured to route the voice call using voice over IP, VoIP, over the WLAN based on the wireless device being connected to the WLAN; and in response to the automatic determination, placing the voice call using the selected network. connecting with a cellular communication network ; displaying a first indicator associated with the connection to the cellular communication network ; connecting with a wireless Local Area Network, WLAN, while connected to the cellular communication network; displaying a second indicator associated with connection to the WLAN; automatically determining to route a voice call using a selected one of the cellular communication network or the WLAN, wherein the automatic determination is configured to route the voice call using voice over IP, VoIP, over the WLAN based on the wireless device being connected to the WLAN; and in response to the automatic determination, placing the voice call using the selected network.
A method comprising: receiving, by a wireless device, a system information block, SIB, comprising a value of a scheduling request, SR, delay timer; receiving, in a radio resource control, RRC, connected state, an RRC message comprising a parameter indicating the SR delay timer is applied to a logical channel; initiating a small data transmission, SDT, procedure in an RRC inactive state, wherein at least one radio bearer, associated with the logical channel, is configured for the SDT procedure; and in response to triggering, during the SDT procedure, buffer status reporting, BSR, for the logical channel, starting the SR delay timer based on: the parameter indicating the SR delay timer is applied to the logical channel; and the value of the SIB. receiving, by a wireless device, a system information block, SIB, comprising a value of a scheduling request, SR, delay timer; receiving, in a radio resource control, RRC, connected state, an RRC message comprising a parameter indicating the SR delay timer is applied to a logical channel; initiating a small data transmission, SDT, procedure in an RRC inactive state, wherein at least one radio bearer, associated with the logical channel, is configured for the SDT procedure; and in response to triggering, during the SDT procedure, buffer status reporting, BSR, for the logical channel, starting the SR delay timer based on: the parameter indicating the SR delay timer is applied to the logical channel; and the value of the SIB. the parameter indicating the SR delay timer is applied to the logical channel; and the value of the SIB.
A method for removing an oxide film from a silicon-on-insulator structure comprising: providing a silicon-on-insulator structure having a handle structure , a silicon top layer and a dielectric layer disposed between the handle structure and the silicon layer, the silicon-on-insulator structure having an oxide film on a top surface of the silicon-on-insulator structure, the silicon-on-insulator structure having a radius, R, that extends from a center, C, to a circumferential edge, E, of the silicon-on-insulator structure; directing an etching solution to a center region of the top surface of the silicon-on-insulator structure while spinning the silicon-on-insulator structure to etch the oxide film extending from the center to the circumferential edge; and directing an etching solution to an edge region of the top surface of the silicon-on-insulator structure while spinning the silicon-on-insulator structure to etch the oxide film at the edge region; the edge region being disposed radially outward from the center region; whereby at least a portion of the oxide film is removed. providing a silicon-on-insulator structure having a handle structure , a silicon top layer and a dielectric layer disposed between the handle structure and the silicon layer, the silicon-on-insulator structure having an oxide film on a top surface of the silicon-on-insulator structure, the silicon-on-insulator structure having a radius, R, that extends from a center, C, to a circumferential edge, E, of the silicon-on-insulator structure; directing an etching solution to a center region of the top surface of the silicon-on-insulator structure while spinning the silicon-on-insulator structure to etch the oxide film extending from the center to the circumferential edge; and directing an etching solution to an edge region of the top surface of the silicon-on-insulator structure while spinning the silicon-on-insulator structure to etch the oxide film at the edge region; the edge region being disposed radially outward from the center region; whereby at least a portion of the oxide film is removed.
A method for transmitting a physical layer protocol data unit, PPDU, applied in a wireless local area network and comprising: generating, by a first apparatus, a PPDU, wherein the PPDU comprises a preamble, a data field and a signal extension field; wherein the preamble comprises a signaling, SIG, field, and the SIG field comprises indication information, wherein the signal extension field is located behind a last orthogonal frequency division multiplexing, OFDM, symbol of the data field, wherein the indication information indicates whether a second apparatus needs to subtract 1 from a quantity M1 of OFDM symbols calculated by the second apparatus; where a first value of the indication information indicates to the second apparatus to keep M1 unchanged, and a second value of the indication information indicates to the second apparatus to subtract 1 from M1; sending, by the first apparatus, the PPDU to the second apparatus. generating, by a first apparatus, a PPDU, wherein the PPDU comprises a preamble, a data field and a signal extension field; wherein the preamble comprises a signaling, SIG, field, and the SIG field comprises indication information, wherein the signal extension field is located behind a last orthogonal frequency division multiplexing, OFDM, symbol of the data field, wherein the indication information indicates whether a second apparatus needs to subtract 1 from a quantity M1 of OFDM symbols calculated by the second apparatus; where a first value of the indication information indicates to the second apparatus to keep M1 unchanged, and a second value of the indication information indicates to the second apparatus to subtract 1 from M1; sending, by the first apparatus, the PPDU to the second apparatus.
A process for preparing a dispersion of graphene in polymethylsiloxane (PDMS) by simultaneous application of ultrasound and vacuum, characterized in that the process comprises the following steps: A) separate preparation of PDMS and graphene and/or its derivatives, wherein the PDMS and graphene and/or its derivatives are diluted with organic solvents to give a dispersion of graphene and/or its derivatives in the organic solvent and the PDMS swollen with the organic solvent; B) adding a dispersion of graphene and/or its derivatives in an organic solvent to the PDMS swollen with an organic solvent to produce a mixture of PDMS, solvent and graphene and/or its derivatives; C) treating the mixture of step B) by simultaneous application of ultrasound and vacuum, wherein the organic solvent is evaporated to obtain a dispersion of PDMS and graphene and/or its derivatives, wherein the graphene derivatives are chemically modified graphenes, preferably chemically modified graphene derivatives based on noble metals. A) separate preparation of PDMS and graphene and/or its derivatives, wherein the PDMS and graphene and/or its derivatives are diluted with organic solvents to give a dispersion of graphene and/or its derivatives in the organic solvent and the PDMS swollen with the organic solvent; B) adding a dispersion of graphene and/or its derivatives in an organic solvent to the PDMS swollen with an organic solvent to produce a mixture of PDMS, solvent and graphene and/or its derivatives; C) treating the mixture of step B) by simultaneous application of ultrasound and vacuum, wherein the organic solvent is evaporated to obtain a dispersion of PDMS and graphene and/or its derivatives,
A composite material containing zerovalent iron particles having the dimensions of 5 to 500 nm, characterized in that it consists of a cellulose fibrous host material selected from a cotton-fiber cloth, a linen-fiber cloth, and a filter paper, and zerovalent iron particles having the dimensions of 5 to 500 nm, said particles consisting of iron.