mhurhangee/patent-ind-claim-en huggingface dataset:
A voice service handover method, comprising: receiving (S504; S604; S904), by a mobility management entity, MME, a connection exception message sent by a first network device in a network side of a Long Term Evolution, LTE, network, wherein the network side is a network from an evolved NodeB to a packet data network gateway, wherein the connection exception message is used to feed back a result that an exception occurs on a user plane connection, and the connection exception message comprises an evolved packet system, EPS, bearer identity of a user equipment, UE, that performs service transmission by using the user plane connection; determining (S505; S605; S905), by the MME according to the EPS bearer identity of the UE that performs service transmission by using the user plane connection, a UE whose voice bearer is established on the network side of the LTE network and that supports SRVCC handover as target UE; and sending (S102; S506; S606; S806; S906), by the MME to an evolved NodeB, eNodeB, a single radio voice call continuity, SRVCC, handover request message that carries an identifier of the target UE, so that the eNodeB hands over a voice service of the target UE from the LTE network to a circuit switched CS network. receiving (S504; S604; S904), by a mobility management entity, MME, a connection exception message sent by a first network device in a network side of a Long Term Evolution, LTE, network, wherein the network side is a network from an evolved NodeB to a packet data network gateway, wherein the connection exception message is used to feed back a result that an exception occurs on a user plane connection, and the connection exception message comprises an evolved packet system, EPS, bearer identity of a user equipment, UE, that performs service transmission by using the user plane connection; determining (S505; S605; S905), by the MME according to the EPS bearer identity of the UE that performs service transmission by using the user plane connection, a UE whose voice bearer is established on the network side of the LTE network and that supports SRVCC handover as target UE; and sending (S102; S506; S606; S806; S906), by the MME to an evolved NodeB, eNodeB, a single radio voice call continuity, SRVCC, handover request message that carries an identifier of the target UE, so that the eNodeB hands over a voice service of the target UE from the LTE network to a circuit switched CS network.
An acoustic attenuation panel for a propulsion unit comprising a nacelle and a turbojet engine, the panel comprising a cellular core disposed between an inner skin and an outer skin , called acoustic skin, the acoustic skin comprising a plurality of acoustic apertures , the acoustic apertures being inclined, at a non-zero inclination angle (β) relative to the direction normal to the acoustic skin, upstream with respect to the flow direction of the air or gas flow to which the panel is intended to be subjected under normal operating conditions, that is to say upstream of the propulsion unit when said panel is mounted in such a unit, characterized in that the inclination angle (β), or drilling angle (β), is comprised between 10° and 40°.
A method of providing end sealing for an elongate lighting module (M; M1, M2) having an exposed end surface (E; E1, E2) and a front light emitting surface (S), the method including: - a) providing an end cap (10; 100) wherein the end cap (10; 100) includes: - a body wall for abutment against said end surface (E; E1, E2), and - at least one peripheral wall (14; 141, 142) extending sidewise of said body wall and around said body wall , the at least one peripheral wall (14; 141, 142) having at least one discontinuity therein (14a; 141a, 142a) positionable at said front light emitting surface (S), wherein said body wall includes at least one sealing mass reception cavity facing towards said at least one peripheral wall (14; 141, 142), said at least one sealing mass reception cavity in said body wall located opposite said at least one discontinuity (14a; 141a, 142a) in the at least one peripheral wall (14; 141, 142), - b) coupling said end cap with said exposed end surface (E; E1, E2) by bringing said body wall in abutment against said exposed end surface (E; E1, E2) with said at least one peripheral wall (14; 141, 142) extending around said exposed end surface (E; E1, E2) and said at least one discontinuity (14a; 141a, 142a) positioned at said front light emitting surface (S), the method including dispensing sealing material between said body wall and the exposed end surface or surfaces (E; E1, E2) against which said body wall is abutted. - a) providing an end cap (10; 100) wherein the end cap (10; 100) includes: - a body wall for abutment against said end surface (E; E1, E2), and - at least one peripheral wall (14; 141, 142) extending sidewise of said body wall and around said body wall , the at least one peripheral wall (14; 141, 142) having at least one discontinuity therein (14a; 141a, 142a) positionable at said front light emitting surface (S), wherein said body wall includes at least one sealing mass reception cavity facing towards said at least one peripheral wall (14; 141, 142), said at least one sealing mass reception cavity in said body wall located opposite said at least one discontinuity (14a; 141a, 142a) in the at least one peripheral wall (14; 141, 142), - a body wall for abutment against said end surface (E; E1, E2), and - at least one peripheral wall (14; 141, 142) extending sidewise of said body wall and around said body wall , the at least one peripheral wall (14; 141, 142) having at least one discontinuity therein (14a; 141a, 142a) positionable at said front light emitting surface (S), - b) coupling said end cap with said exposed end surface (E; E1, E2) by bringing said body wall in abutment against said exposed end surface (E; E1, E2) with said at least one peripheral wall (14; 141, 142) extending around said exposed end surface (E; E1, E2) and said at least one discontinuity (14a; 141a, 142a) positioned at said front light emitting surface (S), the method including dispensing sealing material between said body wall and the exposed end surface or surfaces (E; E1, E2) against which said body wall is abutted.
A submerged arc welding method of 5Ni steel for shipbuilding, comprising using 5Ni steel with a tensile strength of 630-670 MPa as base material for splicing, wherein the to-be-spliced base material has a transverse impact toughness value of ≥ 180 J at -130 °C; a matching welding material is, a welding material with a tensile strength of 630-710 MPa, wherein a welding wire has a diameter of Φ2.4 mm or more and belongs to a product model of INCO-WELD Filler Metal C-276, and a flux is INCOFLUX 9; wherein the welding wire has following chemical composition in mass percentage, C: ≤0.03%, Si: 0.10-0.40%, Mn: 0.2-1.0%, P: 0.020%, S: ≤0.030%, Cr: 14-18%, Ni: 53-60%, W: 3.0-4.5%, Fe: 4.0-7.0%, Mo: 15.0-17.0%, and the balance is unavoidable impurity elements; the to-be-spliced material uses a K-shaped groove as groove for the submerged arc welding; welding parameters: welding current is 410±10 A, welding voltage is 32±1 V, welding speed is 27±2 cm/min, welding energy is 30±3 KJ/cm; continuously welding abutting joints of to-be-spliced base materials wherein the base materials have the same plate thickness, until the weld seam is filled; after each pass of welding, using a wire brush to clean weld bead; a flux baking is performed at 350°C×1h; an interpass temperature is controlled to be ≤ 80°C. using 5Ni steel with a tensile strength of 630-670 MPa as base material for splicing, wherein the to-be-spliced base material has a transverse impact toughness value of ≥ 180 J at -130 °C; a matching welding material is, a welding material with a tensile strength of 630-710 MPa, wherein a welding wire has a diameter of Φ2.4 mm or more and belongs to a product model of INCO-WELD Filler Metal C-276, and a flux is INCOFLUX 9; wherein the welding wire has following chemical composition in mass percentage, C: ≤0.03%, Si: 0.10-0.40%, Mn: 0.2-1.0%, P: 0.020%, S: ≤0.030%, Cr: 14-18%, Ni: 53-60%, W: 3.0-4.5%, Fe: 4.0-7.0%, Mo: 15.0-17.0%, and the balance is unavoidable impurity elements; the to-be-spliced material uses a K-shaped groove as groove for the submerged arc welding; welding parameters: welding current is 410±10 A, welding voltage is 32±1 V, welding speed is 27±2 cm/min, welding energy is 30±3 KJ/cm; continuously welding abutting joints of to-be-spliced base materials wherein the base materials have the same plate thickness, until the weld seam is filled; after each pass of welding, using a wire brush to clean weld bead; a flux baking is performed at 350°C×1h; an interpass temperature is controlled to be ≤ 80°C.
Torque transmission device , notably for a motor vehicle, comprising: - a torque input element rotating about an axis (X), that can be coupled in rotation to a crankshaft of a heat engine, - a first torque output element , that can be coupled in rotation to a first input shaft of a gearbox, - a rotating electrical machine comprising a stator and a rotor disposed, in the direction of torque transmission, between the torque input element and the first output element , - a main hub comprising a top face composed of an inner set of teeth , said main hub being liked to the first output element by a first output clutch , - a rotor support radially supporting the rotor comprising a bottom face facing the main hub composed of an outer set of teeth , said support being linked to the torque input element by an input clutch , characterized in that said inner and outer sets of teeth together form a splined link and each have at least one orifice for the passage of a fluid, the at least one orifice being arranged entirely on a surface portion delimited by two consecutive flanks of each set of teeth. - a torque input element rotating about an axis (X), that can be coupled in rotation to a crankshaft of a heat engine, - a first torque output element , that can be coupled in rotation to a first input shaft of a gearbox, - a rotating electrical machine comprising a stator and a rotor disposed, in the direction of torque transmission, between the torque input element and the first output element , - a main hub comprising a top face composed of an inner set of teeth , said main hub being liked to the first output element by a first output clutch , - a rotor support radially supporting the rotor comprising a bottom face facing the main hub composed of an outer set of teeth , said support being linked to the torque input element by an input clutch ,
A connection, having a shaft, at least partially inserted in a hollow shaft , and a ring part , namely of a clamping ring, placed onto the hollow shaft , wherein the ring part is axially bounded by a collar , formed on the hollow shaft and in particular radially projecting, and/or the ring part rests against a or the collar , formed on the hollow shaft and in particular radially projecting, wherein the hollow shaft has slots, in particular axial slots, spaced apart from the collar , wherein the ring part has a bevel at its inside and/or at its ring opening and/or at its axial end region facing the collar , so that the inner diameter of the ring part is greater in the axial region covered by the bevel than the inner diameter in that axial region in which the ring part contacts the hollow shaft , characterised in that an odd number of radially directed thickened portions are formed on the ring part, so that the outer circumference of the ring part is non-round, wherein the number is three or greater than three, wherein the thickened portions and/or the centres of gravity or central points, fixed in the circumferential direction, of the thickened portions are regularly spaced apart from one another in the circumferential direction.
An information sending method, applied to a terminal device, comprising: obtaining a physical uplink shared channel, PUSCH, transmission occasion; and determining, based on a location relationship between the PUSCH transmission occasion and a slot boundary, whether to send a PUSCH at the PUSCH transmission occasion, wherein the PUSCH corresponds to a random access message. obtaining a physical uplink shared channel, PUSCH, transmission occasion; and determining, based on a location relationship between the PUSCH transmission occasion and a slot boundary, whether to send a PUSCH at the PUSCH transmission occasion, wherein the PUSCH corresponds to a random access message.
A pharmaceutical composition for use as a medicament comprising: an antisense oligomer, and a pharmaceutically acceptable excipient; wherein the antisense oligomer binds to a targeted portion of a pre-mRNA that contains a non-sense mediated RNA decay-inducing exon (NMD exon) and that encodes Nav1.1 protein, whereby the antisense oligomer promotes exclusion of the NMD exon from the pre-mRNA that contains the NMD exon and encodes Nav1.1, thereby increasing the level of processed mRNA encoding the Nav1.1 protein, and increasing the expression of the Nav1.1 protein in a cell having the pre-mRNA, when the cell is treated with the antisense oligomer, as compared to a corresponding control cell not treated with the antisense oligomer, wherein the NMD exon is located at a region from GRCh37/hg19: chr2:166,863,740 to GRCh37/hg19: chr2:166,863,803. an antisense oligomer, and a pharmaceutically acceptable excipient; wherein the antisense oligomer binds to a targeted portion of a pre-mRNA that contains a non-sense mediated RNA decay-inducing exon (NMD exon) and that encodes Nav1.1 protein, whereby the antisense oligomer promotes exclusion of the NMD exon from the pre-mRNA that contains the NMD exon and encodes Nav1.1, thereby increasing the level of processed mRNA encoding the Nav1.1 protein, and increasing the expression of the Nav1.1 protein in a cell having the pre-mRNA, when the cell is treated with the antisense oligomer, as compared to a corresponding control cell not treated with the antisense oligomer, wherein the NMD exon is located at a region from GRCh37/hg19: chr2:166,863,740 to GRCh37/hg19: chr2:166,863,803.
A method, comprising: receiving (S401) a first Modulation and Coding Scheme, MCS, index from a base station; determining (S402) a first transport block size, TBS, index and modulation order according to a first MCS table and the first MCS index, wherein the first MCS index is a MCS index of the first MCS table; determining the code block size according to the first TBS index, a first physical resource block, PRB, quantity, and a first TBS table; receiving a physical downlink shared channel, PDSCH, according the modulation order and the code block size; wherein the first PRB quantity is a PRB quantity allocated to user equipment, UE; or the first PRB quantity is a greatest integer less than or equal to a product of the PRB quantity allocated to UE and a specific coefficient; and wherein the first TBS index is a TBS index of the first TBS table, and the first TBS table comprises at least one PRB quantity corresponding to each TBS index and each TBS corresponding to each PRB quantity; characterized in that the first TBS table at least comprises a TBS index Y2 and at least one entry corresponding to the TBS index Y2 in the following Table A, and wherein any one entry comprises one PRB quantity and one TBS corresponding to the PRB quantity, and the TBS index Y2 is equal to 27: receiving (S401) a first Modulation and Coding Scheme, MCS, index from a base station; determining (S402) a first transport block size, TBS, index and modulation order according to a first MCS table and the first MCS index, wherein the first MCS index is a MCS index of the first MCS table; determining the code block size according to the first TBS index, a first physical resource block, PRB, quantity, and a first TBS table; receiving a physical downlink shared channel, PDSCH, according the modulation order and the code block size; wherein the first PRB quantity is a PRB quantity allocated to user equipment, UE; or the first PRB quantity is a greatest integer less than or equal to a product of the PRB quantity allocated to UE and a specific coefficient; and wherein the first TBS index is a TBS index of the first TBS table, and the first TBS table comprises at least one PRB quantity corresponding to each TBS index and each TBS corresponding to each PRB quantity; characterized in that the first TBS table at least comprises a TBS index Y2 and at least one entry corresponding to the TBS index Y2 in the following Table A, and wherein any one entry comprises one PRB quantity and one TBS corresponding to the PRB quantity, and the TBS index Y2 is equal to 27:
A method for managing a link between a terminal and a network device in a wireless system, comprising: receiving (S110), by a first network device, a first link quality parameter sent by a second network device, wherein the first link quality parameter is used to indicate a link quality between a terminal device and the second network device, and the first network device provides a current service for the terminal device; and determining (S120), by the first network device, whether a connection between the terminal device and the second network device is needed according to the first link quality parameter; characterized in that , after determining whether the connection between the terminal device and the second network device is needed, if it is determined that the connection between the terminal device and the second network device is needed, and there is no connection between the terminal device and the second network device, adding, by the first network device, a connection between the terminal device and the second network device as an auxiliary connection of a link of the terminal device according to the first link quality parameter; wherein data transmitted on the auxiliary connection of the link of the terminal device is different from data transmitted on a primary connection, and a connection between the first network device and the terminal device is the primary connection. receiving (S110), by a first network device, a first link quality parameter sent by a second network device, wherein the first link quality parameter is used to indicate a link quality between a terminal device and the second network device, and the first network device provides a current service for the terminal device; and determining (S120), by the first network device, whether a connection between the terminal device and the second network device is needed according to the first link quality parameter; characterized in that , after determining whether the connection between the terminal device and the second network device is needed, if it is determined that the connection between the terminal device and the second network device is needed, and there is no connection between the terminal device and the second network device, adding, by the first network device, a connection between the terminal device and the second network device as an auxiliary connection of a link of the terminal device according to the first link quality parameter; wherein data transmitted on the auxiliary connection of the link of the terminal device is different from data transmitted on a primary connection, and a connection between the first network device and the terminal device is the primary connection.
A method for controlling a robot , characterized by : a first step of controlling the robot to hold at least one of a pipette and a container containing a liquid and to change a position of the pipette relative to the container so as to make a tip of the pipette contact a sediment in the container ; and a second step of controlling the robot to move the pipette in an upward direction from a predetermined position in the container while keeping the tip of the pipette in contact with an inner side surface of the container . a first step of controlling the robot to hold at least one of a pipette and a container containing a liquid and to change a position of the pipette relative to the container so as to make a tip of the pipette contact a sediment in the container ; and a second step of controlling the robot to move the pipette in an upward direction from a predetermined position in the container while keeping the tip of the pipette in contact with an inner side surface of the container .
Optical glare protection filter for a glare protection device , with at least one liquid-crystal cell (14a; 14b; 14c; 14d; 14e) comprising at least one liquid-crystal layer (16a; 16b) and at least one first electrode layer unit (18a; 18b) for an alignment of crystal molecules of the at least one liquid-crystal layer (16a; 16b), and with at least one first contact element (20a; 20b; 20c; 20d; 20e) for electrically contacting the at least one first electrode layer unit (18a; 18b), characterised by at least one second contact element (22a; 22b; 22c; 22d; 22e) for electrically contacting the at least one first electrode layer unit (18a; 18b), which is substantially spaced apart from the first contact element (20a; 20b, 20c; 20d; 20e).
Pneumatic vehicle tyre having a profiled tread , in which a number of spikes are embedded, each spike consisting of a spike body with a spike foot and a spike pin that protrudes from the tread of the pneumatic vehicle tyre , and the spikes being formed asymmetrically when viewed in the transverse direction (Q) or in the circumferential direction (U) of the tread or in the vertical direction relative to the tread of the pneumatic vehicle tyre , characterized in that the spike foot is embedded in the tread of the pneumatic vehicle tyre at an acute angle (α) to a geometrical horizontal plane (H), running transversely to the circumferential direction (U) or tangentially to the circumferential direction (U) of the pneumatic vehicle tyre .
A method for producing a three-dimensional object, the method comprising: forming a thin layer including the three-dimensional object-forming resin composition comprising: a resin particle including a continuous phase including a thermoplastic resin, and a disperse phase dispersed in the continuous phase and including a thermoplastic elastomer, wherein an amount of the thermoplastic elastomer relative to 100 parts by mass of a total amount of the thermoplastic resin and the thermoplastic elastomer is 1 to 12 parts by mass; and selectively irradiating the thin layer with a laser beam to form an object layer in which a plurality of the resin particles are fused together, wherein the forming and the irradiating are repeated a plurality of times to stack the object layer to form a three-dimensional object. forming a thin layer including the three-dimensional object-forming resin composition comprising: a resin particle including a continuous phase including a thermoplastic resin, and a disperse phase dispersed in the continuous phase and including a thermoplastic elastomer, wherein an amount of the thermoplastic elastomer relative to 100 parts by mass of a total amount of the thermoplastic resin and the thermoplastic elastomer is 1 to 12 parts by mass; and selectively irradiating the thin layer with a laser beam to form an object layer in which a plurality of the resin particles are fused together, wherein the forming and the irradiating are repeated a plurality of times to stack the object layer to form a three-dimensional object.