mhurhangee/ep-ind-claims huggingface dataset:
A data transmission method, comprising: receiving (101, 203) scheduling signaling sent by a base station on a target bandwidth part, wherein the scheduling signaling carries frequency-domain resource indication information and parameter indication information, and the target bandwidth part is a bandwidth part capable of transmitting the scheduling signaling in a plurality of bandwidth parts, wherein the frequency-domain resource indication information comprises indication information of a frequency-domain transmission unit and the frequency-domain transmission unit comprises one or more physical resource blocks PRBs, wherein the frequency-domain resource indication further comprises bandwidth number indication information; wherein the bandwidth number indication information is configured to indicate a bandwidth number of a to-be-scheduled bandwidth part in a case where the PRBs of the plurality of bandwidth parts have the same number; upon determining, based on the frequency-domain resource indication information and pre-stored configuration information, that the target bandwidth part is not a to-be-scheduled bandwidth part, determining (102, 204) the to-be-scheduled bandwidth part from the plurality of bandwidth parts based on the frequency-domain resource indication information and the configuration information; and transmitting (103, 205) data through the to-be-scheduled bandwidth part according to a configuration parameter associated with the parameter indication information. receiving (101, 203) scheduling signaling sent by a base station on a target bandwidth part, wherein the scheduling signaling carries frequency-domain resource indication information and parameter indication information, and the target bandwidth part is a bandwidth part capable of transmitting the scheduling signaling in a plurality of bandwidth parts, wherein the frequency-domain resource indication information comprises indication information of a frequency-domain transmission unit and the frequency-domain transmission unit comprises one or more physical resource blocks PRBs, wherein the frequency-domain resource indication further comprises bandwidth number indication information; wherein the bandwidth number indication information is configured to indicate a bandwidth number of a to-be-scheduled bandwidth part in a case where the PRBs of the plurality of bandwidth parts have the same number; upon determining, based on the frequency-domain resource indication information and pre-stored configuration information, that the target bandwidth part is not a to-be-scheduled bandwidth part, determining (102, 204) the to-be-scheduled bandwidth part from the plurality of bandwidth parts based on the frequency-domain resource indication information and the configuration information; and transmitting (103, 205) data through the to-be-scheduled bandwidth part according to a configuration parameter associated with the parameter indication information.
A battery module (100, 200, 200a, 400, 500) configured in a structure in which a plurality of battery cells or unit modules are stacked, and a heat sink (110, 240) is mounted to electrical connection regions between the unit cells and/or to outsides of battery module connection members connected to the electrical connection regions, characterized in that the heat sink includes a plurality of bar type contact parts configured to be in tight contact with outsides of the electrical connection regions between the unit cells and a connection part configured to integrally connect corresponding ends of the contact parts, the heat sink being mounted to the battery module in such a manner that the electrical connection regions between the unit cells are inserted into slits defined between the contact parts.
An engineered T-cell expressing a Chimeric Antigen Receptor directed against at least one antigen expressed at the surface of a malignant or infected cell, characterized in that i) expression of B2M is inhibited in said T-cell by a genome modification, and ii) expression of at least one gene encoding a component of the TCR receptor is inactivated, for its allogeneic use for treating cancers, infections or immune diseases in a patient.
An A-B-A structure, comprising: a core layer comprising a first thermoplastic material having a first density, wherein the core layer has a core thickness and wherein the core layer comprise a through plane thermal conductivity of greater than or equal to 0.1 W/mK, wherein thermal conductivity is determined in accordance with ASTM E1461 using laser flash method, wherein test specimens were cut into 10x10x3 mm square samples from an injection molded 80x10x3 mm IZOD bar, and a core layer density that is X ≥ 0.8Y; a first outer layer comprising a second thermoplastic material located on a first side of the core layer; and a second outer layer comprising the second thermoplastic material located on a second side of the core layer opposite the first side; wherein the core thickness is 30 % to 75% of a total thickness, or 40 % to 60% of a total thickness, or 45 % to 55% of a total thickness, or 55 % to 70 % of a total thickness of the A-B-A structure, and wherein the core layer comprises 0 vol% to 35 vol% of a reinforcing material and 100 vol% to 65 vol% of the first thermoplastic material, based upon the total volume of the core layer. a core layer comprising a first thermoplastic material having a first density, wherein the core layer has a core thickness and wherein the core layer comprise a through plane thermal conductivity of greater than or equal to 0.1 W/mK, wherein thermal conductivity is determined in accordance with ASTM E1461 using laser flash method, wherein test specimens were cut into 10x10x3 mm square samples from an injection molded 80x10x3 mm IZOD bar, and a core layer density that is X ≥ 0.8Y; a first outer layer comprising a second thermoplastic material located on a first side of the core layer; and a second outer layer comprising the second thermoplastic material located on a second side of the core layer opposite the first side; wherein the core thickness is 30 % to 75% of a total thickness, or 40 % to 60% of a total thickness, or 45 % to 55% of a total thickness, or 55 % to 70 % of a total thickness of the A-B-A structure, and wherein the core layer comprises 0 vol% to 35 vol% of a reinforcing material and 100 vol% to 65 vol% of the first thermoplastic material, based upon the total volume of the core layer.
An apparatus for eliciting a blood sample comprising: a housing; an aperture in a wall of the housing; an aperture cover moveable between a first position in which the aperture is covered and a second position in which the aperture is uncovered, the aperture cover comprising a sealing member configured to seal the aperture on a first side of the wall when the aperture cover is in the first position and a user-contactable part extending from the sealing member through the aperture to the second side of the wall and configured to allow a user to move the aperture cover between the first and second positions. a housing; an aperture in a wall of the housing; an aperture cover moveable between a first position in which the aperture is covered and a second position in which the aperture is uncovered, the aperture cover comprising a sealing member configured to seal the aperture on a first side of the wall when the aperture cover is in the first position and a user-contactable part extending from the sealing member through the aperture to the second side of the wall and configured to allow a user to move the aperture cover between the first and second positions.
A method for recovering living cells from cryopreserved cells, comprising thawing cryopreserved cells; and diluting the thawed cell suspension with a diluent, wherein the dilution is performed in such a way that the maximum load of osmotic pressure at the time of dilution ranges from 40 mOsm/second to 50 mOsm/second, and wherein the maximum load of osmotic pressure is calculated according to Formula 1: 1400 mOsm − 1400 mOsm × liquid amount mL + 300 mOsm × rate of addition mL / second × 1 second liquid amount mL + rate of addition mL / second × 1 second / 1 second.
A method in a proxy node for enabling a set up of a service connection from a user equipment to a priority service node, which user equipment is not registered with an Internet Protocol Multimedia Subsystem, and which proxy node is a proxy call session control function network node and is comprised in the Internet Protocol Multimedia Subsystem; the method comprising, - receiving a service request from the user equipment, which service request comprises a pattern of characters indicating a priority level of the service request, - determining that the user equipment is not registered with the Internet Protocol Multimedia Subsystem when the user equipment is not indicated as registered in the proxy node, - identifying the service request as a priority service request for a priority service by matching the pattern of characters to a preset priority service pattern of characters, and characterized in that: - when the service request has been identified as a priority service request and the user equipment has been determined not registered with the Internet Protocol Multimedia Subsystem, simulating setup of a terminating service connection to the priority service node by sending a terminating request to an Interrogating call session control function network node comprised in the Internet Protocol Multimedia Subsystem, which terminating request comprises an indication of the priority service enabling the Interrogating call session control function network node to identify the terminating request as a priority service request by the presence of the indication of the priority service in the terminating request and to initiate priority service handling. - receiving a service request from the user equipment, which service request comprises a pattern of characters indicating a priority level of the service request, - determining that the user equipment is not registered with the Internet Protocol Multimedia Subsystem when the user equipment is not indicated as registered in the proxy node, - identifying the service request as a priority service request for a priority service by matching the pattern of characters to a preset priority service pattern of characters, - when the service request has been identified as a priority service request and the user equipment has been determined not registered with the Internet Protocol Multimedia Subsystem, simulating setup of a terminating service connection to the priority service node by sending a terminating request to an Interrogating call session control function network node comprised in the Internet Protocol Multimedia Subsystem, which terminating request comprises an indication of the priority service enabling the Interrogating call session control function network node to identify the terminating request as a priority service request by the presence of the indication of the priority service in the terminating request and to initiate priority service handling.
A laser processing method comprising: conveying a first object and a second object in a conveyance direction; detecting the first object conveyed to a predetermined position by a detector; detecting the second object conveyed to the predetermined position by the detector following the detecting the first object; and characterized by the steps of determining a processing start position of the second object from: a period of time from a time of the detecting the first object to a time of the detecting the second object; a conveyance velocity of the first object; and a conveyance velocity of the second object; and scanning and irradiating the second object with a laser beam from the processing start position to a processing stop position within an effective lens diameter of a light condenser. conveying a first object and a second object in a conveyance direction; detecting the first object conveyed to a predetermined position by a detector; detecting the second object conveyed to the predetermined position by the detector following the detecting the first object; and characterized by the steps of determining a processing start position of the second object from: a period of time from a time of the detecting the first object to a time of the detecting the second object; a conveyance velocity of the first object; and a conveyance velocity of the second object; and a period of time from a time of the detecting the first object to a time of the detecting the second object; a conveyance velocity of the first object; and a conveyance velocity of the second object; and scanning and irradiating the second object with a laser beam from the processing start position to a processing stop position within an effective lens diameter of a light condenser.
Circuit arrangement for the voltage support of an on-board electrical system of a vehicle, which can be connected in series with a first voltage source and with a load, said circuit arrangement comprising: a switching element having a diode function, configured to assume a first operating state having a current flow direction and to assume a second switched-on operating state; a switch; and a second voltage source for supplying a voltage, wherein the circuit arrangement is configured as a parallel circuit having the switching element in a first branch and having the switch and the second voltage source in a second branch of the parallel circuit; and the circuit arrangement is configured and can be connected to the first voltage source and to the load in such a way, that in a first switching state, when the switch is closed, the first and second voltage source are connected in series for the purpose of supplying the load with power and the switching element is arranged having the current flow direction from the first voltage source to the load. a switching element having a diode function, configured to assume a first operating state having a current flow direction and to assume a second switched-on operating state; a switch; and a second voltage source for supplying a voltage, wherein the circuit arrangement is configured as a parallel circuit having the switching element in a first branch and having the switch and the second voltage source in a second branch of the parallel circuit; and the circuit arrangement is configured and can be connected to the first voltage source and to the load in such a way, that in a first switching state, when the switch is closed, the first and second voltage source are connected in series for the purpose of supplying the load with power and the switching element is arranged having the current flow direction from the first voltage source to the load.
An organic electroluminescent device, comprising a first electrode, a first light-emitting layer, a second light-emitting layer and a second electrode stacked upon a substrate; wherein the first light-emitting layer comprises red light units, green light units and blue light units, which are arranged in the same layer, the second light-emitting layer is a blue light layer, characterized in that, the green light unit comprises a host material doped with a guest material, wherein the host material at least includes a Thermal Activation Delayed Fluorescence (TADF) material having an energy level difference ΔE ST that is less than 0.15eV between triplet state and singlet state, the Thermal Activation Delayed Fluorescence material has a structure selected from the following formulas to, to: wherein the first light-emitting layer comprises red light units, green light units and blue light units, which are arranged in the same layer, the second light-emitting layer is a blue light layer, characterized in that, the green light unit comprises a host material doped with a guest material, wherein the host material at least includes a Thermal Activation Delayed Fluorescence (TADF) material having an energy level difference ΔE ST that is less than 0.15eV between triplet state and singlet state, the Thermal Activation Delayed Fluorescence material has a structure selected from the following formulas to, to:
A multicast processing method, characterized by comprising: receiving, by a Virtual extensible Local Area Network, VXLAN, tunnel end point, VTEP, configuration information sent by a management layer, wherein the configuration information comprises: a virtual machine, VM, tenant identifier, a mapping relationship between a VM multicast address and a multicast address on a layer 3 network, and a mapping relationship between a VM multicast source address and a layer 3 network multicast source address, wherein for different VMs, managed by the same VTEP, different multicast source addresses and different layer 3 network multicast source addresses are allocated; receiving, by the VTEP, a multicast packet sent by a VM managed by the VTEP; when performing VXLAN encapsulation on the multicast packet after determining that the VM matches the VM tenant identifier, encapsulating, according to the mapping relationship between the VM multicast address and the multicast address on the layer 3 network, a destination address of the multicast packet into the multicast address on the layer 3 network, and encapsulating, according to the mapping relationship between the VM multicast source address and the layer 3 network multicast source address, a VXLAN source address of the multicast packet into the layer 3 network multicast source address; and sending an encapsulated multicast packet to the layer 3 network. receiving, by a Virtual extensible Local Area Network, VXLAN, tunnel end point, VTEP, configuration information sent by a management layer, wherein the configuration information comprises: a virtual machine, VM, tenant identifier, a mapping relationship between a VM multicast address and a multicast address on a layer 3 network, and a mapping relationship between a VM multicast source address and a layer 3 network multicast source address, wherein for different VMs, managed by the same VTEP, different multicast source addresses and different layer 3 network multicast source addresses are allocated; receiving, by the VTEP, a multicast packet sent by a VM managed by the VTEP; when performing VXLAN encapsulation on the multicast packet after determining that the VM matches the VM tenant identifier, encapsulating, according to the mapping relationship between the VM multicast address and the multicast address on the layer 3 network, a destination address of the multicast packet into the multicast address on the layer 3 network, and encapsulating, according to the mapping relationship between the VM multicast source address and the layer 3 network multicast source address, a VXLAN source address of the multicast packet into the layer 3 network multicast source address; and sending an encapsulated multicast packet to the layer 3 network.
A spectacle lens optical value determining method for determining an optical value including a refractive power of a spectacle lens suitable for a subject based on at least a prescription value such as refractive power data obtained from optometry, wherein the spectacle lens is a progressive-addition lens, and the optical value is an optical value including an addition power, wherein the optical value of the spectacle lens is selected and determined so that a wavefront entering an eye of the subject at the time of optometry and a wavefront entering the eye when the subject wears the spectacle lens and views an object coincide with or are approximate to each other, said method comprising: measuring at least one prescription power with at least one trial lens, measuring the required addition power, modelling the eye-trial lens optical system at the time of measuring the at least one prescription power and at the time of measuring the addition power, determining a target wavefront based on said modelling results, and modelling said progressive-addition lens such that the target wavefronts coincide with or are approximate to the wave front entering the eye when the subject wears said modelled progressive-addition lens, wherein for at least one of said modelling steps, at least two trial lenses are modelled mounted together one trial lens behind the other trial lens corresponding to the measurement at the time of optometry. measuring at least one prescription power with at least one trial lens, measuring the required addition power, modelling the eye-trial lens optical system at the time of measuring the at least one prescription power and at the time of measuring the addition power, determining a target wavefront based on said modelling results, and modelling said progressive-addition lens such that the target wavefronts coincide with or are approximate to the wave front entering the eye when the subject wears said modelled progressive-addition lens, wherein for at least one of said modelling steps, at least two trial lenses are modelled mounted together one trial lens behind the other trial lens corresponding to the measurement at the time of optometry.
A method for cathodically protecting and/or passivating a metal section in an ionically conductive material, comprising: providing a non-sacrificial anode for communication of an electrical current to the metal section in the ionically conductive material where the non-sacrificial anode is of a material which is not sacrificial to the metal section; providing a storage component of electrical energy with two poles (42, 43) for communicating electrical current generated by release of the electrical energy; wherein the storage component is contained within an outer casing having an exterior surface; electrically connecting one pole to the metal section, electrically connecting the other pole to the non-sacrificial anode and placing the non-sacrificial anode in ionic contact with the ionically conductive material such that the electrical current can flow from the storage component through the electrical connection to the metal section thus reducing a total amount of electrical energy contained in the storage component; wherein the non-sacrificial anode is defined on the exterior surface of the outer casing so that the storage component is connected as a common single unit with the non-sacrificial anode; and placing the non-sacrificial anode in ionic communication with the ionically conductive material. providing a non-sacrificial anode for communication of an electrical current to the metal section in the ionically conductive material where the non-sacrificial anode is of a material which is not sacrificial to the metal section; providing a storage component of electrical energy with two poles (42, 43) for communicating electrical current generated by release of the electrical energy; wherein the storage component is contained within an outer casing having an exterior surface; electrically connecting one pole to the metal section, electrically connecting the other pole to the non-sacrificial anode and placing the non-sacrificial anode in ionic contact with the ionically conductive material such that the electrical current can flow from the storage component through the electrical connection to the metal section thus reducing a total amount of electrical energy contained in the storage component; wherein the non-sacrificial anode is defined on the exterior surface of the outer casing so that the storage component is connected as a common single unit with the non-sacrificial anode; and placing the non-sacrificial anode in ionic communication with the ionically conductive material.