mhurhangee/patent-ind-claim-en huggingface dataset:
A shearing screw for clamping an electrical conductor within a cable connector , the shearing screw comprising: a first body having an outer thread for engaging the cable connector ; a clamping surface for clamping the electrical conductor within the cable connector ; a portion of the first body being configured to tear off; a tightener for fastening the shearing screw to the cable connector and for shearing the shearing screw ; wherein: the tightener comprises a second body having an inner thread for engaging the outer thread of the first body and a bearing surface for engaging the cable connector so that a tensile force is introduced in the shearing screw for shearing the shearing screw , wherein a region of the inner thread or a region of the outer thread is adapted to form an impediment for preventing or hindering relative movement between the first body and the tightener , and wherein the shearing screw is characterized by the impediment being formed by a mismatched or punched thread , wherein the impediment is adapted to yield when a clamping force transmitted into the shearing screw exceeds a threshold force. a first body having an outer thread for engaging the cable connector ; a clamping surface for clamping the electrical conductor within the cable connector ; a portion of the first body being configured to tear off; a tightener for fastening the shearing screw to the cable connector and for shearing the shearing screw ;
A method for operating a station for simultaneous communication over: a first, Frequency Division Duplex, FDD, Radio Access Network, RAN, using a first carrier signal; and a second, Time Division Duplex, TDD, RAN using a second carrier signal at a higher frequency than a frequency of the first carrier signal, wherein transmissions from the station using the first carrier signal cause interference to reception at the station over the second, TDD RAN, the method comprising: aligning a timing of Acknowledgement message transmissions from the station over the first, FDD RAN to a timing for transmissions from the station over the second, TDD RAN; wherein the step of aligning comprises delaying or advancing Acknowledgement message transmissions in respect of the first, FDD RAN compared with a fixed, predetermined timing for Acknowledgement message transmissions by bundling of the Acknowledgement message transmissions in respect of the first, FDD RAN, such that the delayed or advanced Acknowledgement message transmissions in respect of the first, FDD RAN are transmitted in a same time slot as transmissions in respect of the second, TDD RAN; and wherein the FDD RAN is a Long Term Evolution, LTE, RAN and the TDD RAN is a New Radio, NR, RAN. aligning a timing of Acknowledgement message transmissions from the station over the first, FDD RAN to a timing for transmissions from the station over the second, TDD RAN; wherein the step of aligning comprises delaying or advancing Acknowledgement message transmissions in respect of the first, FDD RAN compared with a fixed, predetermined timing for Acknowledgement message transmissions by bundling of the Acknowledgement message transmissions in respect of the first, FDD RAN, such that the delayed or advanced Acknowledgement message transmissions in respect of the first, FDD RAN are transmitted in a same time slot as transmissions in respect of the second, TDD RAN; and wherein the FDD RAN is a Long Term Evolution, LTE, RAN and the TDD RAN is a New Radio, NR, RAN.
Tipper vehicle comprising at least one attachable side-wall extender , comprising: - a vehicle body; and - a tipper superstructure, which is borne thereon in a tippable manner and comprises side walls , at least one of the side walls being assigned a side-wall extender , the corresponding at least one extendable side wall being configured for the side-wall extender to be attached at both side ends of said side wall; respective interfaces being provided in the region of the side ends of the extendable side wall and at both side ends of the side-wall extender for the purpose of fitting a connecting element to fasten the side-wall extender to the side wall , and the side wall and the side-wall extender furthermore being otherwise free of fastening points, characterised in that the connecting elements comprise two plate portions that are opposite each other and each abut both the side wall and the side-wall extender in a planar manner. - a vehicle body; and - a tipper superstructure, which is borne thereon in a tippable manner and comprises side walls , at least one of the side walls being assigned a side-wall extender , the corresponding at least one extendable side wall being configured for the side-wall extender to be attached at both side ends of said side wall; respective interfaces being provided in the region of the side ends of the extendable side wall and at both side ends of the side-wall extender for the purpose of fitting a connecting element to fasten the side-wall extender to the side wall , and the side wall and the side-wall extender furthermore being otherwise free of fastening points, characterised in that the connecting elements comprise two plate portions that are opposite each other and each abut both the side wall and the side-wall extender in a planar manner.
An overhung axial turbine , comprising: a housing defining a cavity ; and a unitary cartridge releasably secured in the cavity , the unitary cartridge including: a rotor having a rotational axis , the rotor including a plurality of bladed rotor plates ; and a stator , including a plurality of bladed stator plates and at least one stator spacer segment , the at least one stator spacer segment sized to provide a gap between a radially outermost portion of one of the rotor plates and a radially innermost portion of the at least one spacer segment ; wherein said rotor plates and stator plates are positioned in an alternating inter-digitated relationship, and said rotor plates and stator plates each have two substantially flat and substantially parallel contact surfaces which are arranged perpendicular to the rotational axis . a housing defining a cavity ; and a unitary cartridge releasably secured in the cavity , the unitary cartridge including: a rotor having a rotational axis , the rotor including a plurality of bladed rotor plates ; and a stator , including a plurality of bladed stator plates and at least one stator spacer segment , the at least one stator spacer segment sized to provide a gap between a radially outermost portion of one of the rotor plates and a radially innermost portion of the at least one spacer segment ; a rotor having a rotational axis , the rotor including a plurality of bladed rotor plates ; and a stator , including a plurality of bladed stator plates and at least one stator spacer segment , the at least one stator spacer segment sized to provide a gap between a radially outermost portion of one of the rotor plates and a radially innermost portion of the at least one spacer segment ; wherein said rotor plates and stator plates are positioned in an alternating inter-digitated relationship, and said rotor plates and stator plates each have two substantially flat and substantially parallel contact surfaces which are arranged perpendicular to the rotational axis .
A memory device comprising: a switchable resistive element comprising an active material, the active material being switchable, by current injection, between first and second values of electrical resistivity ρ 1 and ρ 2 at the same temperature, wherein ρ 1 is different to ρ 2 ; and a superconductor element connected electrically in parallel with the switchable resistive element , the superconductor element being operable so that at least part of the superconductor element is switchable from a superconducting state to a non-superconducting state, characterized in that the memory device is configured to operate so that, when the superconductor element is switched from the superconducting state to the non-superconducting state by current density, a current injection is provided through the switchable resistive element thereby switching the switchable resistive element between said first and second values of electrical resistivity, and wherein the active material of the switchable resistive element is a memristive nonvolatile charge density wave material. a switchable resistive element comprising an active material, the active material being switchable, by current injection, between first and second values of electrical resistivity ρ 1 and ρ 2 at the same temperature, wherein ρ 1 is different to ρ 2 ; and a superconductor element connected electrically in parallel with the switchable resistive element , the superconductor element being operable so that at least part of the superconductor element is switchable from a superconducting state to a non-superconducting state, characterized in that the memory device is configured to operate so that, when the superconductor element is switched from the superconducting state to the non-superconducting state by current density, a current injection is provided through the switchable resistive element thereby switching the switchable resistive element between said first and second values of electrical resistivity, and wherein the active material of the switchable resistive element is a memristive nonvolatile charge density wave material.
An induction heating device for being used in manufacturing an electrode assembly, comprising: at least one induction heating plate with a thickness, having a major surface thereof formed along its length and width, wherein the at least one induction heating plate is adapted to perform an induction heating on an electrode assembly including a positive electrode, a negative electrode, and a separator arranged between the positive electrode and the negative electrode; and an induction heating coil built in the induction heating plate , characterised in that the induction heating coil comprises: a first part extending at a first predetermined depth along the thickness direction of the induction heating plate , forming a meandering serpentine pattern, and a second part extending along a periphery of the induction heating plate at a second predetermined depth along the thickness direction of the induction heating plate . at least one induction heating plate with a thickness, having a major surface thereof formed along its length and width, wherein the at least one induction heating plate is adapted to perform an induction heating on an electrode assembly including a positive electrode, a negative electrode, and a separator arranged between the positive electrode and the negative electrode; and an induction heating coil built in the induction heating plate , characterised in that the induction heating coil comprises: a first part extending at a first predetermined depth along the thickness direction of the induction heating plate , forming a meandering serpentine pattern, and a second part extending along a periphery of the induction heating plate at a second predetermined depth along the thickness direction of the induction heating plate . a first part extending at a first predetermined depth along the thickness direction of the induction heating plate , forming a meandering serpentine pattern, and a second part extending along a periphery of the induction heating plate at a second predetermined depth along the thickness direction of the induction heating plate .
An ASA-based resin composition, comprising: 20 to 30 % by weight of an acrylate-aromatic vinyl compound-vinyl cyanide compound graft copolymer containing acrylate rubber having an average particle diameter of 50 to 150 nm as a core measured according the description; 30 to 40 % by weight of an alkyl methacrylate-aromatic vinyl compound-vinyl cyanide compound copolymer; and 30 to 40 % by weight of a poly(alkyl methacrylate) resin, wherein the alkyl methacrylate-aromatic vinyl compound-vinyl cyanide compound copolymer comprises 45 to 65 % by weight of an alkyl methacrylate, 25 to 35 % by weight of an aromatic vinyl compound, and 10 to 20 % by weight of a vinyl cyanide compound, wherein the ASA-based resin composition has a total rubber content of 10 to 15 % by weight, wherein the total rubber content is measured according to FT-IR. 20 to 30 % by weight of an acrylate-aromatic vinyl compound-vinyl cyanide compound graft copolymer containing acrylate rubber having an average particle diameter of 50 to 150 nm as a core measured according the description; 30 to 40 % by weight of an alkyl methacrylate-aromatic vinyl compound-vinyl cyanide compound copolymer; and 30 to 40 % by weight of a poly(alkyl methacrylate) resin, wherein the alkyl methacrylate-aromatic vinyl compound-vinyl cyanide compound copolymer comprises 45 to 65 % by weight of an alkyl methacrylate, 25 to 35 % by weight of an aromatic vinyl compound, and 10 to 20 % by weight of a vinyl cyanide compound, wherein the ASA-based resin composition has a total rubber content of 10 to 15 % by weight, wherein the total rubber content is measured according to FT-IR.
A method comprising: indicating , by a garbage collection thread participating in a garbage collection system, via a first indication, that the garbage collection system has entered a marking phase, the garbage collection system managing a heap of memory; attempting , by the garbage collection thread, to modify a conversion status variable, associated with a mutator thread belonging to a set of mutator threads associated with the garbage collection system, from a first conversion status value, indicating that the mutator thread is performing a weak pointer conversion operation, to a second conversion status value indicating that a handshake is required between the garbage collection thread and the mutator thread; determining , by the garbage collection thread, that the conversion status variable does not contain the second conversion status value; determining , by the garbage collection thread, that a set of pointers is empty; attempting , by the garbage collection thread, to indicate, via a third indication, that the marking phase has ended, wherein indicating using the third indication comprises determining that no mutator thread belonging to the set of mutator threads has provided a second indication indicating that the indicating mutator thread intends to add a pointer to the set of pointers; determining , by the garbage collection thread, that the marking phase has ended when the attempt is successful; and indicating , by the garbage collection thread, via a fourth indication, that the garbage collection system is still in the marking phase when the attempt is unsuccessful. indicating , by a garbage collection thread participating in a garbage collection system, via a first indication, that the garbage collection system has entered a marking phase, the garbage collection system managing a heap of memory; attempting , by the garbage collection thread, to modify a conversion status variable, associated with a mutator thread belonging to a set of mutator threads associated with the garbage collection system, from a first conversion status value, indicating that the mutator thread is performing a weak pointer conversion operation, to a second conversion status value indicating that a handshake is required between the garbage collection thread and the mutator thread; determining , by the garbage collection thread, that the conversion status variable does not contain the second conversion status value; determining , by the garbage collection thread, that a set of pointers is empty; attempting , by the garbage collection thread, to indicate, via a third indication, that the marking phase has ended, wherein indicating using the third indication comprises determining that no mutator thread belonging to the set of mutator threads has provided a second indication indicating that the indicating mutator thread intends to add a pointer to the set of pointers; determining , by the garbage collection thread, that the marking phase has ended when the attempt is successful; and indicating , by the garbage collection thread, via a fourth indication, that the garbage collection system is still in the marking phase when the attempt is unsuccessful.
A charging apparatus comprising: a plurality of counter electrodes formed in a plate shape and arranged in a direction intersecting with a ventilation direction to allow respective surfaces thereof to follow the ventilation direction; and a plurality of high voltage electrodes formed in a wire shape and installed between the plurality of counter electrodes , wherein the plurality of counter electrodes comprises first counter electrodes each having a first electrode area, and second counter electrodes each having a second electrode area less than the first electrode area, wherein the first counter electrodes and the second counter electrodes are alternately arranged, and characterised in that : the second counter electrodes each comprise through holes . a plurality of counter electrodes formed in a plate shape and arranged in a direction intersecting with a ventilation direction to allow respective surfaces thereof to follow the ventilation direction; and a plurality of high voltage electrodes formed in a wire shape and installed between the plurality of counter electrodes , wherein the plurality of counter electrodes comprises first counter electrodes each having a first electrode area, and second counter electrodes each having a second electrode area less than the first electrode area, wherein the first counter electrodes and the second counter electrodes are alternately arranged, and characterised in that : the second counter electrodes each comprise through holes .
A method for joining a first component (10, 51, 81a-c) and a second component , the method comprising: forming a first bond between the first component and the second component by providing a plurality of projections on the first component and embedding the plurality of projections in the second component, wherein the plurality of projections comprises a first array of one or more projections provided on a first region (12a-d) of the first component and a second array of one or more projections provided on a second region (12a-d) of the first component; creating a fastener hole (21a-b, 53a-c) which passes through the first component and the second component and which encompasses the first array of one or more projections such that the first array of one or more projections is entirely removed by the creation of the fastener hole; and forming a second bond between the first component and the second component by installing a fastener in the fastener hole; the method being characterized in that : the first array of one or more projections is comprised in a subcomponent (40a-c, 83a-b); providing a plurality of projections on the first component (10, 51, 81a-c) comprises arranging the subcomponent on the first component; and the fastener hole (21a-b, 53a-c) encompasses the subcomponent, such that the subcomponent is entirely removed by the creation of the fastener hole. forming a first bond between the first component and the second component by providing a plurality of projections on the first component and embedding the plurality of projections in the second component, wherein the plurality of projections comprises a first array of one or more projections provided on a first region (12a-d) of the first component and a second array of one or more projections provided on a second region (12a-d) of the first component; creating a fastener hole (21a-b, 53a-c) which passes through the first component and the second component and which encompasses the first array of one or more projections such that the first array of one or more projections is entirely removed by the creation of the fastener hole; and forming a second bond between the first component and the second component by installing a fastener in the fastener hole; the method being characterized in that : the first array of one or more projections is comprised in a subcomponent (40a-c, 83a-b); providing a plurality of projections on the first component (10, 51, 81a-c) comprises arranging the subcomponent on the first component; and the fastener hole (21a-b, 53a-c) encompasses the subcomponent, such that the subcomponent is entirely removed by the creation of the fastener hole. the first array of one or more projections is comprised in a subcomponent (40a-c, 83a-b); providing a plurality of projections on the first component (10, 51, 81a-c) comprises arranging the subcomponent on the first component; and the fastener hole (21a-b, 53a-c) encompasses the subcomponent, such that the subcomponent is entirely removed by the creation of the fastener hole.
A laminate extruded composition comprising: a pair of opposed top and bottom non-foamed layers; at least one interposed middle foamed layer, the middle foamed layer foamed using supercritical fluids; each of said layers comprising a flame retardant copolyphosphonate, the copolyphosphonate having a weight average molecular weight of between 10,000 g/mole to 100,000 g/mole (measured with GPC), the copolyphosphonate having a polydispersity of between 2 to 7, the copolyphosphonate having a single glass transition temperature; a percentage ratio of the at least three layers ranging from 7-13% / 75-85% / 7-13%, the at least three layers totaling 100%, a total thickness of the three layers ranging from 1.016mm to 12.7mm (0.040" to 0.500"); and the laminate having an OSU Heat Release Total value of < 65 kW min/m 2 and an OSU Heat Release Peak value of < 65 kW/m 2 (measured with ASTM E906). a pair of opposed top and bottom non-foamed layers; at least one interposed middle foamed layer, the middle foamed layer foamed using supercritical fluids; each of said layers comprising a flame retardant copolyphosphonate, the copolyphosphonate having a weight average molecular weight of between 10,000 g/mole to 100,000 g/mole (measured with GPC), the copolyphosphonate having a polydispersity of between 2 to 7, the copolyphosphonate having a single glass transition temperature; a percentage ratio of the at least three layers ranging from 7-13% / 75-85% / 7-13%, the at least three layers totaling 100%, a total thickness of the three layers ranging from 1.016mm to 12.7mm (0.040" to 0.500"); and the laminate having an OSU Heat Release Total value of < 65 kW min/m 2 and an OSU Heat Release Peak value of < 65 kW/m 2 (measured with ASTM E906).
An embossed polymer interlayer sheet comprising: a first side; a second side opposing the first side; and an embossed surface on at least one of the sides, wherein the embossed polymer interlayer sheet has a semi-isotropic surface having a surface texture ratio, Str, (as measured per ISO 25178) of between 0.1 and 0.99 and wherein the embossed polymer interlayer sheet has at least 50 roughness peaks per centimeter (R PC, as measured perASME B46.1 ).
A two-part flame-retardant for oriented strand board comprising: a water-soluble flame-retardant having a solubility in water of at least about 400 g/L; and a flame-retardant powder, wherein the water-soluble flame-retardant comprises a borate, a borate ester, a borate alkanolamine, an amine phosphoric acid salt, a dicyandiamide-formaldehyde phosphoric acid salt, or combinations thereof. a water-soluble flame-retardant having a solubility in water of at least about 400 g/L; and a flame-retardant powder, wherein the water-soluble flame-retardant comprises a borate, a borate ester, a borate alkanolamine, an amine phosphoric acid salt, a dicyandiamide-formaldehyde phosphoric acid salt, or combinations thereof.