mhurhangee/patent-ind-claim-en huggingface dataset:
A network optimization method for a radio link failure, comprising: receiving (S201), by a macro base station, a Radio Link Failure, RLF, report forwarded by a local base station, wherein the RLF report is transmitted by a User Equipment, UE, to the local base station and forwarded by the local base station to the macro base station upon determining that the RLF report relates to a connection failure related to bearer splitting; and determining (S202), by the macro base station, a connection failure reason according to the RLF report, and bearer splitting and restoring procedures, so that a macro base station involved in the connection failure reason adjusts a bearer splitting related parameter; wherein determining (S202), by the macro base station, the connection failure reason according to the RLF report, and the bearer splitting and restoring procedures, so that the macro base station involved in the connection failure reason adjusts the bearer splitting related parameter comprises: upon determining, by the macro base station, that the connection failure is unrelated to a handover procedure according to the RLF report, determining, by the macro base station, the connection failure reason according to the RLF report, and the bearer splitting and restoring procedures, and adjusting, by the macro base station, the bearer splitting related parameter . receiving (S201), by a macro base station, a Radio Link Failure, RLF, report forwarded by a local base station, wherein the RLF report is transmitted by a User Equipment, UE, to the local base station and forwarded by the local base station to the macro base station upon determining that the RLF report relates to a connection failure related to bearer splitting; and determining (S202), by the macro base station, a connection failure reason according to the RLF report, and bearer splitting and restoring procedures, so that a macro base station involved in the connection failure reason adjusts a bearer splitting related parameter; wherein determining (S202), by the macro base station, the connection failure reason according to the RLF report, and the bearer splitting and restoring procedures, so that the macro base station involved in the connection failure reason adjusts the bearer splitting related parameter comprises: upon determining, by the macro base station, that the connection failure is unrelated to a handover procedure according to the RLF report, determining, by the macro base station, the connection failure reason according to the RLF report, and the bearer splitting and restoring procedures, and adjusting, by the macro base station, the bearer splitting related parameter .
A method of processing elevator calls in an elevator system , the method comprising: counting a number of elevator door reversals at an elevator car (103, A, B, C); comparing the number of elevator door reversals to an elevator door reversal threshold; upon the number of elevator door reversals exceeding the elevator door reversal threshold, reassigning at least one elevator call for the elevator car (103, A, B, C) to one or more second elevator cars (103, A, B, C). counting a number of elevator door reversals at an elevator car (103, A, B, C); comparing the number of elevator door reversals to an elevator door reversal threshold; upon the number of elevator door reversals exceeding the elevator door reversal threshold, reassigning at least one elevator call for the elevator car (103, A, B, C) to one or more second elevator cars (103, A, B, C).
A process for the manufacture of a cushion , the process comprising, a) providing a first layer and a second layer , b) providing a discrete pressure distributing unit comprising a frame and a plurality of fluid conduits , the fluid conduits comprising tubes arranged in and fixed to the frame, the frame and fluid conduits being formed from the same polymer and formed as a single piece by injection moulding or extrusion, c) arranging the pressure distributing unit on the first layer, d) placing the second layer on the first layer and pressure distributing unit, and e) sealing the first and second layers together to form a first chamber and a second chamber with the pressure distributing unit sealed between the first chamber and the second chamber, thereby providing a fluid connection between the first and second chambers. a) providing a first layer and a second layer , b) providing a discrete pressure distributing unit comprising a frame and a plurality of fluid conduits , the fluid conduits comprising tubes arranged in and fixed to the frame, the frame and fluid conduits being formed from the same polymer and formed as a single piece by injection moulding or extrusion, c) arranging the pressure distributing unit on the first layer, d) placing the second layer on the first layer and pressure distributing unit, and e) sealing the first and second layers together to form a first chamber and a second chamber with the pressure distributing unit sealed between the first chamber and the second chamber, thereby providing a fluid connection between the first and second chambers.
A bearing track groove measurement device for measuring a cross-sectional profile of a bearing track groove , , the device comprising: fixing means for fixing a workpiece (S) having the bearing track groove , , a displacement sensor for detecting, by turning about a groove center of a cross-section of the bearing track groove , , a radius value corresponding to a dimension from a turning center thereof to a groove bottom surface; turning angle detection means for detecting a turning angle at the radius value detected by the displacement sensor ; and calculation means for calculating a profile waveform of the bearing track groove , based on the radius value detected by the displacement sensor and the turning angle detected by the turning angle detection means , characterized in that the fixing means comprises a clamp mechanism for clamping the workpiece (S) by adjusting a clamp width in a state in which the workpiece (S) is fixed at a predetermined placement position, wherein the clamp mechanism comprises a substrate and a clamp member mounted on a lower surface of the substrate , wherein the clamp member comprises a pair of gripping pieces , . fixing means for fixing a workpiece (S) having the bearing track groove , , a displacement sensor for detecting, by turning about a groove center of a cross-section of the bearing track groove , , a radius value corresponding to a dimension from a turning center thereof to a groove bottom surface; turning angle detection means for detecting a turning angle at the radius value detected by the displacement sensor ; and calculation means for calculating a profile waveform of the bearing track groove , based on the radius value detected by the displacement sensor and the turning angle detected by the turning angle detection means , characterized in that the fixing means comprises a clamp mechanism for clamping the workpiece (S) by adjusting a clamp width in a state in which the workpiece (S) is fixed at a predetermined placement position, wherein the clamp mechanism comprises a substrate and a clamp member mounted on a lower surface of the substrate , wherein the clamp member comprises a pair of gripping pieces , .
A laminating device for laminating a stack consisting of a plurality of substrate layers to form a composite body, in particular a document body, said device having a main body including a press table on which or with respect to which said stack may be positioned in a working position for forming a composite body, a heating device and a cooling device provided above the press table which form an upper laminating unit and which are thermally decoupled from each other, said upper laminating unit being displaceable for permitting to respectively dispose the heating unit or the cooling unit in a working position , characterised in that - below the press table , a heating device and a cooling device are provided which form a lower laminating unit and which are thermally decoupled from each other, said lower laminating unit being displaceable for permitting to respectively dispose the heating unit or the cooling unit in said working position , and in that the heating and cooling devices of the upper laminating unit and the heating and cooling devices of the lower laminating unit are respectively realised in the form of a conjointly displaceable laminating unit . - below the press table , a heating device and a cooling device are provided which form a lower laminating unit and which are thermally decoupled from each other, said lower laminating unit being displaceable for permitting to respectively dispose the heating unit or the cooling unit in said working position , and in that the heating and cooling devices of the upper laminating unit and the heating and cooling devices of the lower laminating unit are respectively realised in the form of a conjointly displaceable laminating unit .
A forced induction device for an internal combustion engine , the device comprising - a compressor operable to provide compressed air, - an intake line configured to supply an intake manifold of the internal combustion engine with the compressed air provided by the compressor , - a turbine configured to generate mechanical power through expansion of at least a portion of exhaust gases of the internal combustion engine , - an exhaust line configured to supply the turbine with the exhaust gas portion coming from an exhaust manifold of the internal combustion engine , and - a hydrostatic transmission configured to drive the compressor by means of the mechanical power generated by the turbine , wherein the hydrostatic transmission comprises - a hydraulic pump coupled to the turbine , so that the mechanical power generated by the turbine drives the hydraulic pump , and configured to provide a liquid under pressure, and - a hydraulic motor hydraulically connected to the hydraulic pump to receive the liquid under pressure provided by the hydraulic pump and coupled to the compressor to drive the compressor by means of the liquid under pressure received from the hydraulic pump , characterized in that both or at least one of the hydraulic pump and the hydraulic motor is of the variable displacement type. - a compressor operable to provide compressed air, - an intake line configured to supply an intake manifold of the internal combustion engine with the compressed air provided by the compressor , - a turbine configured to generate mechanical power through expansion of at least a portion of exhaust gases of the internal combustion engine , - an exhaust line configured to supply the turbine with the exhaust gas portion coming from an exhaust manifold of the internal combustion engine , and - a hydrostatic transmission configured to drive the compressor by means of the mechanical power generated by the turbine , - a hydraulic pump coupled to the turbine , so that the mechanical power generated by the turbine drives the hydraulic pump , and configured to provide a liquid under pressure, and - a hydraulic motor hydraulically connected to the hydraulic pump to receive the liquid under pressure provided by the hydraulic pump and coupled to the compressor to drive the compressor by means of the liquid under pressure received from the hydraulic pump ,
A detector for detecting terahertz electromagnetic radiation incident along a direction of incidence, the detector comprising: a substrate ; and a pair of detector elements supported on the substrate , the detector elements being electrically isolated from each other, each detector element comprising: a pair of antenna elements having a gap therebetween; and a switch element comprising one or more pieces of photoconductive semiconductor material connected between the antenna elements across the gap, wherein the switch elements of the pair of detector elements cross as viewed along an axis parallel to the direction of incidence and are electrically isolated from each other, and the pairs of antenna elements of the respective detector elements are configured so that, when the switch element is conductive, current is generated between the antenna elements by polarisation components of incident terahertz electromagnetic radiation having polarisation directions in respective sensing directions that are transverse. a substrate ; and a pair of detector elements supported on the substrate , the detector elements being electrically isolated from each other, each detector element comprising: a pair of antenna elements having a gap therebetween; and a switch element comprising one or more pieces of photoconductive semiconductor material connected between the antenna elements across the gap, wherein the switch elements of the pair of detector elements cross as viewed along an axis parallel to the direction of incidence and are electrically isolated from each other, and the pairs of antenna elements of the respective detector elements are configured so that, when the switch element is conductive, current is generated between the antenna elements by polarisation components of incident terahertz electromagnetic radiation having polarisation directions in respective sensing directions that are transverse. a pair of antenna elements having a gap therebetween; and a switch element comprising one or more pieces of photoconductive semiconductor material connected between the antenna elements across the gap, wherein the switch elements of the pair of detector elements cross as viewed along an axis parallel to the direction of incidence and are electrically isolated from each other, and the pairs of antenna elements of the respective detector elements are configured so that, when the switch element is conductive, current is generated between the antenna elements by polarisation components of incident terahertz electromagnetic radiation having polarisation directions in respective sensing directions that are transverse.
A method of detecting metastatic cancer cells of a gastric cancer, comprising contacting a sample obtained from a Krukenberg tumor or a sample obtained from the lymph nodes, and a control sample, with an antibody which specifically binds to Claudin-18 splice variant 2 (CLD18A2), under conditions that allow for the formation of a complex between the antibody or an antigen-binding portion thereof and CLD18A2, wherein an increased amount of complex formation in the sample is indicative of metastatic cells in the sample.
A threaded connection for steel pipes comprising a tubular pin and a tubular box , wherein the pin includes, in order from a front end of the pin toward a pipe body of the pin , an annular shoulder surface , an annular sealing surface located adjacent to the shoulder surface of the pin , and a male thread part , the box includes, in order from the pipe body of the box toward the front end of the box , an annular shoulder surface , an annular sealing surface located adjacent to the shoulder surface of the box , and a female thread part , the shoulder surface of each of the pin and the box inclines from a plane perpendicular to a pipe axis (CL) in a direction of screwing the pin , a diameter (Dpi) of an inner circumferential edge of the shoulder surface of the pin is smaller than a diameter (Dbi) of an inner circumferential edge of the shoulder surface of the box , and a thickness (tp) of an annular pin shoulder region that appears when the shoulder surface of the pin is projected onto the plane perpendicular to the pipe axis (CL) is 60% or more of a wall thickness (t) of the pipe body of the pin , and characterised in that : a thickness (tb) of an annular box shoulder region that appears when the shoulder surface of the box is projected onto the plane perpendicular to the pipe axis (CL) is 30% or more and 45% or less of a wall thickness (t) of the pipe body of the pin . the pin includes, in order from a front end of the pin toward a pipe body of the pin , an annular shoulder surface , an annular sealing surface located adjacent to the shoulder surface of the pin , and a male thread part , the box includes, in order from the pipe body of the box toward the front end of the box , an annular shoulder surface , an annular sealing surface located adjacent to the shoulder surface of the box , and a female thread part , the shoulder surface of each of the pin and the box inclines from a plane perpendicular to a pipe axis (CL) in a direction of screwing the pin , a diameter (Dpi) of an inner circumferential edge of the shoulder surface of the pin is smaller than a diameter (Dbi) of an inner circumferential edge of the shoulder surface of the box , and a thickness (tp) of an annular pin shoulder region that appears when the shoulder surface of the pin is projected onto the plane perpendicular to the pipe axis (CL) is 60% or more of a wall thickness (t) of the pipe body of the pin , and characterised in that : a thickness (tb) of an annular box shoulder region that appears when the shoulder surface of the box is projected onto the plane perpendicular to the pipe axis (CL) is 30% or more and 45% or less of a wall thickness (t) of the pipe body of the pin .
A method, performed by a computer system, for designing a multi-physics system, wherein a block diagram representation of the multi-physics system comprises modeling data and graphical data, the modeling data allowing to perform actions on the block diagram representation, the actions including simulation, analysis and/or edition of the block diagram representation, the graphical data including graphical elements including rectangles, lines, circles, bullets, ports, filled squares, and/or wires, and also optionally texts and/or images, and wherein the method comprises the steps of: • loading in the RAM of the computer system a block diagram representation of the multi-physics system and, for each respective sub-system of a given layer of the block diagram representation, a preview of a block diagram representation of the respective sub-system, the loading comprising loading in the RAM the modeling data and the graphical data of the block diagram representation of the multi-physics system and loading in the RAM at least a part of the graphical data of the block diagram representation of the respective sub-system, wherein at least a part of the modeling data of the block diagram representation of the respective sub-system is not loaded in the RAM; then • displaying (S10) the given layer of the block diagram representation of the multi-physics system, including blocks that each correspond to a respective sub-system of the multi-physics system, and, between the blocks, links that correspond to multi-physics connections between the respective sub-systems; and • upon a zoom command, sent by a user, displaying (S30) the loaded preview of the block diagram representation of the at least one respective subsystem of the given layer, the displaying of the preview being controlled by the detection, by the computer system, of the zoom command. • loading in the RAM of the computer system a block diagram representation of the multi-physics system and, for each respective sub-system of a given layer of the block diagram representation, a preview of a block diagram representation of the respective sub-system, the loading comprising loading in the RAM the modeling data and the graphical data of the block diagram representation of the multi-physics system and loading in the RAM at least a part of the graphical data of the block diagram representation of the respective sub-system, wherein at least a part of the modeling data of the block diagram representation of the respective sub-system is not loaded in the RAM; then • displaying (S10) the given layer of the block diagram representation of the multi-physics system, including blocks that each correspond to a respective sub-system of the multi-physics system, and, between the blocks, links that correspond to multi-physics connections between the respective sub-systems; and • upon a zoom command, sent by a user, displaying (S30) the loaded preview of the block diagram representation of the at least one respective subsystem of the given layer, the displaying of the preview being controlled by the detection, by the computer system, of the zoom command.
A refrigerator, comprising: an ice maker positioned in the refrigerator and configured to make ice; an ice making tray associated with the ice maker and configured to retain water to be frozen; a plate positioned at an open side of the ice making tray and configured to reduce water overflow from the ice making tray ; a cool air inlet passage configured to allow cool air to be introduced to an area inside of the plate ; a cool air outlet passage (F) that is separate from the cool air inlet passage , and configured to allow release, to an exterior of the plate , of the cool air introduced to the area inside of the plate ; a driving unit coupled to the ice making tray and configured to rotate the ice making tray ; and a control unit configured to provide a control signal to the driving unit to rotate the ice making tray , characterized in that the control unit comprises: a temperature sensor configured to detect a temperature of the ice making tray ; and a microprocessor configured to compare the detected temperature with a reference temperature to determine whether a portion of the water in the ice making tray is frozen; and wherein the cool air outlet passage (F) is between the ice making tray and the plate and made by rotation of the ice making tray . an ice maker positioned in the refrigerator and configured to make ice; an ice making tray associated with the ice maker and configured to retain water to be frozen; a plate positioned at an open side of the ice making tray and configured to reduce water overflow from the ice making tray ; a cool air inlet passage configured to allow cool air to be introduced to an area inside of the plate ; a cool air outlet passage (F) that is separate from the cool air inlet passage , and configured to allow release, to an exterior of the plate , of the cool air introduced to the area inside of the plate ; a driving unit coupled to the ice making tray and configured to rotate the ice making tray ; and a control unit configured to provide a control signal to the driving unit to rotate the ice making tray , characterized in that the control unit comprises: a temperature sensor configured to detect a temperature of the ice making tray ; and a microprocessor configured to compare the detected temperature with a reference temperature to determine whether a portion of the water in the ice making tray is frozen; and wherein the cool air outlet passage (F) is between the ice making tray and the plate and made by rotation of the ice making tray . a temperature sensor configured to detect a temperature of the ice making tray ; and a microprocessor configured to compare the detected temperature with a reference temperature to determine whether a portion of the water in the ice making tray is frozen; and wherein the cool air outlet passage (F) is between the ice making tray and the plate and made by rotation of the ice making tray .