mhurhangee/patent-ind-claim-en huggingface dataset:
A stretchable contractible wiring sheet , comprising: a first elastomer sheet that is stretchable and contractible; a second elastomer sheet that is stretchable and contractible, and bonded on the first elastomer sheet in a manner to face the first elastomer sheet ; and a lead interposed between the first elastomer sheet and the second elastomer sheet in a state of having a wavy shape periodically curving in a plane parallel to and between facing surfaces of the first elastomer sheet and the second elastomer sheet and being biased into said wavy shape periodically curving in a plane parallel and between in facing surfaces to restore to the shape of a straight line during unloading of said lead biased into said wavy shape by stretching said stretchable and contractible first and second elastomer sheet. a first elastomer sheet that is stretchable and contractible; a second elastomer sheet that is stretchable and contractible, and bonded on the first elastomer sheet in a manner to face the first elastomer sheet ; and a lead interposed between the first elastomer sheet and the second elastomer sheet in a state of having a wavy shape periodically curving in a plane parallel to and between facing surfaces of the first elastomer sheet and the second elastomer sheet and being biased into said wavy shape periodically curving in a plane parallel and between in facing surfaces to restore to the shape of a straight line during unloading of said lead biased into said wavy shape by stretching said stretchable and contractible first and second elastomer sheet.
A cooking vessel for an induction cooking hob , wherein: - the cooking vessel comprises an outer container , - the cooking vessel comprises at least one receiving coil , - the cooking vessel comprises at least one electric heating element connected to the receiving coil , and - the receiving coil is adapted for transferring a magnetic field from an induction coil of an induction cooking hob to an alternating current, characterised in that - the cooking vessel comprises an inner container , - the cooking vessel comprises at least one thermostat connected to the receiving coil and to the electric heating element , - the thermostat is arranged beneath the bottom wall of the inner container , and - the thermostat disconnects the electric heating element from the receiving coil , if the temperature at the bottom wall of the inner container exceeds a temperature threshold value. - the cooking vessel comprises an outer container , - the cooking vessel comprises at least one receiving coil , - the cooking vessel comprises at least one electric heating element connected to the receiving coil , and - the receiving coil is adapted for transferring a magnetic field from an induction coil of an induction cooking hob to an alternating current, characterised in that - the cooking vessel comprises an inner container , - the cooking vessel comprises at least one thermostat connected to the receiving coil and to the electric heating element , - the thermostat is arranged beneath the bottom wall of the inner container , and - the thermostat disconnects the electric heating element from the receiving coil , if the temperature at the bottom wall of the inner container exceeds a temperature threshold value.
A load balancing method, comprising: a control apparatus receiving (S102) load balancing coefficients of all cells which belong to a plurality of base stations; the control apparatus ranking (S104) all the cells according to values of the load balancing coefficients and determining a cell with a highest load balancing coefficient; and the control apparatus sending (S106) a ranking result to a base station corresponding to the cell with the highest load balancing coefficient, characterized in that before the control apparatus receiving (S102) the load balancing coefficients of all cells which belong to a plurality of base stations, the method further comprises: the control apparatus periodically receiving load balancing coefficients of a current cycle sent by the plurality of base stations, wherein the load balancing coefficients of the current cycle are obtained according to the following steps: each base station in the plurality of base stations periodically calculating current-cycle load balancing coefficients of all cells which belong to the base station, and sending the load balancing coefficients of the current cycle to the control apparatus. a control apparatus receiving (S102) load balancing coefficients of all cells which belong to a plurality of base stations; the control apparatus ranking (S104) all the cells according to values of the load balancing coefficients and determining a cell with a highest load balancing coefficient; and the control apparatus sending (S106) a ranking result to a base station corresponding to the cell with the highest load balancing coefficient, characterized in that before the control apparatus receiving (S102) the load balancing coefficients of all cells which belong to a plurality of base stations, the method further comprises: the control apparatus periodically receiving load balancing coefficients of a current cycle sent by the plurality of base stations, wherein the load balancing coefficients of the current cycle are obtained according to the following steps: each base station in the plurality of base stations periodically calculating current-cycle load balancing coefficients of all cells which belong to the base station, and sending the load balancing coefficients of the current cycle to the control apparatus.
A method for producing a SOI wafer, comprising: implanting at least one type of gas ion selected from a hydrogen ion and a rare gas ion from a surface of a bond wafer formed of a silicon single crystal to form an ion implanted layer, bonding the ion-implanted surface of the bond wafer to a surface of a base wafer formed of a silicon single crystal through a silicon oxide film formed on the base wafer surface, delaminating the bond wafer at the ion implanted layer by performing delamination heat treatment to fabricate a SOI wafer having a buried oxide film layer and a SOI layer on the base wafer, and performing flattening heat treatment on the SOI wafer in an atmosphere containing argon gas, wherein, after the delamination heat treatment, without inserting another heat treatment, processing to remove silicon thin pieces present on the silicon oxide film in a terrace portion of the SOI wafer is performed, and thereafter, the flattening heat treatment is performed in the atmosphere containing argon gas, after the processing to remove the silicon thin pieces is performed, and before the flattening heat treatment is performed in the atmosphere containing argon gas, sacrificial oxidation treatment is performed on the SOI layer of the SOI wafer, and the silicon thin pieces are removed by performing, as the processing to remove the silicon thin pieces, etching to reduce a thickness of the silicon oxide film in the terrace portion by using an aqueous solution containing HF, or as the processing to remove the silicon thin pieces, cleaning is performed by a physical action.
A refrigerated transport system comprising: a body enclosing a refrigerated compartment and comprising: a pair of side walls ; a top ; a bottom ; and one or more doors ; and a refrigeration system comprising: a vapor compression loop having a first heat exchanger positioned to reject heat to an external environment in a cooling mode; characterised in further comprising: a heat transfer loop having a second heat exchanger positioned to absorb heat from the refrigerated compartment in the cooling mode; and an inter-loop heat exchanger having a first leg along the vapor compression loop and a second leg along the heat transfer loop in heat exchange relation with the first leg. a body enclosing a refrigerated compartment and comprising: a pair of side walls ; a top ; a bottom ; and one or more doors ; and a pair of side walls ; a top ; a bottom ; and one or more doors ; and a refrigeration system comprising: a vapor compression loop having a first heat exchanger positioned to reject heat to an external environment in a cooling mode; a vapor compression loop having a first heat exchanger positioned to reject heat to an external environment in a cooling mode; a heat transfer loop having a second heat exchanger positioned to absorb heat from the refrigerated compartment in the cooling mode; and an inter-loop heat exchanger having a first leg along the vapor compression loop and a second leg along the heat transfer loop in heat exchange relation with the first leg.
A threshing system for use in an agricultural harvester , the threshing system comprising: a rotor for the movement of crop material through the threshing system , the rotor having a rotational axis (RA); and a perforated concave system spaced radially outward from the rotor for the passage of grain through the perforations as the rotor moves the crop material across the concave system ; the concave system including: at least one concave section having: a rigid frame having a plurality of sides rigidly coupled together; a plurality of pivotal members pivotally coupled to and extending to two of the sides of the rigid frame ; and at least one arcuate movable member interacting with the plurality of pivotal members to pivot each of the pivotal members as the arcuate movable member is moved along a segment of an arc (M2) generally about the rotational axis (RA); characterized in that each of the pivotal members have at least one toothed section coupled proximate an end of the pivotal member . a rotor for the movement of crop material through the threshing system , the rotor having a rotational axis (RA); and a perforated concave system spaced radially outward from the rotor for the passage of grain through the perforations as the rotor moves the crop material across the concave system ; the concave system including: at least one concave section having: a rigid frame having a plurality of sides rigidly coupled together; a plurality of pivotal members pivotally coupled to and extending to two of the sides of the rigid frame ; and at least one arcuate movable member interacting with the plurality of pivotal members to pivot each of the pivotal members as the arcuate movable member is moved along a segment of an arc (M2) generally about the rotational axis (RA); a rigid frame having a plurality of sides rigidly coupled together; a plurality of pivotal members pivotally coupled to and extending to two of the sides of the rigid frame ; and at least one arcuate movable member interacting with the plurality of pivotal members to pivot each of the pivotal members as the arcuate movable member is moved along a segment of an arc (M2) generally about the rotational axis (RA); characterized in that each of the pivotal members have at least one toothed section coupled proximate an end of the pivotal member .
A method of manufacturing a welding electrode, comprising: compacting a copper alloy powder into a plurality of substantially uniform compressed sub-assemblies such that the copper alloy powder of the plurality of compressed sub-assemblies has a packing density that is greater than 50%; layering the plurality of compressed sub-assemblies relative one another within an aperture of a shell , the plurality of compressed sub-assemblies forming a consecutive assembly of compacted copper alloy; sealing the consecutive assembly within the shell to form a billet ; hot extruding the billet at a temperature above 900° C into a composite metal wire having a first end and a second end, the composite wire including a core and a shell surrounding the core, the core and the shell having a metallurgical bond formed from co-extrusion; deforming the wire into a first shape such that the first end forms a rounded tip having a truncation; deforming the wire from the first shape into a second shape such that a cavity is formed in the second end; deforming the wire from the second shape into a composite welding electrode; wherein deforming the wire from the first shape into the second shape pushes the core from the second end toward the first end; wherein the shell comprises one of the following: a precipitation hardened copper alloy, copper alloy, and carbon steel; wherein the core comprises dispersion strengthened copper; wherein the core of the composite welding electrode has a diameter that increases from the rounded tip toward the cavity . compacting a copper alloy powder into a plurality of substantially uniform compressed sub-assemblies such that the copper alloy powder of the plurality of compressed sub-assemblies has a packing density that is greater than 50%; layering the plurality of compressed sub-assemblies relative one another within an aperture of a shell , the plurality of compressed sub-assemblies forming a consecutive assembly of compacted copper alloy; sealing the consecutive assembly within the shell to form a billet ; hot extruding the billet at a temperature above 900° C into a composite metal wire having a first end and a second end, the composite wire including a core and a shell surrounding the core, the core and the shell having a metallurgical bond formed from co-extrusion; deforming the wire into a first shape such that the first end forms a rounded tip having a truncation; deforming the wire from the first shape into a second shape such that a cavity is formed in the second end; deforming the wire from the second shape into a composite welding electrode; wherein deforming the wire from the first shape into the second shape pushes the core from the second end toward the first end; wherein the shell comprises one of the following: a precipitation hardened copper alloy, copper alloy, and carbon steel; wherein the core comprises dispersion strengthened copper; wherein the core of the composite welding electrode has a diameter that increases from the rounded tip toward the cavity .
A monitoring and alert system , the system comprising: a first sensor system to determine a position of a vehicle relative to a pedestrian zone adjacent a dock wall of a loading dock ; and a second sensor system to monitor the pedestrian zone , the second sensor system to attempt to detect a pedestrian in the pedestrian zone , and; a controller , the second sensor system and the first sensor system communicatively coupled to a controller , wherein the controller , responsive to signals from the first sensor system (132, 504-704), is adapted to cause the second sensor system to dynamically change a sensing area of the pedestrian zone to maintain a predetermined delta threshold between the vehicle and the pedestrian zone in response to the vehicle moving toward a dock wall of the loading dock . a first sensor system to determine a position of a vehicle relative to a pedestrian zone adjacent a dock wall of a loading dock ; and a second sensor system to monitor the pedestrian zone , the second sensor system to attempt to detect a pedestrian in the pedestrian zone , and; a controller , the second sensor system and the first sensor system communicatively coupled to a controller , wherein the controller , responsive to signals from the first sensor system (132, 504-704), is adapted to cause the second sensor system to dynamically change a sensing area of the pedestrian zone to maintain a predetermined delta threshold between the vehicle and the pedestrian zone in response to the vehicle moving toward a dock wall of the loading dock .
A housing assembly of a valve, comprising: a valve base and a housing fixedly provided on the valve base , the valve base has a first fitting end face facing the housing , and the housing has a second fitting end face matched with the first fitting end face of the valve base , wherein the housing assembly further comprises: a sleeve , at least one portion of the sleeve is provided on an outer side of the housing in a sleeving manner; and a reinforcement portion , provided on an outer side wall of the sleeve , the reinforcement portion comprising a first reinforcement portion , the first reinforcement portion is located above the first fitting end face, the first reinforcement portion is protruded out of the sleeve along a radial direction of the housing ; the sleeve is provided on an outer side of the valve base and the housing in a sleeving manner, and the sleeve shelters from the first fitting end face and the second fitting end face, the sleeve and the housing are in interference fit, and the sleeve is welded to the housing , a weld joint is formed among the first fitting end face, the second fitting end face and the sleeve . a valve base and a housing fixedly provided on the valve base , the valve base has a first fitting end face facing the housing , and the housing has a second fitting end face matched with the first fitting end face of the valve base , wherein the housing assembly further comprises: a sleeve , at least one portion of the sleeve is provided on an outer side of the housing in a sleeving manner; and a reinforcement portion , provided on an outer side wall of the sleeve , the reinforcement portion comprising a first reinforcement portion , the first reinforcement portion is located above the first fitting end face, the first reinforcement portion is protruded out of the sleeve along a radial direction of the housing ; the sleeve is provided on an outer side of the valve base and the housing in a sleeving manner, and the sleeve shelters from the first fitting end face and the second fitting end face, the sleeve and the housing are in interference fit, and the sleeve is welded to the housing , a weld joint is formed among the first fitting end face, the second fitting end face and the sleeve . a sleeve , at least one portion of the sleeve is provided on an outer side of the housing in a sleeving manner; and a reinforcement portion , provided on an outer side wall of the sleeve , the reinforcement portion comprising a first reinforcement portion , the first reinforcement portion is located above the first fitting end face, the first reinforcement portion is protruded out of the sleeve along a radial direction of the housing ; the sleeve is provided on an outer side of the valve base and the housing in a sleeving manner, and the sleeve shelters from the first fitting end face and the second fitting end face, the sleeve and the housing are in interference fit, and the sleeve is welded to the housing , a weld joint is formed among the first fitting end face, the second fitting end face and the sleeve .
A method comprising: establishing, by a telemetry exporter in a network , a tunnel between the telemetry exporter and a traffic analysis service ; obtaining, by the telemetry exporter, packet copies of a plurality of packets sent between devices via the network; forming, by the telemetry exporter, a set of traffic telemetry data by discarding at least a portion of one or more of the packet copies, based on a filter policy; applying, by the telemetry exporter, compression to the formed set of traffic telemetry data; and sending, by the telemetry exporter and via the tunnel, the compressed set of traffic telemetry data to the traffic analysis service for analysis. establishing, by a telemetry exporter in a network , a tunnel between the telemetry exporter and a traffic analysis service ; obtaining, by the telemetry exporter, packet copies of a plurality of packets sent between devices via the network; forming, by the telemetry exporter, a set of traffic telemetry data by discarding at least a portion of one or more of the packet copies, based on a filter policy; applying, by the telemetry exporter, compression to the formed set of traffic telemetry data; and sending, by the telemetry exporter and via the tunnel, the compressed set of traffic telemetry data to the traffic analysis service for analysis.
Target identification method implemented by a first device , comprising: acquiring target detection information of a current target from a second device , wherein the target detection information is movement states of the current target; acquiring target state information of each of multiple reference targets (R1-RN), wherein the target state information of each of multiple reference targets (R1-RN) contains movement information of each of multiple reference targets (R1-RN); determining a degree of matching between the target detection information and the target state information of each of the multiple reference targets (R1-RN); associating the current target with a matching reference target having the best degree of matching amongst the multiple reference targets (R1-RN). acquiring target detection information of a current target from a second device , wherein the target detection information is movement states of the current target; acquiring target state information of each of multiple reference targets (R1-RN), wherein the target state information of each of multiple reference targets (R1-RN) contains movement information of each of multiple reference targets (R1-RN); determining a degree of matching between the target detection information and the target state information of each of the multiple reference targets (R1-RN); associating the current target with a matching reference target having the best degree of matching amongst the multiple reference targets (R1-RN).
A switch comprising: a graphene structure extending longitudinally between a pair of electrodes , the graphene structure being electrically conductively connected to both electrodes of said pair; a first electrically conductive structure and a second electrically conductive structure with the graphene structure laterally between the first and second electrically conductive structures , the first electrically conductive structure being electrically conductively connected to one of the electrodes and the second electrically conductive structure being electrically conductively connected to the other of the electrodes ; and ferroelectric material laterally between the graphene structure and at least one of the first and second electrically conductive structures with the ferroelectric material being spaced apart from the at least one of the first and second electrically conductive structures, the first and second electrically conductive structures being configured to provide the switch into "on" and "off" states by application of an electric field (EF) across the graphene structure and the ferroelectric material . a graphene structure extending longitudinally between a pair of electrodes , the graphene structure being electrically conductively connected to both electrodes of said pair; a first electrically conductive structure and a second electrically conductive structure with the graphene structure laterally between the first and second electrically conductive structures , the first electrically conductive structure being electrically conductively connected to one of the electrodes and the second electrically conductive structure being electrically conductively connected to the other of the electrodes ; and ferroelectric material laterally between the graphene structure and at least one of the first and second electrically conductive structures with the ferroelectric material being spaced apart from the at least one of the first and second electrically conductive structures, the first and second electrically conductive structures being configured to provide the switch into "on" and "off" states by application of an electric field (EF) across the graphene structure and the ferroelectric material .
A method comprising transitioning a secondary cell to a dormant state, by a wireless device , in response to receiving downlink control information comprising a frequency domain resource assignment field being set to a predefined value.