mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a tire comprising a reinforcing member (15, 17) comprising a reinforcing cord (15a, 15b, 17a, 17b) continuously wound a plurality of times in a tire circumferential direction or wound in the tire circumferential direction while continuously extending in a tire width direction, the method comprising: preparing a plurality of feeding units (3A, 3B) feeding the reinforcing cords (15a, 15b, 17a, 17b), feeding, in advance as a preceding reinforcing cord (15a, 15b, 17a, 17b), the reinforcing cord (15a, 15b, 17a, 17b) stocked in one of the feeding units (3A, 3B) and using the preceding reinforcing cord (15a, 15b, 17a, 17b) to form the reinforcing member (15, 17), using, as a next reinforcing cord (15a, 15b, 17a, 17b), the reinforcing cord (15a, 15b, 17a, 17b) stocked in another of the feeding units (3A, 3B) and paying out a leading edge portion of the next reinforcing cord (15a, 15b, 17a, 17b), at a time when a predetermined length of the preceding reinforcing cord (15a, 15b, 17a, 17b) is fed, joining the leading edge portion to the preceding reinforcing cord (15a, 15b, 17a, 17b) using a splice mechanism to make the leading edge portion continuous with the preceding reinforcing cord (15a, 15b, 17a, 17b), then continuing formation of the reinforcing member (15, 17)while feeding the next reinforcing cord (15a, 15b, 17a, 17b) to complete the reinforcing member (15, 17), vulcanizing a green tire with the reinforcing member (15, 17) completed, and disposing, within a setting range of the bead core portion constituting the tire, a joint portion at which the preceding reinforcing cord (15a, 15b, 17a, 17b) and the next reinforcing cord (15a, 15b, 17a, 17b) are joined.
A routing rule obtaining method, applied to a Mobile Edge Computing, MEC, system, the MEC system comprises a data bus controller and a data bus, and the method comprises: obtaining, by the data bus controller, service information of at least one service in the MEC system, wherein service information of each service comprises a service type and a service identity; generating, by the data bus controller, a routing rule according to the service information of the at least one service, wherein the routing rule is used to indicate at least one path through which a data packet can pass; and sending, by the data bus controller, the routing rule to the data bus, wherein the routing rule is used for the data bus forwarding a received data packet to a service corresponding to the data packet; wherein the data bus comprises a classifier and a service function forwarder, and the method further comprises: receiving, by the classifier, the data packet; selecting, by the classifier, a data routing path from the at least one path; and forwarding, by the service function forwarder, the data packet to the service corresponding to the data packet according to the routing path selected by the classifier. obtaining, by the data bus controller, service information of at least one service in the MEC system, wherein service information of each service comprises a service type and a service identity; generating, by the data bus controller, a routing rule according to the service information of the at least one service, wherein the routing rule is used to indicate at least one path through which a data packet can pass; and sending, by the data bus controller, the routing rule to the data bus, wherein the routing rule is used for the data bus forwarding a received data packet to a service corresponding to the data packet; wherein the data bus comprises a classifier and a service function forwarder, and the method further comprises: receiving, by the classifier, the data packet; selecting, by the classifier, a data routing path from the at least one path; and forwarding, by the service function forwarder, the data packet to the service corresponding to the data packet according to the routing path selected by the classifier. receiving, by the classifier, the data packet; selecting, by the classifier, a data routing path from the at least one path; and forwarding, by the service function forwarder, the data packet to the service corresponding to the data packet according to the routing path selected by the classifier.
A thermally managed electromagnetic switching device comprising: a current carrying component set switchable between a closed, current carrying state and an open, current interrupting state; and a thermally dissipating component set that functionally supports and electrically isolates said current carrying component set in said open state, said thermally dissipating component set comprising a thermally conductive polymer and being cooperatively structured to transfer heat away from said current carrying component set in said closed state to dissipate thermal energy wherein said thermally dissipating component set comprises a base and a cover coupled to said base; wherein said cover and said base are made of the thermally conductive polymer; wherein said current carrying component set comprises a pair of electrically conductive fixed contacts carried by a pair of bus bars; and wherein said pair of bus bars are mechanically interlocked or chemically bonded to the thermally conductive polymer of said base, characterized in that each of said bus bars includes an insert mechanically interlocked or chemically bonded to the thermally conductive polymer of said base; wherein said cover includes a pair of fasteners; and wherein each of said fasteners is coupled to the insert of a corresponding one of said bus bars. a current carrying component set switchable between a closed, current carrying state and an open, current interrupting state; and a thermally dissipating component set that functionally supports and electrically isolates said current carrying component set in said open state, said thermally dissipating component set comprising a thermally conductive polymer and being cooperatively structured to transfer heat away from said current carrying component set in said closed state to dissipate thermal energy wherein said thermally dissipating component set comprises a base and a cover coupled to said base; wherein said cover and said base are made of the thermally conductive polymer; wherein said current carrying component set comprises a pair of electrically conductive fixed contacts carried by a pair of bus bars; and wherein said pair of bus bars are mechanically interlocked or chemically bonded to the thermally conductive polymer of said base, characterized in that each of said bus bars includes an insert mechanically interlocked or chemically bonded to the thermally conductive polymer of said base; wherein said cover includes a pair of fasteners; and wherein each of said fasteners is coupled to the insert of a corresponding one of said bus bars.
Method for a serial driving mode of a motor vehicle comprising a gearbox which has a first electric machine, which is operated in a motor mode for driving the motor vehicle, and a second electric machine, which is operated in a generator mode, characterized in that, after a switchover signal is generated, the first electric machine is switched over from the motor mode to the generator mode and the second electric machine is switched over from the generator mode to the motor mode in order to drive the motor vehicle.
An installation for the hot-dip galvanising of components for large-series hot-dip galvanising of a large number of identical or similar components, comprising a conveyor system having at least one goods carrier for grouped conveying of a plurality of components to be fastened to the goods carrier, a degreasing device for degreasing the components, a surface treatment device for chemical and/or mechanical surface treatment of the components, a flux application device for flux application to the surface of the components and a hot-dip galvanising device for hot-dip galvanising of the components, having a galvanising bath comprising a molten zinc/aluminium alloy, characterised in that a separating device is provided for feeding, immersing, and removing a component separated from the goods carrier into or from the galvanising bath of the hot-dip galvanising device, wherein the separating device has at least one separating means, wherein, during the separation, each component can be accurately manipulated and treated by special turning and steering movements when pulling out of the melt and wherein the separating means is designed in such a way that all the components separated from the goods carrier are moved in an identical manner after the removal, in such a way that drip extensions are removed.
A managing apparatus configured to provide self-driving of a vehicle, which allows the vehicle to enter a parking space out of a plurality of parking spaces from an outside of a parking lot including the plurality of parking spaces, and which allows the vehicle to leave the parking lot for a predetermined place in the outside, said managing apparatus comprising: a wait time setting device configured to set a maximum wait time of the vehicle in the predetermined place; and a controller configured to set a driving route for returning the vehicle to the parking lot from the predetermined place on condition that the maximum wait time elapses from an arrival of the vehicle in the predetermined place, and configured to provide the self-driving of the vehicle along the driving route, characterised in that said wait time setting device is configured to set the maximum wait time so that the maximum wait time becomes shorter as a congestion degree of leaving vehicles becomes higher. a wait time setting device configured to set a maximum wait time of the vehicle in the predetermined place; and a controller configured to set a driving route for returning the vehicle to the parking lot from the predetermined place on condition that the maximum wait time elapses from an arrival of the vehicle in the predetermined place, and configured to provide the self-driving of the vehicle along the driving route, characterised in that said wait time setting device is configured to set the maximum wait time so that the maximum wait time becomes shorter as a congestion degree of leaving vehicles becomes higher.
A method implemented in a virtual network function, VNF, manager for delivering of services to a roaming UE, the services being offered by a set of VNFs (240, 245) hosted on a source radio base station, and being initially delivered to the roaming UE via a radio interface of the source radio base station, wherein the roaming UE is to roam from a radio coverage area of the source radio base station into a radio coverage area of a target radio base station, the method comprising: identifying a trigger condition for handing-over delivery of at least a subset of the services from the radio interface of the source radio base station to a radio interface of the target radio base station; transferring the subset of the services to the target radio base station through a route based on information from a software-defined networking, SDN, controller of a SDN system that includes the source radio base station and the target radio base station, wherein transferring the subset of services to the target base station comprises cloning at least one VNF hosted on the source radio base station and causing the SDN controller to set up the route from the source radio base station to the target radio base station based on a bandwidth required to transfer a clone of the at least one VNF from the source radio base station to the target radio base station; and causing at least one cloned VNF (250, 255) to be deployed on the target radio base station, the at least one cloned VNF (250, 255) on the target radio base station being adapted to offer the subset of the services to the roaming UE. identifying a trigger condition for handing-over delivery of at least a subset of the services from the radio interface of the source radio base station to a radio interface of the target radio base station; transferring the subset of the services to the target radio base station through a route based on information from a software-defined networking, SDN, controller of a SDN system that includes the source radio base station and the target radio base station, wherein transferring the subset of services to the target base station comprises cloning at least one VNF hosted on the source radio base station and causing the SDN controller to set up the route from the source radio base station to the target radio base station based on a bandwidth required to transfer a clone of the at least one VNF from the source radio base station to the target radio base station; and causing at least one cloned VNF (250, 255) to be deployed on the target radio base station, the at least one cloned VNF (250, 255) on the target radio base station being adapted to offer the subset of the services to the roaming UE.
An encoder comprising: a scale (10, 110) provided with multiple periodic patterns (11, 12, 111, 110) having mutually different periods; a sensor (20, 120) configured to be movable relative to the scale and to output, with a relative movement therebetween, multiple periodic signals periodically changing respectively corresponding to the periods of the periodic patterns; and a signal processor (30, 130) configured to calculate, by using the periodic signals, a detected movement amount as a detected value of a relative movement amount between the scale and the sensor, characterized in that the signal processor is configured (a) to calculate, by using each of the periodic signals, a difference between a current (i) phase and a preceding (i-1) phase of the periodic signals and to accumulate the difference to acquire a phase accumulated value representing an accumulated movement amount which is an accumulated value of the relative movement amount between the scale and the sensor in units of one over an integer of the period of the periodic pattern corresponding to the periodic signal used, (b) to unify the units of the accumulated movement amounts calculated by using the respective periodic signals, and (c) to calculate the detected movement amount from the accumulated movement amounts with the unified units. a scale (10, 110) provided with multiple periodic patterns (11, 12, 111, 110) having mutually different periods; a sensor (20, 120) configured to be movable relative to the scale and to output, with a relative movement therebetween, multiple periodic signals periodically changing respectively corresponding to the periods of the periodic patterns; and a signal processor (30, 130) configured to calculate, by using the periodic signals, a detected movement amount as a detected value of a relative movement amount between the scale and the sensor, characterized in that the signal processor is configured (a) to calculate, by using each of the periodic signals, a difference between a current (i) phase and a preceding (i-1) phase of the periodic signals and to accumulate the difference to acquire a phase accumulated value representing an accumulated movement amount which is an accumulated value of the relative movement amount between the scale and the sensor in units of one over an integer of the period of the periodic pattern corresponding to the periodic signal used, (b) to unify the units of the accumulated movement amounts calculated by using the respective periodic signals, and (c) to calculate the detected movement amount from the accumulated movement amounts with the unified units.
A method for moving an elevator car to a landing floor in case of a predefined event related to a main electrical power supply of an elevator, wherein the predefined event is a failure in or loss of the main electrical power supply, the method comprising - charging energy from the main electrical power supply into an external electrical energy storage prior to - detecting the predefined event related to the main electrical power supply, characterized in that, the method comprises - controlling an operation of an electric motor for moving the elevator car with an electrical drive to decelerate the elevator car and to produce regenerative electrical energy, wherein the controlling comprises regulating a speed of the elevator car so as to move the elevator car to the landing floor, and - preventing activation of an elevator brake due to the predefined event by utilizing said energy charged from the main electrical power supply into the external electrical energy storage and said produced regenerative electrical energy to maintain an elevator brake in deactivated state, wherein the external electrical energy storage is electrically connected to the elevator brake prior to the detection to provide electrical power to maintain the elevator brake in the deactivated state. - charging energy from the main electrical power supply into an external electrical energy storage prior to - detecting the predefined event related to the main electrical power supply, characterized in that, the method comprises - controlling an operation of an electric motor for moving the elevator car with an electrical drive to decelerate the elevator car and to produce regenerative electrical energy, wherein the controlling comprises regulating a speed of the elevator car so as to move the elevator car to the landing floor, and - preventing activation of an elevator brake due to the predefined event by utilizing said energy charged from the main electrical power supply into the external electrical energy storage and said produced regenerative electrical energy to maintain an elevator brake in deactivated state, wherein the external electrical energy storage is electrically connected to the elevator brake prior to the detection to provide electrical power to maintain the elevator brake in the deactivated state.
Dispenser having a cartridge holder, wherein the cartridge holder has at least one guide and/or rotation-prevention means (25, 27) for a cartridge and/or a cartridge receptacle, wherein the cartridge holder comprises a fastening flange which engages in a form-fitting and/or force-fitting manner around the cartridge receptacle during or after insertion into the cartridge holder, characterized in that the fastening flange comprises a release mechanism which is configured in such a way that an actuation of the release mechanism results in the cartridge receptacle being engaged around by the fastening flange in such a way that a relative movement between the cartridge receptacle and a release element, which is in contact with a piercing means, is generated, whereby the piercing means is transferred from a retracted position into an extended position.
A rubber composition for tires, the rubber composition comprising a rubber component containing 50 mass% or greater of a natural rubber and from 15 mass% to 50 mass% of a terminal-modified butadiene rubber per 100 parts by mass of the rubber component, and a filler containing carbon black and silica that is blended into the rubber component at a mass ratio from 0.1 to 0.5 between a blended amount of the silica and a blended amount of the filler, the rubber composition having a hardness of 73 or greater, and a modulus of repulsion elasticity at 40°C of 60% or greater, wherein the hardness of the rubber composition was measured at a temperature of 20°C by a type A durometer in accordance with JIS K 6253 and the modulus of repulsion elasticity of the rubber composition was measured at a temperature of 40°C by a Luepke impact resilience tester in accordance with JIS K 6255. a rubber component containing 50 mass% or greater of a natural rubber and from 15 mass% to 50 mass% of a terminal-modified butadiene rubber per 100 parts by mass of the rubber component, and a filler containing carbon black and silica that is blended into the rubber component at a mass ratio from 0.1 to 0.5 between a blended amount of the silica and a blended amount of the filler, the rubber composition having a hardness of 73 or greater, and a modulus of repulsion elasticity at 40°C of 60% or greater, wherein the hardness of the rubber composition was measured at a temperature of 20°C by a type A durometer in accordance with JIS K 6253 and the modulus of repulsion elasticity of the rubber composition was measured at a temperature of 40°C by a Luepke impact resilience tester in accordance with JIS K 6255.
A compound of formula: wherein an alkoxymethylene group, =CHOR, is present at position 1, 2 or 3; and wherein R represents a C 1-3 alkyl group. wherein an alkoxymethylene group, =CHOR, is present at position 1, 2 or 3; and wherein R represents a C 1-3 alkyl group.
An end effector which is not attached to the shaft of a surgical instrument, the end effector comprising: an anvil assembly, comprising: a first jaw member comprising an anvil; and a second jaw member in the form of an anvil frame comprising a staple cartridge channel configured to receive a staple cartridge therein; wherein the anvil comprises: a proximal pivot end rotatably coupled to said anvil frame; a movable distal end; and a staple forming surface; characterised in that the end effector further comprises: a closure system configured to engage said distal end of said anvil; and a drive system including an input connector, wherein said drive system is configured to operate said closure system and transition said anvil from an open position to a closed position, and wherein an actuator can be coupled to said drive system after said end effector is inserted to a treatment location. an anvil assembly, comprising: a first jaw member comprising an anvil; and a second jaw member in the form of an anvil frame comprising a staple cartridge channel configured to receive a staple cartridge therein; wherein the anvil comprises: a proximal pivot end rotatably coupled to said anvil frame; a movable distal end; and a staple forming surface; a first jaw member comprising an anvil; and a second jaw member in the form of an anvil frame comprising a staple cartridge channel configured to receive a staple cartridge therein; wherein the anvil comprises: a proximal pivot end rotatably coupled to said anvil frame; a movable distal end; and a staple forming surface; a proximal pivot end rotatably coupled to said anvil frame; a movable distal end; and a staple forming surface; characterised in that the end effector further comprises: a closure system configured to engage said distal end of said anvil; and a drive system including an input connector, wherein said drive system is configured to operate said closure system and transition said anvil from an open position to a closed position, and wherein an actuator can be coupled to said drive system after said end effector is inserted to a treatment location. a closure system configured to engage said distal end of said anvil; and a drive system including an input connector, wherein said drive system is configured to operate said closure system and transition said anvil from an open position to a closed position, and wherein an actuator can be coupled to said drive system after said end effector is inserted to a treatment location.