mhurhangee/patent-ind-claim-en huggingface dataset:
A continuous working system of a press machine which uses a servo motor as a power source of a ram , wherein an operation shaft which vertically moves the ram is directly driven by using the servo motor to generate ram pressure by using a torque based on speed-torque characteristics of the servo motor , and wherein a servo amplifier of the servo motor , which includes a converter A-D converting three-phase commercial alternating power supply, a power driver being provided at its front stage with a reactor adapted to suppress peak current by cutting off high frequency current component, and a capacitor adapted to supply electric energy which is decreased due to suppression of the peak current, is controlled in a manner such that the operation shaft, which comprises an eccentric shaft , is continuously reciprocated and turned through a reciprocating turning angle range (θ) corresponding to a distance between a lower end position (L) required for press working by the ram and an upper end position (H) such that the ram vertically moves between these positions (L, H) by the servo motor , thereby subjecting a work to a continuous press working, wherein the upper end position (H) is set to a position slightly below a medium height (M) of an entire vertically possible stroke of the ram , and the lower end position (L) is set to a position slightly above a bottom dead center (B) of the entire vertically possible stroke of the ram , wherein the reciprocating turning angle range (θ) of the operation shaft is set to 40° to 60°.
A network controller comprising means for performing: - monitoring routing paths (120-122, 123-124) wherein data-packets are exchanged between an access point, AP , and respective associated devices, STAs , in a Wi-Fi network comprising at least one range extender, EXT (102-105); and - classifying the STAs as a delay-sensitive associated device, DSC , or a throughput-sensitive associated device, TSC ; characterized in that , the network controller further comprises means for performing: - calculating an average delay between the DSCs and the AP , and an average throughput between the TSCs and the AP ; - weighting the average delay with the average throughput, thereby obtaining a performance coefficient; and - optimizing the performance coefficient by altering the routing paths (200-202, 203). - monitoring routing paths (120-122, 123-124) wherein data-packets are exchanged between an access point, AP , and respective associated devices, STAs , in a Wi-Fi network comprising at least one range extender, EXT (102-105); and - classifying the STAs as a delay-sensitive associated device, DSC , or a throughput-sensitive associated device, TSC ; - calculating an average delay between the DSCs and the AP , and an average throughput between the TSCs and the AP ; - weighting the average delay with the average throughput, thereby obtaining a performance coefficient; and - optimizing the performance coefficient by altering the routing paths (200-202, 203).
A method for a user equipment, in the following also referred to as UE, comprising: receiving at least one signaling carrying scheduling information ; receiving a first transmission via a first UE beam ; receiving a second transmission via a second UE beam ; and determining whether to combine the first transmission and the second transmission for decoding based on the at least one signaling ; wherein, the first transmission and the second transmission occur concurrently; characterized in that said determining whether to combine the first transmission and the second transmission for decoding comprises determining that the first transmission and the second transmission include the same data unit if the first transmission and the second transmission are identified in a same scheduling information on a first beam. receiving at least one signaling carrying scheduling information ; receiving a first transmission via a first UE beam ; receiving a second transmission via a second UE beam ; and determining whether to combine the first transmission and the second transmission for decoding based on the at least one signaling ; wherein, the first transmission and the second transmission occur concurrently; characterized in that said determining whether to combine the first transmission and the second transmission for decoding comprises determining that the first transmission and the second transmission include the same data unit if the first transmission and the second transmission are identified in a same scheduling information on a first beam.
An intraocular lens insertion system comprising: an intraocular lens insertion apparatus configured to use a predetermined driving force to move an intraocular lens and insert the intraocular lens into an eyeball; and a driving source configured to deliver the predetermined driving force to the intraocular lens insertion apparatus ; characterised by : an irrigating solution infusion apparatus configured to infuse irrigating solution into the eyeball; an irrigating solution source configured to deliver the irrigating solution to the irrigating solution infusion apparatus ; and a switching unit configured to switch in a multistage manner a control of a delivery of the irrigating solution from the irrigating solution source to the irrigating solution infusion apparatus and a control of a delivery of the predetermined driving force from the driving source to the intraocular lens insertion apparatus . an intraocular lens insertion apparatus configured to use a predetermined driving force to move an intraocular lens and insert the intraocular lens into an eyeball; and a driving source configured to deliver the predetermined driving force to the intraocular lens insertion apparatus ; characterised by : an irrigating solution infusion apparatus configured to infuse irrigating solution into the eyeball; an irrigating solution source configured to deliver the irrigating solution to the irrigating solution infusion apparatus ; and a switching unit configured to switch in a multistage manner a control of a delivery of the irrigating solution from the irrigating solution source to the irrigating solution infusion apparatus and a control of a delivery of the predetermined driving force from the driving source to the intraocular lens insertion apparatus . an irrigating solution infusion apparatus configured to infuse irrigating solution into the eyeball; an irrigating solution source configured to deliver the irrigating solution to the irrigating solution infusion apparatus ; and a switching unit configured to switch in a multistage manner a control of a delivery of the irrigating solution from the irrigating solution source to the irrigating solution infusion apparatus and a control of a delivery of the predetermined driving force from the driving source to the intraocular lens insertion apparatus .
An uninterruptable power supply (U PS) for an electrical consumer, comprising a first current path and a second current path , which are configured to supply the electrical consumer with electrical energy; a first switch , which is configured to interrupt the first current path ; a voltage converter for limiting a current intensity of an electrical current, wherein the voltage converter is arranged in the second current path ; and a controller , which is configured to open the first switch when a current intensity limit value of the electrical current in the first current path is reached in order to electrically interrupt the first current path and conduct the electrical current over the voltage converter in order to limit the current, wherein the first switch is electrically arranged in parallel to the voltage converter , and wherein the voltage converter is a step-down converter for voltage reduction, characterized in that the voltage converter is configured to adjust the current intensity of the electrical current, so that the electrical current can flow through the second current path and/or the electrical consumer with a current intensity below the current intensity limit value. a first current path and a second current path , which are configured to supply the electrical consumer with electrical energy; a first switch , which is configured to interrupt the first current path ; a voltage converter for limiting a current intensity of an electrical current, wherein the voltage converter is arranged in the second current path ; and a controller , which is configured to open the first switch when a current intensity limit value of the electrical current in the first current path is reached in order to electrically interrupt the first current path and conduct the electrical current over the voltage converter in order to limit the current, wherein the first switch is electrically arranged in parallel to the voltage converter , and wherein the voltage converter is a step-down converter for voltage reduction, characterized in that the voltage converter is configured to adjust the current intensity of the electrical current, so that the electrical current can flow through the second current path and/or the electrical consumer with a current intensity below the current intensity limit value.
A method performed by an Access and Mobility Management Function, AMF , in a wireless communication system, the method comprising: detecting that a User Equipment, UE , has established a PDU session for an emergency service or the UE is establishing a PDU session for the emergency service; detecting that a network slice authentication and authorization fails for all allowed Network Slice Selection Identifiers, NSSAIs, wherein when the AMF detects that the network slice authentication and authorization fails for all allowed NSSAIs, the method further comprises the AMF keeping a registration of the UE with regard to the PDU session; and sending, to the UE , a configuration update command including at least one rejected NSSAI with a rejection cause value. detecting that a User Equipment, UE , has established a PDU session for an emergency service or the UE is establishing a PDU session for the emergency service; detecting that a network slice authentication and authorization fails for all allowed Network Slice Selection Identifiers, NSSAIs, wherein when the AMF detects that the network slice authentication and authorization fails for all allowed NSSAIs, the method further comprises the AMF keeping a registration of the UE with regard to the PDU session; and sending, to the UE , a configuration update command including at least one rejected NSSAI with a rejection cause value.
A switch arrangement of an electrical system of an aircraft, comprising: a switch with a source lead and a load lead ; and a sensor coupled to the switch; and characterised by : a switch monitor in communication with the sensor and responsive to execution of instructions recorded on a memory , which when executed by the switch monitor cause the switch monitor to: receive a measurement of a switch parameter from the sensor; compare the measurement to a baseline associated with the switch; and determine switch margin associated with a predicted end-of-life using the comparison of the measurement with the baseline associated with the switch, wherein the predicted end-of-life is calculated using a profile of aircraft operation. a switch with a source lead and a load lead ; and a sensor coupled to the switch; and characterised by : a switch monitor in communication with the sensor and responsive to execution of instructions recorded on a memory , which when executed by the switch monitor cause the switch monitor to: receive a measurement of a switch parameter from the sensor; compare the measurement to a baseline associated with the switch; and determine switch margin associated with a predicted end-of-life using the comparison of the measurement with the baseline associated with the switch, wherein the predicted end-of-life is calculated using a profile of aircraft operation. receive a measurement of a switch parameter from the sensor; compare the measurement to a baseline associated with the switch; and determine switch margin associated with a predicted end-of-life using the comparison of the measurement with the baseline associated with the switch, wherein the predicted end-of-life is calculated using a profile of aircraft operation.
A gas turbine engine comprising: a compressor ; a combustor fluidly connected to the compressor via a primary flowpath (C); a turbine fluidly connected to the combustor via the primary flowpath (C); and an engine controller (72; 160) communicatively coupled to at least one sensor in the gas turbine engine , the controller (72; 160) including a non-transitory memory and a processor, and the at least one sensor including an inlet temperature sensor , wherein the sensor is disposed aft of a fan (42; 130), characterised in that : the gas turbine engine further comprises an inlet fan section defined by a dimensional relationship L/D of between 0.2 and 0.45, where L is a distance from an inlet to a leading edge of at least one fan blade and D is a diameter of the fan, and said memory stores instructions for causing said processor to synthesize a gas turbine engine inlet temperature based on a temperature at said sensor . a compressor ; a combustor fluidly connected to the compressor via a primary flowpath (C); a turbine fluidly connected to the combustor via the primary flowpath (C); and an engine controller (72; 160) communicatively coupled to at least one sensor in the gas turbine engine , the controller (72; 160) including a non-transitory memory and a processor, and the at least one sensor including an inlet temperature sensor , wherein the sensor is disposed aft of a fan (42; 130), characterised in that : the gas turbine engine further comprises an inlet fan section defined by a dimensional relationship L/D of between 0.2 and 0.45, where L is a distance from an inlet to a leading edge of at least one fan blade and D is a diameter of the fan, and said memory stores instructions for causing said processor to synthesize a gas turbine engine inlet temperature based on a temperature at said sensor .
A sensor apparatus , comprising: an element substrate ; a detecting section disposed on an upper surface of the element substrate , the detecting section comprising a reaction section having an immobilization film to detect an object to be detected, a first IDT electrode configured to generate an acoustic wave which propagates toward the reaction section , and a second IDT electrode configured to receive the acoustic wave which has passed through the reaction section ; and a protective film located on the upper surface of the element substrate so as to cover the first IDT electrode , the second IDT electrode , and a part of the immobilization film , the protective film extending between and contacting with the immobilization film and at least one of the first IDT electrode and the second IDT electrode , characterized in that a thickness of the immobilization film in a region (13a1) which is covered with the protective film is greater than a thickness of the immobilization film in a region (13a2) which is not covered with the protective film . an element substrate ; a detecting section disposed on an upper surface of the element substrate , the detecting section comprising a reaction section having an immobilization film to detect an object to be detected, a first IDT electrode configured to generate an acoustic wave which propagates toward the reaction section , and a second IDT electrode configured to receive the acoustic wave which has passed through the reaction section ; and a protective film located on the upper surface of the element substrate so as to cover the first IDT electrode , the second IDT electrode , and a part of the immobilization film , the protective film extending between and contacting with the immobilization film and at least one of the first IDT electrode and the second IDT electrode , characterized in that a thickness of the immobilization film in a region (13a1) which is covered with the protective film is greater than a thickness of the immobilization film in a region (13a2) which is not covered with the protective film .
MnZnCo-based ferrite consisting of basic components, auxiliary components, and inevitable impurities, wherein the basic components are Fe 2 O 3 : 51.00 mol% or more and less than 58.00 mol%, ZnO: 6.00 mol% or more and less than 13.00 mol%, and CoO: more than 0.10 mol% and 0.50 mol% or less, with the balance being MnO, and the auxiliary components are 50 mass ppm to 500 mass ppm of Si in terms of SiO 2 , 200 mass ppm to 2000 mass ppm of Ca in terms of CaO, 85 mass ppm to 500 mass ppm of Nb in terms of Nb 2 O 5 , and 5 mass ppm to 20 mass ppm of K, relative to the basic components. the basic components are Fe 2 O 3 : 51.00 mol% or more and less than 58.00 mol%, ZnO: 6.00 mol% or more and less than 13.00 mol%, and CoO: more than 0.10 mol% and 0.50 mol% or less, with the balance being MnO, and the auxiliary components are 50 mass ppm to 500 mass ppm of Si in terms of SiO 2 , 200 mass ppm to 2000 mass ppm of Ca in terms of CaO, 85 mass ppm to 500 mass ppm of Nb in terms of Nb 2 O 5 , and 5 mass ppm to 20 mass ppm of K, relative to the basic components.
A method of allocating a protection duration of a radio subsystem for a transmitting station of a wireless communication system, the method comprising: when it is determined that the protection duration is allocated for the radio subsystem, transmitting a power saving poll, PS-Poll, frame indicating the protection duration allocated for the radio subsystem and the receiver address that the transmitting station is currently associated with to at least one receiving station of the wireless communication system , wherein the protection duration includes a protection lead time and an operating time for performing radio subsystem operation, characterised by the transmitting station switching from a current radio system operation to the radio subsystem operation during the protection lead time. when it is determined that the protection duration is allocated for the radio subsystem, transmitting a power saving poll, PS-Poll, frame indicating the protection duration allocated for the radio subsystem and the receiver address that the transmitting station is currently associated with to at least one receiving station of the wireless communication system , wherein the protection duration includes a protection lead time and an operating time for performing radio subsystem operation, characterised by the transmitting station switching from a current radio system operation to the radio subsystem operation during the protection lead time.
Flap fitting for a piece of furniture, having a lever mechanism comprising a plurality of levers for guiding a flap of the piece of furniture, wherein the lever mechanism is at least partially retracted into a housing of the flap fitting in a closed position, and the lever mechanism of the flap fitting is accessible through a front opening of the housing in the assembled state, characterized in that an auxiliary element is available, which is releasably and pivotably attached to one of the levers of the lever mechanism with a connecting section , in which the auxiliary element resembles a tool for extending the lever mechanism out of the opening in a simple manner by pulling the auxiliary element .
A method for manufacturing a reinforcing fabric for a power transmission belt comprising: a compression rubber layer that is provided on an inner circumferential side; a cog portion that is provided in at least the compression rubber layer and has cog ridges and cog valleys alternately arranged along a belt longitudinal direction; and a reinforcing fabric layer that covers a surface of the cog portion, included in the reinforcing fabric layer , both end portions of which are joined to each other at only at least one joint portion in the belt longitudinal direction, and in which the joint portion is disposed at only a position corresponding to the cog ridge, wherein the method for manufacturing the reinforcing fabric comprises: a cutting step; a bonding liquid immersing step; a wide angle processing step; and a drying step, wherein, in the cutting step, a bag-shaped woven fabric configured by weaving a warp extending along an axial direction and a weft extending along a circumferential direction is spirally cut with respect to the axial direction, the bag-shaped woven fabric having a yarn density of 35 to 75 pieces/5 cm, in the bonding liquid immersing step, a belt-shaped fabric prepared by spirally cutting the bag-shaped woven fabric is immersed in a bonding liquid, the bonding liquid having a solid content concentration that ranges from 2 to 26 mass%, in the wide angle processing step, the belt-shaped fabric to which the bonding liquid adheres is stretched in a width direction, a stretching ratio of the belt-shaped fabric is set to be 130 to 140 % and speed of feeding the belt-shaped fabric is set to range 1.5 to 2.5 times the speed component in the transportation direction of the moving speed of pins of a wide angle processing apparatus , and in the drying step, a wide angle woven fabric obtained in the wide angle processing step is dried and the bonding liquid is hardened, a drying temperature is set to be from 100 to 160 °C. a cutting step; a bonding liquid immersing step; a wide angle processing step; and a drying step, wherein, in the cutting step, a bag-shaped woven fabric configured by weaving a warp extending along an axial direction and a weft extending along a circumferential direction is spirally cut with respect to the axial direction, the bag-shaped woven fabric having a yarn density of 35 to 75 pieces/5 cm, in the bonding liquid immersing step, a belt-shaped fabric prepared by spirally cutting the bag-shaped woven fabric is immersed in a bonding liquid, the bonding liquid having a solid content concentration that ranges from 2 to 26 mass%, in the wide angle processing step, the belt-shaped fabric to which the bonding liquid adheres is stretched in a width direction, a stretching ratio of the belt-shaped fabric is set to be 130 to 140 % and speed of feeding the belt-shaped fabric is set to range 1.5 to 2.5 times the speed component in the transportation direction of the moving speed of pins of a wide angle processing apparatus , and in the drying step, a wide angle woven fabric obtained in the wide angle processing step is dried and the bonding liquid is hardened, a drying temperature is set to be from 100 to 160 °C.