mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus for quality control of a superconducting tape comprising (a) at least two rolls contacting the superconducting tape and being suitable for injecting an electric current into the superconducting tape and (b) at least two measuring contacts contacting the superconducting tape and being suitable for measuring an electric voltage along the superconducting tape and (c) a cooling section suitable for cooling the superconducting tape below its critical temperature, wherein the at least two rolls and the at least two measuring contacts are located inside the cooling section and wherein the cooling section is suitable for keeping the at least two rolls at a first temperature and the at least two measuring contacts at a second temperature, wherein the first temperature is lower than the second temperature. (a) at least two rolls contacting the superconducting tape and being suitable for injecting an electric current into the superconducting tape and (b) at least two measuring contacts contacting the superconducting tape and being suitable for measuring an electric voltage along the superconducting tape and (c) a cooling section suitable for cooling the superconducting tape below its critical temperature, wherein the at least two rolls and the at least two measuring contacts are located inside the cooling section and wherein the cooling section is suitable for keeping the at least two rolls at a first temperature and the at least two measuring contacts at a second temperature, wherein the first temperature is lower than the second temperature.
A secondary battery deterioration estimation device for estimating a deterioration of a secondary battery , comprising: a memory ; and a processor , said processor configured to receive a first signal representing a discharging voltage from a voltage sensor ; receive a second signal representing a discharging current from a current sensor ; calculate values of elements forming an equivalent circuit of the secondary battery based on the first and second signals; calculate a state of health, SOH, of the secondary battery based on the values of the elements forming the equivalent circuit; and to output data representing the deterioration state of the secondary battery , characterized in that the processor is further configured to generate history information showing a history of a use state of the secondary battery and to calculate the state of health, SOH, of the secondary battery based on the history information, wherein the processor is further configured to determine a deterioration state of the secondary battery with reference to at least one of the state of health, SOH, calculated by the values of the elements or the state of health, SOH, calculated by the history information by the processor in accordance with a state of the secondary battery , wherein the secondary battery is mounted on a vehicle, and the processor is further configured to detect a running time and a stop time of the vehicle, and to generate the history information with reference to the detected running time and stop time, and to calculate the state of health, SOH, based on the generated history information. a memory ; and a processor , said processor configured to receive a first signal representing a discharging voltage from a voltage sensor ; receive a second signal representing a discharging current from a current sensor ; calculate values of elements forming an equivalent circuit of the secondary battery based on the first and second signals; calculate a state of health, SOH, of the secondary battery based on the values of the elements forming the equivalent circuit; and to output data representing the deterioration state of the secondary battery , characterized in that the processor is further configured to generate history information showing a history of a use state of the secondary battery and to calculate the state of health, SOH, of the secondary battery based on the history information, wherein the processor is further configured to determine a deterioration state of the secondary battery with reference to at least one of the state of health, SOH, calculated by the values of the elements or the state of health, SOH, calculated by the history information by the processor in accordance with a state of the secondary battery , wherein the secondary battery is mounted on a vehicle, and the processor is further configured to detect a running time and a stop time of the vehicle, and to generate the history information with reference to the detected running time and stop time, and to calculate the state of health, SOH, based on the generated history information.
A single cell structure for a fuel cell, comprising: a framed membrane electrode assembly comprising a membrane electrode assembly and a frame supporting an outer periphery of the membrane electrode assembly ; a pair of separators disposed on both sides of the framed membrane electrode assembly ; a gas channel portion (F) which is formed between one of the pair of separators and the membrane electrode assembly , and to which gas is supplied; a manifold portion (H1-H6) having a hole that penetrates the frame and the pair of separators in a stacking direction; a protrusion that protrudes from at least one of the pair of separators toward the framed membrane electrode assembly to support the frame near the manifold portion (H1-H6); an extended portion of the frame that extends toward the manifold portion (H1-H6) beyond the protrusion ; and a gas flowing portion (G) that is formed at the extended portion to supply the gas from the manifold portion (H1-H6) to the gas channel portion (F), wherein the gas flowing portion (G) comprises a bump that is disposed at the extended portion . a framed membrane electrode assembly comprising a membrane electrode assembly and a frame supporting an outer periphery of the membrane electrode assembly ; a pair of separators disposed on both sides of the framed membrane electrode assembly ; a gas channel portion (F) which is formed between one of the pair of separators and the membrane electrode assembly , and to which gas is supplied; a manifold portion (H1-H6) having a hole that penetrates the frame and the pair of separators in a stacking direction; a protrusion that protrudes from at least one of the pair of separators toward the framed membrane electrode assembly to support the frame near the manifold portion (H1-H6); an extended portion of the frame that extends toward the manifold portion (H1-H6) beyond the protrusion ; and a gas flowing portion (G) that is formed at the extended portion to supply the gas from the manifold portion (H1-H6) to the gas channel portion (F), wherein the gas flowing portion (G) comprises a bump that is disposed at the extended portion .
A press-molded product comprising: carbon fibers having a weight average fiber length of 1 mm or more; a polyamide-based resin (X); a polyarylene ether-based resin (Y); and a compatibilizer, wherein the carbon fibers include carbon fiber bundles, and the polyamide-based resin (X) and the polyarylene ether-based resin (Y) form a sea-island structure inside and outside the carbon fiber bundles in which one of the polyamide-based resin (X) and the polyarylene ether-based resin (Y) forms a sea phase and the other forms an island phase having a weighted average particle diameter Dr of 0.05 μm or more and less than 50 μm, wherein the weighted average particle diameter Dr is obtained by the following expression: Weighted average particle diameter of island phase Dr = ∑ Dr i 2 / ∑ Dr i wherein a particle diameter of each island phase is represented by Dr i , and expressed as (4S/π) 1/2 , wherein S is the area of each island phase. carbon fibers having a weight average fiber length of 1 mm or more; a polyamide-based resin (X); a polyarylene ether-based resin (Y); and a compatibilizer, wherein the carbon fibers include carbon fiber bundles, and the polyamide-based resin (X) and the polyarylene ether-based resin (Y) form a sea-island structure inside and outside the carbon fiber bundles in which one of the polyamide-based resin (X) and the polyarylene ether-based resin (Y) forms a sea phase and the other forms an island phase having a weighted average particle diameter Dr of 0.05 μm or more and less than 50 μm, wherein the weighted average particle diameter Dr is obtained by the following expression: Weighted average particle diameter of island phase Dr = ∑ Dr i 2 / ∑ Dr i wherein a particle diameter of each island phase is represented by Dr i , and expressed as (4S/π) 1/2 , wherein S is the area of each island phase.
A construction machine , comprising: a vehicle body frame ; an engine that is mounted on the vehicle body frame ; a radiator that is mounted at the rear of the vehicle body frame in a radiator chamber ; a bulkhead that separates the engine and the radiator ; a cover that covers the engine and the radiator ; a radiator fan that is arranged at the rear of the vehicle body frame and discharges exhaust gas toward the rear of the vehicle body frame from the inner space of the cover ; an injection device that injects a reducing agent into exhaust gas of the engine ; characterized in further comprising a tank housing section that is arranged adjacent to a side surface of the radiator chamber , including an introduction section for introducing outside air and housing a tank for storing the reducing agent injected by the injection device ; and a connection section comprising a passage in the vehicle body frame and a tank housing passage provided in the tank housing section , that connects to the inner space of the tank housing section and the inner space below the cover , and allows the outside air to be captured and a pipe to pass through the connection section , the outside air having been introduced from the introduction section by the suction pressure of the radiator fan , the pipe supplying the reducing agent to the injection device . a vehicle body frame ; an engine that is mounted on the vehicle body frame ; a radiator that is mounted at the rear of the vehicle body frame in a radiator chamber ; a bulkhead that separates the engine and the radiator ; a cover that covers the engine and the radiator ; a radiator fan that is arranged at the rear of the vehicle body frame and discharges exhaust gas toward the rear of the vehicle body frame from the inner space of the cover ; an injection device that injects a reducing agent into exhaust gas of the engine ; characterized in further comprising a tank housing section that is arranged adjacent to a side surface of the radiator chamber , including an introduction section for introducing outside air and housing a tank for storing the reducing agent injected by the injection device ; and a connection section comprising a passage in the vehicle body frame and a tank housing passage provided in the tank housing section , that connects to the inner space of the tank housing section and the inner space below the cover , and allows the outside air to be captured and a pipe to pass through the connection section , the outside air having been introduced from the introduction section by the suction pressure of the radiator fan , the pipe supplying the reducing agent to the injection device .
Extractor hood, having an extractor hood housing with a fan, a heat shield , inclined upward from the horizontal, which has a suction frame and a baffle plate arranged in the flow direction upstream of the suction frame , and a control unit , which is arranged on the heat shield , characterised in that the control unit is arranged on the baffle plate , the extractor hood has a protection device for intermittently covering the control unit , the protection device is fastened movably on the extractor hood and the extractor hood has a movement unit for moving the protection device and an actuation unit for actuating the movement unit .
An implantable neurostimulator comprising: a pulse generator configured to deliver electrical therapeutic stimulation in a manner that results in creation and propagation in both afferent and efferent directions of action potentials within neuronal fibers comprising a patient's cervical vagus nerve and to store operating modes of the pulse generator in a recordable i Z memory, wherein a maintainance dose tuned to restore cardiac autonomic balance through continuously-cycling, intermittent and periodic electrical pulses to be used if no tachyarrhythmia is present is parametrically defined in the recordable memory, and an enhanced dose tuned to prevent initiation of or disrupt tachyarrhythmia upon the patient's awakening from a sleep state through at least one of continuously-cycling, intermittent and periodic electrical pulses is parametrically defined in the recordable memory and wherein the maintenance dose of the electrical therapeutic stimulation is at a lower intensity than the enhanced dose; and a sensor configured to monitor the patient's physiological state, and at least a pair of helical electrodes electrically coupled to the pulse generator via a nerve stimulation therapy lead ; and wherein the pulse generator is configured to deliver for a period of time the enhanced dose to the vagus nerve through the at least one pair of helical electrodes upon sensing the patient's awakening from a sleep state. a pulse generator configured to deliver electrical therapeutic stimulation in a manner that results in creation and propagation in both afferent and efferent directions of action potentials within neuronal fibers comprising a patient's cervical vagus nerve and to store operating modes of the pulse generator in a recordable i Z memory, wherein a maintainance dose tuned to restore cardiac autonomic balance through continuously-cycling, intermittent and periodic electrical pulses to be used if no tachyarrhythmia is present is parametrically defined in the recordable memory, and an enhanced dose tuned to prevent initiation of or disrupt tachyarrhythmia upon the patient's awakening from a sleep state through at least one of continuously-cycling, intermittent and periodic electrical pulses is parametrically defined in the recordable memory and wherein the maintenance dose of the electrical therapeutic stimulation is at a lower intensity than the enhanced dose; and a sensor configured to monitor the patient's physiological state, and at least a pair of helical electrodes electrically coupled to the pulse generator via a nerve stimulation therapy lead ; and wherein the pulse generator is configured to deliver for a period of time the enhanced dose to the vagus nerve through the at least one pair of helical electrodes upon sensing the patient's awakening from a sleep state.
A method of determining an error condition in a magnetic field sensor, comprising: receiving a first bridge signal, the first bridge signal generated by a first full bridge circuit; receiving a second bridge signal, the second bridge signal generated by a second full bridge circuit; determining a bridge separation from the first bridge signal and the second bridge signal, wherein the determining the bridge separation comprises dividing the first bridge signal by the second bridge signal or dividing the second bridge signal by the first bridge signal; comparing a function of the bridge separation to a threshold value; and generating an error signal indicative of the error condition or indicative of no error condition in response to the comparing. receiving a first bridge signal, the first bridge signal generated by a first full bridge circuit; receiving a second bridge signal, the second bridge signal generated by a second full bridge circuit; determining a bridge separation from the first bridge signal and the second bridge signal, wherein the determining the bridge separation comprises dividing the first bridge signal by the second bridge signal or dividing the second bridge signal by the first bridge signal; comparing a function of the bridge separation to a threshold value; and generating an error signal indicative of the error condition or indicative of no error condition in response to the comparing.
An injection molding machine, comprising: a cylinder which heats a molding material supplied from a supplyport to the inner portion of the cylinder ; a screw which is movable forward and backward and is rotatable in the cylinder ; a drive source which moves the screw forward and backward; a controller which controls the drive source ; a check valve which is provided on a front end portion of the screw and prevents backflow of the molding material from the front side of the screw ; and a liquid pressure detector which detects a liquid pressure of a melted molding material on the rear side of the check valve and the front side of the supply port , characterized in that the controller is configured to control the drive source on the basis of the liquid pressure which is detected by the liquid pressure detector such that the detected value of the liquid pressure detector is the same as a set value of the liquid pressure detector . a cylinder which heats a molding material supplied from a supplyport to the inner portion of the cylinder ; a screw which is movable forward and backward and is rotatable in the cylinder ; a drive source which moves the screw forward and backward; a controller which controls the drive source ; a check valve which is provided on a front end portion of the screw and prevents backflow of the molding material from the front side of the screw ; and a liquid pressure detector which detects a liquid pressure of a melted molding material on the rear side of the check valve and the front side of the supply port , characterized in that the controller is configured to control the drive source on the basis of the liquid pressure which is detected by the liquid pressure detector such that the detected value of the liquid pressure detector is the same as a set value of the liquid pressure detector .
A sensor array comprising a plurality of apparatus wherein each apparatus within the array comprises: a plurality of sensors ; readout circuitry configured to read information from each of the plurality of sensors ; wherein each apparatus has identifier information and calibration information stored with the identifier information such that the identifier information enables the calibration information to be retrieved and each apparatus is configured to be coupled to at least one other apparatus in the sensor array ; wherein the calibration information comprises information obtained from calibration measurements; and wherein the sensor array is provided on a substrate . a plurality of sensors ; readout circuitry configured to read information from each of the plurality of sensors ; wherein each apparatus has identifier information and calibration information stored with the identifier information such that the identifier information enables the calibration information to be retrieved and each apparatus is configured to be coupled to at least one other apparatus in the sensor array ; wherein the calibration information comprises information obtained from calibration measurements; and wherein the sensor array is provided on a substrate .
A method of producing a glycoprotein comprising a truncated von Willebrand Factor (VWF) and comprising N-glycans with increased sialylation, wherein the truncated VWF is capable of binding to a Factor VIII (FVIII), - wherein the truncated VWF consists of (a) amino acids 764 to 1242 of SEQ ID NO:9 or (b) an amino acid sequence having a sequence identity of at least 90% to amino acids 764 to 1242 of SEQ ID NO:9, which method comprises (i) providing cells comprising a nucleic acid encoding a polypeptide comprising the truncated VWF, and (ii) culturing said cells at a temperature of less than 36.0°C. - wherein the truncated VWF consists of (a) amino acids 764 to 1242 of SEQ ID NO:9 or (b) an amino acid sequence having a sequence identity of at least 90% to amino acids 764 to 1242 of SEQ ID NO:9,
A C 1-6 alkyl ester of 10-hydroxy-cis-12-octadecenoic acid or an optical isomer thereof (excluding methyl 10-hydroxy-cis-12-octadecenoate and ethyl 10-hydroxy-cis-12-octadecenoate).
A belt retractor for a vehicle safety belt system, the belt retractor comprising a belt tensioner including a pyrotechnic drive unit for tensioning a safety belt during a belt tensioning phase, and a load limiter for limiting the load applied by the safety belt on a vehicle occupant during a load limiting phase after the belt tensioning phase, the belt tensioner including a frame , a belt reel , a toothed pinion , a drive unit and an elongated load transmission element , the belt reel being rotatably supported in the frame , the pinion being coupled to the belt reel and positioned such that the belt reel and the pinion are coaxial with adjoining axial sides, the load transmission element engaging the teeth of the pinion during the belt tensioning phase, the belt tensioner further including a decoupling mechanism for decoupling the belt reel from the pinion at the end of the belt tensioning phase.
A patient interface structure for delivery of respiratory therapy to a patient, comprising: a front plate ; a mouth cushion defining a breathing chamber and provided to the front plate and configured to seal around the patient's mouth, the mouth cushion comprising a nasal support portion ; a nasal cushion configured to seal the patient's nasal airways and supported by the mouth cushion ; and a channel around the nasal support portion that permits movement of the nasal cushion , wherein the channel forms a flexible region with a localized thinning of material, wherein the nasal cushion does not contact a bridge of the patient's nose in use and extends at least partially into the breathing chamber so that the nasal seal resides within the mouth cushion and the patient's nose rests inside the mouth cushion during use. a front plate ; a mouth cushion defining a breathing chamber and provided to the front plate and configured to seal around the patient's mouth, the mouth cushion comprising a nasal support portion ; a nasal cushion configured to seal the patient's nasal airways and supported by the mouth cushion ; and a channel around the nasal support portion that permits movement of the nasal cushion , wherein the channel forms a flexible region with a localized thinning of material, wherein the nasal cushion does not contact a bridge of the patient's nose in use and extends at least partially into the breathing chamber so that the nasal seal resides within the mouth cushion and the patient's nose rests inside the mouth cushion during use.
A method of fabricating a solar cell, the method comprising: placing a conductive foil over a semiconductor region disposed in or above a substrate ; heating the conductive foil; applying mechanical force to the heated conductive foil to form a conductive bond for the solar cell; and patterning the conductive foil, wherein said patterning the conductive foil includes: laser patterning an etch resistant coating of the conductive foil; and applying a chemical etch. placing a conductive foil over a semiconductor region disposed in or above a substrate ; heating the conductive foil; applying mechanical force to the heated conductive foil to form a conductive bond for the solar cell; and patterning the conductive foil, wherein said patterning the conductive foil includes: laser patterning an etch resistant coating of the conductive foil; and applying a chemical etch. laser patterning an etch resistant coating of the conductive foil; and applying a chemical etch.