mhurhangee/patent-ind-claim-en huggingface dataset:
A coil position detecting method for a non-contact power supply system applicable to a non-contact power supply system to supply power from a power feeding coil on a ground side to a power receiving coil on a vehicle side, the coil position detecting method being intended to detect a position of the power receiving coil , comprising: - changing an excitation voltage and an excitation frequency for the power feeding coil depending on the position of the power receiving coil relative to the power feeding coil ; - detecting the position of the power receiving coil based on a received voltage with the power receiving coil when the power feeding coil is excited; - bringing the power feeding coil into first excitation at a first frequency and with a first excitation voltage, and bringing the power feeding coil into second excitation at a second frequency and with a second excitation voltage larger than the first excitation voltage when the received voltage with the power receiving coil reaches a first threshold voltage; and - detecting the position of the power receiving coil based on the received voltage with the power receiving coil when the power feeding coil is brought into the second excitation, wherein the second frequency is further from a resonance point than the first frequency. - changing an excitation voltage and an excitation frequency for the power feeding coil depending on the position of the power receiving coil relative to the power feeding coil ; - detecting the position of the power receiving coil based on a received voltage with the power receiving coil when the power feeding coil is excited; - bringing the power feeding coil into first excitation at a first frequency and with a first excitation voltage, and bringing the power feeding coil into second excitation at a second frequency and with a second excitation voltage larger than the first excitation voltage when the received voltage with the power receiving coil reaches a first threshold voltage; and - detecting the position of the power receiving coil based on the received voltage with the power receiving coil when the power feeding coil is brought into the second excitation,
A method for the production of an alkylene oxide polymer comprising making an alkylene oxide undergo a polymerization reaction in the presence of a zinc catalyst in an inert hydrocarbon solvent to produce an alkylene oxide polymer, wherein the method comprises: the step of reacting an organozinc compound with a monohydric alcohol in an amount of 12 equivalents or less relative to the organozinc compound and an aliphatic polyhydric alcohol in an amount of 0.2 to 1.1 equivalents relative to the organozinc compound to prepare a reaction liquid, the step of distilling the reaction liquid under normal pressure at a temperature of 100°C or lower to prepare a zinc catalyst in which the amount of the monohydric alcohol is adjusted to 0.01 equivalents or less relative to the organozinc compound, the step of further heat treating the zinc catalyst under a heat treatment temperature of from 100°C to 200°C after performing the distillation, and the step of making the alkylene oxide undergo a polymerization reaction using the zinc catalyst in which the amount of the monohydric alcohol has been adjusted to 0.01 equivalents or less relative to the organozinc compound. the step of reacting an organozinc compound with a monohydric alcohol in an amount of 12 equivalents or less relative to the organozinc compound and an aliphatic polyhydric alcohol in an amount of 0.2 to 1.1 equivalents relative to the organozinc compound to prepare a reaction liquid, the step of distilling the reaction liquid under normal pressure at a temperature of 100°C or lower to prepare a zinc catalyst in which the amount of the monohydric alcohol is adjusted to 0.01 equivalents or less relative to the organozinc compound, the step of further heat treating the zinc catalyst under a heat treatment temperature of from 100°C to 200°C after performing the distillation, and the step of making the alkylene oxide undergo a polymerization reaction using the zinc catalyst in which the amount of the monohydric alcohol has been adjusted to 0.01 equivalents or less relative to the organozinc compound.
A method for the in vitro detection of an increased risk of diabetic nephropathy in a subject suffering from diabetes and being normoalbuminuric, said method comprising the steps of: (a1) measuring the level of heparan sulfate proteoglycan core protein or fragments thereof in a biological sample obtained from the subject, wherein said heparan sulfate proteoglycan core protein fragments are endorepellin or LG3 and wherein said biological sample is a urine sample, and (b) determining from the level measured at step (a1) if said subject has an increased risk of developing diabetic nephropathy, wherein an increased level of endorepellin in said subject, or a decreased level of LG3 in said subject, is indicative of an increased risk of diabetic nephropathy. (a1) measuring the level of heparan sulfate proteoglycan core protein or fragments thereof in a biological sample obtained from the subject, wherein said heparan sulfate proteoglycan core protein fragments are endorepellin or LG3 and wherein said biological sample is a urine sample, and (b) determining from the level measured at step (a1) if said subject has an increased risk of developing diabetic nephropathy,
A wireless device, WD , configured to communicate with a network node , the WD comprising: a radio interface configured to receive an indication of a sub-slot to transmit a physical uplink control channel, PUCCH, transmission, wherein a physical downlink channel reception includes a K1 value for each sub-slot, the K1 value indicating a number of sub-slots until transmission of the corresponding PUCCH; and a processing circuitry in communication with the radio interface, the processing circuitry configured to schedule the PUCCH transmission in the indicated sub-slot by multiplexing of hybrid automatic repeat request acknowledgement, HARQ-ACK, bits of two PUCCHs which overlap in time depending on the type of the K1 value of the two PUCCH transmissions, the type of the K1 value being in units of slot or sub-slot, wherein the multiplexing is done only if the two PUCCH transmissions are scheduled with the same unit type for the K1 value. a radio interface configured to receive an indication of a sub-slot to transmit a physical uplink control channel, PUCCH, transmission, wherein a physical downlink channel reception includes a K1 value for each sub-slot, the K1 value indicating a number of sub-slots until transmission of the corresponding PUCCH; and a processing circuitry in communication with the radio interface, the processing circuitry configured to schedule the PUCCH transmission in the indicated sub-slot by multiplexing of hybrid automatic repeat request acknowledgement, HARQ-ACK, bits of two PUCCHs which overlap in time depending on the type of the K1 value of the two PUCCH transmissions, the type of the K1 value being in units of slot or sub-slot, wherein the multiplexing is done only if the two PUCCH transmissions are scheduled with the same unit type for the K1 value.
A vehicle communication system comprising: a management server configured to manage a plurality of access points for communication relay; and an in-vehicle communication device that is mounted on a vehicle and is capable of wirelessly communicating with the access points , wherein the in-vehicle communication device is configured to transmit travel route information indicating a travel route (RT) to a destination (P2) of the vehicle to the management server , the management server is configured to select access points from the plurality of access points connectable to the in-vehicle communication device , using the travel route information transmitted from the in-vehicle communication device , and to transmits access point information indicating the selected access points to the in-vehicle communication device , the in-vehicle communication device is further configured to connect to the selected access points by using the access point information transmitted from the management server , characterized in that the management server is further configured to predict a congestion level of the access points on the basis of a planned use of said access points by the in-vehicle communication devices of other vehicles, and to provide said access point information on the basis of the predicted congestion level. a management server configured to manage a plurality of access points for communication relay; and an in-vehicle communication device that is mounted on a vehicle and is capable of wirelessly communicating with the access points , wherein the in-vehicle communication device is configured to transmit travel route information indicating a travel route (RT) to a destination (P2) of the vehicle to the management server , the management server is configured to select access points from the plurality of access points connectable to the in-vehicle communication device , using the travel route information transmitted from the in-vehicle communication device , and to transmits access point information indicating the selected access points to the in-vehicle communication device , the in-vehicle communication device is further configured to connect to the selected access points by using the access point information transmitted from the management server , characterized in that the management server is further configured to predict a congestion level of the access points on the basis of a planned use of said access points by the in-vehicle communication devices of other vehicles, and to provide said access point information on the basis of the predicted congestion level.
An electronic device comprising: a sensor layer including a first channel including first electrodes (321-324) and a second channel including second electrodes (311-314); and a control circuit configured to detect touch information corresponding to an input of an external object to the sensor layer based on a change in capacitance between at least one of the first electrodes (321-324) and at least one of the second electrodes (311-314), wherein the touch information includes a position of the input with respect to the sensor layer , characterized in that the control circuit is further configured to, based on detecting the touch information, detect pressure information corresponding to the input based on a difference between a resistance of a target electrode and a resistance of a reference electrode among the first electrodes (321-324) and the second electrodes (311-314), in response to the input to at least one channel of the first channel or the second channel, wherein the target electrode corresponds to the position of the input included in the detected touch information, and wherein the reference electrode is set to be the electrode farthest away from the target electrode. a sensor layer including a first channel including first electrodes (321-324) and a second channel including second electrodes (311-314); and a control circuit configured to detect touch information corresponding to an input of an external object to the sensor layer based on a change in capacitance between at least one of the first electrodes (321-324) and at least one of the second electrodes (311-314), wherein the touch information includes a position of the input with respect to the sensor layer , characterized in that the control circuit is further configured to, based on detecting the touch information, detect pressure information corresponding to the input based on a difference between a resistance of a target electrode and a resistance of a reference electrode among the first electrodes (321-324) and the second electrodes (311-314), in response to the input to at least one channel of the first channel or the second channel, wherein the target electrode corresponds to the position of the input included in the detected touch information, and wherein the reference electrode is set to be the electrode farthest away from the target electrode.
A swallowing exercising device comprising: an extraoral handle extending in a longitudinal direction; a shield connected to said handle and provided on a shield support structure extending substantially transverse to said handle; a flexible tether extending from said shield; and a bolus simulator connected to said tether wherein the bolus simulator is configured with a sealed volume of fluid such that the fluid is enclosed in the bolus simulator. an extraoral handle extending in a longitudinal direction; a shield connected to said handle and provided on a shield support structure extending substantially transverse to said handle; a flexible tether extending from said shield; and a bolus simulator connected to said tether wherein the bolus simulator is configured with a sealed volume of fluid such that the fluid is enclosed in the bolus simulator.
Material unit for an additive manufacturing device (AM), the material unit having a resin vat wherein the resin vat comprises a base which is transparent at least in sections, wherein the resin vat is connected to a holder for a reservoir , and wherein the holder is configured such that resin (R) emerging from an outlet of a reservoir held by said holder can flow into the resin vat , wherein the holder comprises an actuating device for actuating a valve of a reservoir accommodated therein, characterized in that the actuating device actuates the valve for a pivoting movement over a limit angle (β), wherein the limit angle (β) corresponds to a substantially perpendicular arrangement of the holder and/or the reservoir with respect to the resin vat .
A battery pack for an onsite power generation system, comprising: positive and negative output terminals; battery modules configured to provide a voltage of at least 170V; a high-speed current detection circuit and high-speed switches serially coupled between the battery modules and the positive and negative output terminals of the battery pack; and a control circuit operatively coupled to the high-speed current detection circuit and the high-speed switches so that when the high-speed current detection circuit detects a fault condition, the control circuit opens one or more of the high-speed switches to thereby electrically isolate the battery modules from one or both of the positive and negative output terminals of the battery pack, wherein the battery pack is configured so that the at least 170V provided by the battery modules is provided to an AC stage of the onsite power generation system without an intervening DC/DC converter; wherein the high-speed current detection circuit includes first and second high-speed current sensors , and the high-speed switches include first and second high-speed switches, the first high-speed current sensor being coupled between the first high-speed switch, and a positive terminal of the battery modules or the positive terminal of the battery pack; and the second high-speed current sensor being coupled between the second high-speed switch, and a negative terminal of the battery modules or the negative terminal of the battery pack. positive and negative output terminals; battery modules configured to provide a voltage of at least 170V; a high-speed current detection circuit and high-speed switches serially coupled between the battery modules and the positive and negative output terminals of the battery pack; and a control circuit operatively coupled to the high-speed current detection circuit and the high-speed switches so that when the high-speed current detection circuit detects a fault condition, the control circuit opens one or more of the high-speed switches to thereby electrically isolate the battery modules from one or both of the positive and negative output terminals of the battery pack, wherein the battery pack is configured so that the at least 170V provided by the battery modules is provided to an AC stage of the onsite power generation system without an intervening DC/DC converter; wherein the high-speed current detection circuit includes first and second high-speed current sensors , and the high-speed switches include first and second high-speed switches, the first high-speed current sensor being coupled between the first high-speed switch, and a positive terminal of the battery modules or the positive terminal of the battery pack; and the second high-speed current sensor being coupled between the second high-speed switch, and a negative terminal of the battery modules or the negative terminal of the battery pack.
An LED light system, comprising: an LED light device and an adjustable end cap coupled to the LED light device, the adjustable end cap comprising: an end cap body ; a pivot base coupled to the end cap body ; and a first adjustable fitting secured to the pivot base , characterized in that the first adjustable fitting is pivotally secured to the pivot base , wherein the first adjustable fitting is configured to be pivotable about an axis perpendicular to a longitudinal axis of the LED light device, said adjustable end cap further comprising a second adjustable fitting pivotally secured to the pivot base , wherein the second adjustable fitting is configured to be pivotable about the axis perpendicular to the longitudinal axis of the LED light device, and wherein the second adjustable fitting is pivotable independent of the first adjustable fitting , wherein the first adjustable fitting is a coolant fitting and the second adjustable fitting is an electrical fitting. an LED light device and an adjustable end cap coupled to the LED light device, the adjustable end cap comprising: an end cap body ; a pivot base coupled to the end cap body ; and a first adjustable fitting secured to the pivot base , characterized in that the first adjustable fitting is pivotally secured to the pivot base , wherein the first adjustable fitting is configured to be pivotable about an axis perpendicular to a longitudinal axis of the LED light device, said adjustable end cap further comprising a second adjustable fitting pivotally secured to the pivot base , wherein the second adjustable fitting is configured to be pivotable about the axis perpendicular to the longitudinal axis of the LED light device, and wherein the second adjustable fitting is pivotable independent of the first adjustable fitting , wherein the first adjustable fitting is a coolant fitting and the second adjustable fitting is an electrical fitting. an end cap body ; a pivot base coupled to the end cap body ; and a first adjustable fitting secured to the pivot base , characterized in that the first adjustable fitting is pivotally secured to the pivot base , wherein the first adjustable fitting is configured to be pivotable about an axis perpendicular to a longitudinal axis of the LED light device, said adjustable end cap further comprising a second adjustable fitting pivotally secured to the pivot base , wherein the second adjustable fitting is configured to be pivotable about the axis perpendicular to the longitudinal axis of the LED light device, and wherein the second adjustable fitting is pivotable independent of the first adjustable fitting , wherein the first adjustable fitting is a coolant fitting and the second adjustable fitting is an electrical fitting.
An in vitro method of determining if a subject has a risk of developing parkinsonism, comprising receiving at least one sample derived from a subject, wherein said sample comprises a stool sample; detecting a bacterial CsgA in the sample; and determining that the subject has a risk of developing parkinsonism when the detected bacterial CsgA in the sample is at a level higher than the level of bacterial CsgA in a reference sample of a healthy or non-parkinsonism individual. receiving at least one sample derived from a subject, wherein said sample comprises a stool sample; detecting a bacterial CsgA in the sample; and determining that the subject has a risk of developing parkinsonism when the detected bacterial CsgA in the sample is at a level higher than the level of bacterial CsgA in a reference sample of a healthy or non-parkinsonism individual.
A composition comprising methylglyoxal bis(guanylhydrazone) (MGBG), or a salt thereof, for use in treating or preventing a condition chosen from dermatomyositis, obesity, primary biliary cirrhosis, primary sclerosing cholangitis, and psoriatic arthritis.
Device for adjusting the concentration of a gas in a liquid, the device comprising a cartridge in which occurs the change in concentration of the gas in the liquid, the cartridge being formed of hydrophobic porous walls, which only permit the passing through of gases into the liquid or out of the latter, a vacuum pump , a pipe for supplying liquid into the cartridge , a pipe for supplying gas into the cartridge , and a pipe for discharging liquid from the cartridge , the gas supply pipe comprising a pressure regulator configured to regulate the quantity of gas in the liquid by regulating the pressure of the gas between the pressure regulator and the cartridge, and the setpoint for the pressure of which is controlled by a setpoint for the amount of gas in the liquid and by an amount of gas in the liquid measured by a gas concentration sensor located in the liquid discharge pipe , said device for adjusting comprising also a vacuum pipe extracting from the cartridge at least one gas extracted from the liquid, the device being characterized in that it comprises an auxiliary vacuum pipe and in that said vacuum pipe comprises, between the cartridge and a vacuum pump , a vacuum management system adapted to guide, depending on whether gas is added to the liquid or not by the gas supply pipe , the path taken by the vacuum, which, in the absence of gas being added to the liquid, is a portion of the vacuum pipe , which does not comprise any vacuum regulating organ, and, when gas is added to the liquid, the path is the auxiliary vacuum pipe , which is parallel to the portion of the vacuum pipe and which comprises a vacuum regulating valve .
A dynamic system estimation device that estimates a state (x) and performance parameters (q) of a dynamic system, comprising: a predetermined number of sensors which detect predetermined observed values (y) from the dynamic system; and a Kalman filter that estimates the state (x) of the dynamic system by using a dynamic model of the dynamic system based on the observed values (y) detected by the sensors, wherein the dynamic system includes elements in which temporal changes of performance are described by the performance parameters (q), characterized in that the Kalman filter is also configured for estimation of performance parameters, of which number is larger than the predetermined number, by introducing first-order lag elements in place of the elements. a predetermined number of sensors which detect predetermined observed values (y) from the dynamic system; and a Kalman filter that estimates the state (x) of the dynamic system by using a dynamic model of the dynamic system based on the observed values (y) detected by the sensors, wherein the dynamic system includes elements in which temporal changes of performance are described by the performance parameters (q), characterized in that the Kalman filter is also configured for estimation of performance parameters, of which number is larger than the predetermined number, by introducing first-order lag elements in place of the elements.