mhurhangee/patent-ind-claim-en huggingface dataset:
An arc fault detection device, comprising: a single broadband current rise time sensor circuit having a sufficient number of secondary windings to amplify a broadband high frequency signal; a bandpass filter circuit connected to the single broadband current rise time sensor circuit and configured to pass the broadband high frequency signal; an active integrator circuit connected to the single broadband current rise time sensor circuit and configured to amplify a low frequency signal, the active integrator circuit having a charge storage element therein; and a controller 220, 320) connected to the charge storage element of the active integrator circuit, the controller programmed to provide a charging current to the charge storage element for a charging interval upon startup of the controller; wherein the controller is further connected to the bandpass filter circuit and the active integrator circuit and further programmed to detect an arc fault based on an output signal from either the bandpass filter circuit or the active integrator circuit. a single broadband current rise time sensor circuit having a sufficient number of secondary windings to amplify a broadband high frequency signal; a bandpass filter circuit connected to the single broadband current rise time sensor circuit and configured to pass the broadband high frequency signal; an active integrator circuit connected to the single broadband current rise time sensor circuit and configured to amplify a low frequency signal, the active integrator circuit having a charge storage element therein; and a controller 220, 320) connected to the charge storage element of the active integrator circuit, the controller programmed to provide a charging current to the charge storage element for a charging interval upon startup of the controller; wherein the controller is further connected to the bandpass filter circuit and the active integrator circuit and further programmed to detect an arc fault based on an output signal from either the bandpass filter circuit or the active integrator circuit.
A medical image processing device comprising: a first image acquirer configured to acquire a fluoroscopic image of a patient as a first image; a tracker configured to track an object photographed in the first image on the basis of a first feature common to object images that are a plurality of images of the object obtained by observing the object placed within a body of the patient in a plurality of directions; a training image acquirer configured to acquire a plurality of training images associated with the plurality of object images; and a learner configured to learn the first feature common to the object images included in the plurality of training images, wherein the training image acquirer is configured to acquire the training image based on a simulation image obtained by simulating the object image in a case where the object is photographed in the first image on the basis of geometry information of an imaging device that is configured to capture the first image and a three-dimensional shape of the object. a first image acquirer configured to acquire a fluoroscopic image of a patient as a first image; a tracker configured to track an object photographed in the first image on the basis of a first feature common to object images that are a plurality of images of the object obtained by observing the object placed within a body of the patient in a plurality of directions; a training image acquirer configured to acquire a plurality of training images associated with the plurality of object images; and a learner configured to learn the first feature common to the object images included in the plurality of training images, wherein the training image acquirer is configured to acquire the training image based on a simulation image obtained by simulating the object image in a case where the object is photographed in the first image on the basis of geometry information of an imaging device that is configured to capture the first image and a three-dimensional shape of the object.
A thermostatic radiator valve (TRV) controller comprising: a TRV wireless module ; a temperature sensor configured to measure a radiator temperature at a predetermined distance from the radiator ; and a TRV controller computing device configured to: perform auto-detection, wherein auto-detection comprises determining a minimum opening position of a pin of a valve of the radiator, and determining a maximum opening position of the pin; receive position information for an operating position of the pin through the TRV wireless module via a wireless channel; and adjust the operating position of the pin between the minimum opening position and the maximum opening position from the position information; characterized in that the step of determining the maximum position of the pin comprises: sensing when the first radiator is transferring a maximum amount of heat; in response to the sensing, registering a first pin position when the maximum amount of heat is transferred; and equating the first maximum opening position to the first pin position. a TRV wireless module ; a temperature sensor configured to measure a radiator temperature at a predetermined distance from the radiator ; and a TRV controller computing device configured to: perform auto-detection, wherein auto-detection comprises determining a minimum opening position of a pin of a valve of the radiator, and determining a maximum opening position of the pin; receive position information for an operating position of the pin through the TRV wireless module via a wireless channel; and adjust the operating position of the pin between the minimum opening position perform auto-detection, wherein auto-detection comprises determining a minimum opening position of a pin of a valve of the radiator, and determining a maximum opening position of the pin; receive position information for an operating position of the pin through the TRV wireless module via a wireless channel; and adjust the operating position of the pin between the minimum opening position and the maximum opening position from the position information; characterized in that the step of determining the maximum position of the pin comprises: sensing when the first radiator is transferring a maximum amount of heat; in response to the sensing, registering a first pin position when the maximum amount of heat is transferred; and equating the first maximum opening position to the first pin position. sensing when the first radiator is transferring a maximum amount of heat; in response to the sensing, registering a first pin position when the maximum amount of heat is transferred; and equating the first maximum opening position to the first pin position.
A process for making a combined fertilizer comprising: i) a first nitrogen-based fertilizer; ii) one or more further components chosen among: one or more second nitrogen-based fertilizer(s) different from said first nitrogen-based fertilizer, and one or more nutrient(s), the process being characterized in that said combined fertilizer is made by a process of granulation in a fluid bed comprising the steps of: providing a first liquid feed to a first region of the granulation environment, providing a second liquid feed to a second region of said environment, wherein solid particles acting as starting points for the granulation process are fed to said first region of the granulation environment, and said second region is downstream said first region; and wherein in the first region of the granulation environment, the first liquid feed solidifies on the solids seeds forming a binder layer around the solid seeds, and the second liquid feed has the form of a micronized slurry of said one or more further components in the first nitrogen-based fertilizer, which is sprayed over the granules previously formed in the first region. i) a first nitrogen-based fertilizer; ii) one or more further components chosen among: one or more second nitrogen-based fertilizer(s) different from said first nitrogen-based fertilizer, and one or more nutrient(s), providing a first liquid feed to a first region of the granulation environment, providing a second liquid feed to a second region of said environment, wherein solid particles acting as starting points for the granulation process are fed to said first region of the granulation environment, and said second region is downstream said first region; and wherein in the first region of the granulation environment, the first liquid feed solidifies on the solids seeds forming a binder layer around the solid seeds, and the second liquid feed has the form of a micronized slurry of said one or more further components in the first nitrogen-based fertilizer, which is sprayed over the granules previously formed in the first region.
A method for transmitting data by using a fixed ground balise, comprising: receiving an instruction of proceeding to an updating mode and updating data for vehicle running control data from a control unit by the fixed ground balise; modifying the vehicle running control data in a data storage unit according to the updating data, and storing the updated vehicle running control data to the data storage unit; receiving an instruction of proceeding to a working mode by the control unit; carrying out Frequency Shift Keying, FSK, modulation of the vehicle running control data by a modulation unit to obtain the modulated vehicle running control data; receiving a carrier frequency signal from onboard equipment by utilizing a first antenna unit; converting energy of the carrier frequency signal into a working power of the ground balise; and sending the modulated vehicle running control data to an onboard balise of the onboard equipment by the ground balise through utilizing the first antenna unit; wherein the vehicle running control data is control data for running a vehicle; characterized by arranging a capacitor at the first antenna unit, arranging a magnetic bead connected with the capacitor to extract a voltage at both ends of the capacitor, carrying out bridge rectification by a diode, and limiting an amplitude of the received carrier frequency signal within a preset range. receiving an instruction of proceeding to an updating mode and updating data for vehicle running control data from a control unit by the fixed ground balise; modifying the vehicle running control data in a data storage unit according to the updating data, and storing the updated vehicle running control data to the data storage unit; receiving an instruction of proceeding to a working mode by the control unit; carrying out Frequency Shift Keying, FSK, modulation of the vehicle running control data by a modulation unit to obtain the modulated vehicle running control data; receiving a carrier frequency signal from onboard equipment by utilizing a first antenna unit; converting energy of the carrier frequency signal into a working power of the ground balise; and sending the modulated vehicle running control data to an onboard balise of the onboard equipment by the ground balise through utilizing the first antenna unit; wherein the vehicle running control data is control data for running a vehicle; characterized by arranging a capacitor at the first antenna unit, arranging a magnetic bead connected with the capacitor to extract a voltage at both ends of the capacitor, carrying out bridge rectification by a diode, and limiting an amplitude of the received carrier frequency signal within a preset range.
A method for a base station comprising: every K slots, where K is a positive integer, on a group-common physical downlink control channel PDCCH transmitting, from the base station to a user equipment, UE, a group-common pre-emption indication in respect of the K slots preceding the group-common pre-emption indication ; the group-common pre-emption indication indicating, in the preceding K slots, which resources are pre-empted, wherein the group-common pre-emption indication of the group-common PDCCH is indicated to be a pre-emption indicator using a radio network temporary identifier, RNTI. every K slots, where K is a positive integer, on a group-common physical downlink control channel PDCCH transmitting, from the base station to a user equipment, UE, a group-common pre-emption indication in respect of the K slots preceding the group-common pre-emption indication ; the group-common pre-emption indication indicating, in the preceding K slots, which resources are pre-empted, wherein the group-common pre-emption indication of the group-common PDCCH is indicated to be a pre-emption indicator using a radio network temporary identifier, RNTI.
A method for upgrading firmware, for use in a device comprising a first chip and a second chip, wherein the method comprises: when it is determined that firmware of the first chip needs to be upgraded, identifying (S101) a first partition of a flash memory in a second chip , said first partition being configured to be used for downloading firmware of the second chip, wherein said first chip is a WIFI, Wireless Fidelity, chip or a Bluetooth chip and wherein the second chip is a Micro Control Unit chip; downloading (S102) new firmware of the first chip to the first partition of the second chip; and copying (S103) the new firmware of the first chip from the first partition of the second chip to an effective position in the first chip and to overwrite the firmware to be upgraded of the first chip; wherein said identifying a first partition of a flash memory in a second chip comprises: acquiring (S201) partition information of the second chip, said partition information indicating the position of where said first partition is located in the flash memory of the second chip; and identifying (S202) the first partition of the flash memory in the second chip, configured to be used as a backup partition for downloading firmware, according to the partition information. when it is determined that firmware of the first chip needs to be upgraded, identifying (S101) a first partition of a flash memory in a second chip , said first partition being configured to be used for downloading firmware of the second chip, wherein said first chip is a WIFI, Wireless Fidelity, chip or a Bluetooth chip and wherein the second chip is a Micro Control Unit chip; downloading (S102) new firmware of the first chip to the first partition of the second chip; and copying (S103) the new firmware of the first chip from the first partition of the second chip to an effective position in the first chip and to overwrite the firmware to be upgraded of the first chip; wherein said identifying a first partition of a flash memory in a second chip comprises: acquiring (S201) partition information of the second chip, said partition information indicating the position of where said first partition is located in the flash memory of the second chip; and identifying (S202) the first partition of the flash memory in the second chip, configured to be used as a backup partition for downloading firmware, according to the partition information. acquiring (S201) partition information of the second chip, said partition information indicating the position of where said first partition is located in the flash memory of the second chip; and identifying (S202) the first partition of the flash memory in the second chip, configured to be used as a backup partition for downloading firmware, according to the partition information.
A control device for a refrigerator having, as a power supply, a power generator that is driven by an engine or a motor which is a power source of a moving body, and a battery that stores power generated by the power generator , wherein, in a case where the power generated by the power generator is smaller than a load requested by the refrigerator , supply of the power stored in the battery to the refrigerator is started in a case where a state of charge (SOC) of the battery is equal to a predetermined first threshold value or more, and the supply of the power from the battery for covering shortage of the power generated by the power generator with respect to the load is permitted until the SOC reaches a predetermined second threshold value, wherein, in a case where the supply of the power from the battery to the refrigerator is performed, the load requested by the refrigerator is reduced when the state of charge (SOC) of the battery becomes smaller than a predetermined second threshold value, and wherein, in a case of reducing the load, the load is reduced such that an amount of power consumed by the load becomes smaller than an amount of power generated by the power generator , and a surplus of the power generated by the power generator is supplied to charge the battery until the state of charge (SOC) of the battery recovers to the first threshold, then the load requested by the refrigerator is returned to an original value before reduction when the SOC recovers to the first threshold. wherein, in a case where the power generated by the power generator is smaller than a load requested by the refrigerator , supply of the power stored in the battery to the refrigerator is started in a case where a state of charge (SOC) of the battery is equal to a predetermined first threshold value or more, and the supply of the power from the battery for covering shortage of the power generated by the power generator with respect to the load is permitted until the SOC reaches a predetermined second threshold value, wherein, in a case where the supply of the power from the battery to the refrigerator is performed, the load requested by the refrigerator is reduced when the state of charge (SOC) of the battery becomes smaller than a predetermined second threshold value, and wherein, in a case of reducing the load, the load is reduced such that an amount of power consumed by the load becomes smaller than an amount of power generated by the power generator , and a surplus of the power generated by the power generator is supplied to charge the battery until the state of charge (SOC) of the battery recovers to the first threshold, then the load requested by the refrigerator is returned to an original value before reduction when the SOC recovers to the first threshold.
An arrangement for subsea cooling of a semiconductor module , the arrangement comprising: a tank , the tank being filled with a dielectric fluid , the dielectric fluid being a liquid; a semiconductor module , the semiconductor module being provided in the tank; characterized by a thermally conductive block , the thermally conductive block being provided in the tank and in thermal contact with the semiconductor module so as to enable heat to be transferred from the semiconductor module to the thermally conductive block; and a heat pipe , the heat pipe being at least partly embedded in the thermally conductive block so as to transfer heat away from the thermally conductive block. a tank , the tank being filled with a dielectric fluid , the dielectric fluid being a liquid; a semiconductor module , the semiconductor module being provided in the tank; characterized by a thermally conductive block , the thermally conductive block being provided in the tank and in thermal contact with the semiconductor module so as to enable heat to be transferred from the semiconductor module to the thermally conductive block; and a heat pipe , the heat pipe being at least partly embedded in the thermally conductive block so as to transfer heat away from the thermally conductive block.
Ceramic having a phase composition comprising, based on the total weight of the ceramic: (a) 50 wt.-% to 60 wt.-% cordierite; (b) 20 wt.-% to 40 wt.-% mullite; (c) andalusite and/or corundum in a combined amount of 1 wt.-% or more; wherein the combined amount of the mullite and andalusite and corundum in the ceramic is 23 wt.-% or more. (a) 50 wt.-% to 60 wt.-% cordierite; (b) 20 wt.-% to 40 wt.-% mullite; (c) andalusite and/or corundum in a combined amount of 1 wt.-% or more;
A fibula bone material removal and transfer template comprising a center part with a central body , each end of which has a bone separating tool guide portion , wherein at least one of the bone separating tool guide portions is mounted such that it can be moved away from the center part , characterized in that a bracket receiving device is provided into which an auxiliary resection bracket is inserted.
Apparatus for volatilising aerosolisable material, the apparatus comprising: a chamber for containing aerosolisable material; an arrangement for volatilising aerosolisable material contained in use within the chamber to form a vapour and/or an aerosol; a heater arrangement for heating an incoming air flow, which in use flows into the apparatus when a user draws on a system comprising the apparatus, prior to the air flow flowing through the aerosolisable material; and an air flow director arranged within the heater arrangement to direct the incoming air flow to flow in close proximity to a heating surface of the heater arrangement, wherein the air flow director is an elongate member that extends axially in the apparatus and wherein the heater arrangement and the elongate member define an annular flow path through which the air flows through the heater arrangement. a chamber for containing aerosolisable material; an arrangement for volatilising aerosolisable material contained in use within the chamber to form a vapour and/or an aerosol; a heater arrangement for heating an incoming air flow, which in use flows into the apparatus when a user draws on a system comprising the apparatus, prior to the air flow flowing through the aerosolisable material; and an air flow director arranged within the heater arrangement to direct the incoming air flow to flow in close proximity to a heating surface of the heater arrangement, wherein the air flow director is an elongate member that extends axially in the apparatus and wherein the heater arrangement and the elongate member define an annular flow path through which the air flows through the heater arrangement.
An inhibitor of the ErbB2 receptor for use in the treatment of damaged nerves and/or nerve tissues, wherein the inhibitor is Trastuzumab, and wherein the damage is the result of physical injury or a result of acquired or congenital causes. 2.
An electrode guide assembly for an EDM process, the electrode guide assembly comprising: a guide tube having a first end and a second end ; a fluid return channel ; and an electrode that is slidably accommodated within the guide tube, the electrode having a fluid feed channel ; the fluid feed channel provides that the first end of the guide tube is in fluid communication with the second end of the guide tube; and the fluid return channel provides that the second end of the guide tube is in fluid communication with the first end of the guide tube; the electrode guide assembly being characterised in that it comprises a plurality of sets of supporting protrusions , the protrusions projecting radially inwardly from an inner diametral surface of the guide tube, wherein the sets of supporting protrusions are spaced axially apart along the entire length of the guide tube, and an outer diametral surface of the electrode abuts against the sets of supporting protrusions. a guide tube having a first end and a second end ; a fluid return channel ; and an electrode that is slidably accommodated within the guide tube, the electrode having a fluid feed channel ; the fluid feed channel provides that the first end of the guide tube is in fluid communication with the second end of the guide tube; and the fluid return channel provides that the second end of the guide tube is in fluid communication with the first end of the guide tube; the electrode guide assembly being characterised in that it comprises a plurality of sets of supporting protrusions , the protrusions projecting radially inwardly from an inner diametral surface of the guide tube, wherein the sets of supporting protrusions are spaced axially apart along the entire length of the guide tube, and an outer diametral surface of the electrode abuts against the sets of supporting protrusions.