mhurhangee/patent-ind-claim-en huggingface dataset:
A force sensor comprising: a cylindrical main body ; a cylindrical movable body movable with respect to the main body and including at least three circular openings in the outer circumference thereof; a strain body fixed to the main body and the movable body and deformable according to a movement of the movable body ; strain sensors provided on the strain body ; a first stopper arranged inside each of the openings and including a first outer circumferential surface which comprises a first outer diameter less than a diameter of the opening and with which the movable body can be brought into contact; and a cylindrical second stopper arranged between the movable body and the strain body and separate from a first inner circumferential surface of the main body by a first distance and including a second outer circumferential surface which comprises a second outer diameter less than a diameter of the first inner circumferential surface and can be brought into contact with the first inner circumferential surface. a cylindrical main body ; a cylindrical movable body movable with respect to the main body and including at least three circular openings in the outer circumference thereof; a strain body fixed to the main body and the movable body and deformable according to a movement of the movable body ; strain sensors provided on the strain body ; a first stopper arranged inside each of the openings and including a first outer circumferential surface which comprises a first outer diameter less than a diameter of the opening and with which the movable body can be brought into contact; and a cylindrical second stopper arranged between the movable body and the strain body and separate from a first inner circumferential surface of the main body by a first distance and including a second outer circumferential surface which comprises a second outer diameter less than a diameter of the first inner circumferential surface and can be brought into contact with the first inner circumferential surface.
A computer-implemented method for monitoring a smoking substitute device , the method comprising: determining, by a portable communication terminal , in response to detecting loss of a wireless connection between the portable communication terminal and the smoking substitute device , whether or not the loss of the wireless connection is notifiable, wherein determining whether or not the loss of the wireless connection is notifiable comprises determining whether or not one or more notification suppression criteria are fulfilled; and issuing, by the portable communication terminal upon determining that the loss of the wireless connection is notifiable, a dropped connection notification characterized in that the notification suppression criteria relate to a current location of the portable communication terminal , and historical smoking substitute device usage data for the current location. determining, by a portable communication terminal , in response to detecting loss of a wireless connection between the portable communication terminal and the smoking substitute device , whether or not the loss of the wireless connection is notifiable, wherein determining whether or not the loss of the wireless connection is notifiable comprises determining whether or not one or more notification suppression criteria are fulfilled; and issuing, by the portable communication terminal upon determining that the loss of the wireless connection is notifiable, a dropped connection notification characterized in that the notification suppression criteria relate to a current location of the portable communication terminal , and historical smoking substitute device usage data for the current location.
A method for controlling a communication device, the method comprising the steps of: displaying a first screen including information of a counterpart communication device, and a number of occurred calls with the counterpart communication device and call types the number of the occurred calls being increased each time a call occurs with the counterpart communication device until a call with another counterpart communication device is detected; based on receiving a user input for selecting a call type, displaying a second screen, wherein the second screen includes the information of the counterpart communication device, a total number of occurred calls with the counterpart communication device for the selected call type, and information indicating the selected call type. displaying a first screen including information of a counterpart communication device, and a number of occurred calls with the counterpart communication device and call types the number of the occurred calls being increased each time a call occurs with the counterpart communication device until a call with another counterpart communication device is detected; based on receiving a user input for selecting a call type, displaying a second screen, wherein the second screen includes the information of the counterpart communication device, a total number of occurred calls with the counterpart communication device for the selected call type, and information indicating the selected call type.
A method of determining resiliency in a microgrid comprising a number of assets , where each asset is a different type of electric energy subsystem in the microgrid, the method comprising: obtaining status data about devices used to control the assets as well as about communication resources of this control, where the status data about the devices used to control the assets comprises hardware status data and/or software status data, determining , based on the status data, a value representing the health and availability of each asset to assist each of a plurality of functions (F1, F2, F3) for handling disruptive events in the microgrid, determining a resiliency index (RI) of said microgrid in performing said plurality of functions (F1, F2, F3), the resiliency index being determined based on the individual asset health and availability of each asset concerning all the functions (F1, F2, F3) for handling disruptive events, providing the resiliency index to a control system of the microgrid, comparing , in the control system, the resiliency index (RI) with at least one threshold, and changing the control of the microgrid to improve the resiliency index (RI) by changing operation of one or more of the assets if any of the thresholds is crossed. obtaining status data about devices used to control the assets as well as about communication resources of this control, where the status data about the devices used to control the assets comprises hardware status data and/or software status data, determining , based on the status data, a value representing the health and availability of each asset to assist each of a plurality of functions (F1, F2, F3) for handling disruptive events in the microgrid, determining a resiliency index (RI) of said microgrid in performing said plurality of functions (F1, F2, F3), the resiliency index being determined based on the individual asset health and availability of each asset concerning all the functions (F1, F2, F3) for handling disruptive events, providing the resiliency index to a control system of the microgrid, comparing , in the control system, the resiliency index (RI) with at least one threshold, and changing the control of the microgrid to improve the resiliency index (RI) by changing operation of one or more of the assets if any of the thresholds is crossed.
A hybrid module comprising: an electric motor having a stator, a rotor and a rotor carrier connected in a rotationally fixed manner to the rotor ; a rotor position encoder sensor connected via an electrical conductor to a rotor position encoder sensor-connector in order to determine the rotational position of an encoder wheel , wherein the rotor position encoder sensor is arranged radially inside the rotor and the rotor position encoder sensor-connector is arranged radially outside the rotor and wherein the rotor position encoder sensor , the rotor position encoder sensor-connector and the electrical conductor are incorporated in a common structural unit in such a manner that a monolithic assembly is formed, which is interchangeably attachable to a connection piece. an electric motor having a stator, a rotor and a rotor carrier connected in a rotationally fixed manner to the rotor ; a rotor position encoder sensor connected via an electrical conductor to a rotor position encoder sensor-connector in order to determine the rotational position of an encoder wheel , wherein the rotor position encoder sensor is arranged radially inside the rotor and the rotor position encoder sensor-connector is arranged radially outside the rotor and wherein the rotor position encoder sensor , the rotor position encoder sensor-connector and the electrical conductor are incorporated in a common structural unit in such a manner that a monolithic assembly is formed, which is interchangeably attachable to a connection piece.
A grease (G) filling method for a ball screw device which applies grease (G) to an infinite circulation path of a nut in a ball screw device including a screw shaft with a first thread groove formed on an outer peripheral surface, the nut placed around the screw shaft and having a second thread groove formed on an inner peripheral surface, a plurality of balls arranged in a rolling path between the first thread groove and the second thread groove , and the infinite circulation path which returns the ball from one part of the rolling path to another part, the method comprising the steps of: covering an outer periphery of the screw shaft protruding from one end portion of the nut with a covering member ; supplying the grease (G) to a gap (S) between a nut inner peripheral surface on one end side of the nut and the screw shaft ; characterized by further steps of inserting the protruding screw shaft into a nut inner side while being covered with the covering member by relatively rotating the screw shaft and the nut , bringing a tip of the covering member in an insertion direction closer to an end portion of the infinite circulation path on the one end portion side of the nut , and sending the grease (G) supplied to the nut inner side to a region of the infinite circulation path ; pulling out the covering member together with the screw shaft from the one end portion of the nut by relatively rotating the screw shaft and the nut in a direction opposite to a direction of the relative rotation; and taking out the covering member from the screw shaft . covering an outer periphery of the screw shaft protruding from one end portion of the nut with a covering member ; supplying the grease (G) to a gap (S) between a nut inner peripheral surface on one end side of the nut and the screw shaft ; characterized by further steps of inserting the protruding screw shaft into a nut inner side while being covered with the covering member by relatively rotating the screw shaft and the nut , bringing a tip of the covering member in an insertion direction closer to an end portion of the infinite circulation path on the one end portion side of the nut , and sending the grease (G) supplied to the nut inner side to a region of the infinite circulation path ; pulling out the covering member together with the screw shaft from the one end portion of the nut by relatively rotating the screw shaft and the nut in a direction opposite to a direction of the relative rotation; and taking out the covering member from the screw shaft .
Feeder house assembly for a combine harvester , comprising: a housing , a drivable feeder house shaft which is arranged in the housing and to which driver elements for transmitting torque to an endless traction means , passing partially around the feeder house shaft , with conveyor slats fastened thereto are attached, a deflection roller which is arranged in the housing and about which the endless traction means runs, a first bearing arrangement which is fastened to a first end of the feeder house shaft and is connected to the adjacent region of the housing via first mounting means, and a second bearing arrangement which is fastened to a second end of the feeder house shaft and is connected to the adjacent region of the housing via second mounting means, characterized in that the bearing arrangements are arranged on the inner side of the housing , and in that the first bearing arrangement is embodied as a floating bearing that is axially displaceable on the feeder house shaft and is configured such that, when the feeder house shaft is inserted into the housing , said floating bearing can be pushed into a position in which it and its mounting means do not impede the installation of the feeder house shaft in the housing , and can subsequently be moved into its final position. a housing , a drivable feeder house shaft which is arranged in the housing and to which driver elements for transmitting torque to an endless traction means , passing partially around the feeder house shaft , with conveyor slats fastened thereto are attached, a deflection roller which is arranged in the housing and about which the endless traction means runs, a first bearing arrangement which is fastened to a first end of the feeder house shaft and is connected to the adjacent region of the housing via first mounting means, and a second bearing arrangement which is fastened to a second end of the feeder house shaft and is connected to the adjacent region of the housing via second mounting means, characterized in that the bearing arrangements are arranged on the inner side of the housing , and in that the first bearing arrangement is embodied as a floating bearing that is axially displaceable on the feeder house shaft and is configured such that, when the feeder house shaft is inserted into the housing , said floating bearing can be pushed into a position in which it and its mounting means do not impede the installation of the feeder house shaft in the housing , and can subsequently be moved into its final position.
An apparatus of a radio access network, the apparatus comprising at least one processor and at least one memory including computer program code, the at least one memory and the computer program code configured to, with the at least one processor, cause the apparatus at least to perform: in case a first set of N user equipments attached to the radio access network via the apparatus does not exceed a maximum number M, performing real-time and non-real-time processing for the N user equipments, M and N being positive integers; in case N exceeds M, performing real-time and non-real-time processing for a second set of M user equipments contained within the first set and forwarding non-real-time processing of a third set of N-M user equipments contained within the first set but not contained within the second set to a central unit. in case a first set of N user equipments attached to the radio access network via the apparatus does not exceed a maximum number M, performing real-time and non-real-time processing for the N user equipments, M and N being positive integers; in case N exceeds M, performing real-time and non-real-time processing for a second set of M user equipments contained within the first set and forwarding non-real-time processing of a third set of N-M user equipments contained within the first set but not contained within the second set to a central unit.
(R)-2-(2-aminothiazol-4-yl)-4'-[2-[(2-hydroxy-2-phenylethyl)amino]ethyl]acetic acid anilide or a pharmaceutically acceptable salt or solvate thereof for use in the treatment of a retinal disease in a subject, said (R)-2-(2-aminothiazol-4-yl)-4'-[2-[(2-hydroxy-2-phenylethyl)amino]ethyl]acetic acid anilide being mirabegron, a pharmaceutically acceptable salt or solvate thereof, and wherein said retinal disease is a disease affecting the macula.
A register having a narrow and long rectangular-shaped air outlet , with a front movable louver that is provided with a plurality of front fins turnably and disposed inside the air outlet , wherein the front movable louver is constituted so that while one central fin is axially supported at substantially the center of the inside of the air outlet turnably around an axis parallel to the longitudinal direction of the air outlet , a pair of auxiliary fins are axially supported in such a manner that the auxiliary fins are storable in storing recesses provided on the wall surfaces on both sides inside the air outlet and turnable around axes parallel to the axis of the central fin while being parallel to the central fin , the central fin is axially supported turnably by pivots provided on both sides of the vicinity of the downstream side end portion, and the pair of auxiliary fins are axially supported turnably so as to stick out their downstream side end portions to a passage side by pivots provided on both sides of the vicinities of the upstream side end portions, a cam link mechanism is provided which turns the auxiliary fins so that when the central fin is turned in the short-side direction of the air outlet , one of the auxiliary fins sticks out its downstream side end portion to the passage side, and the other auxiliary fin becomes parallel to and approaches the central fin characterized in that when said other auxiliary fin becomes parallel to and approaches the central fin , these fins function as one large fin, and the cam link mechanism is constituted so that a plurality of cam grooves are provided in a cam plate axially supported rotatably, and in the cam grooves , an engagement pin of a link member joined to the pivot of the central fin is engaged and engagement pins of link members joined to the pivots of the pair of auxiliary fins are engaged.
A charger configured with an opening to receive a device to be wirelessly charged, the charger comprising: an excitation coil made of an electrical conductor wound around a toroidal core to excite a magnetic field inside the toroidal core , the toroidal core having an air-gap between two end-faces of the toroidal core , wherein the air-gap is shaped to receive the device to be wirelessly charged including a receiving antenna , a housing including the toroidal core and the excitation coil , the housing having an opening allowing insertion of the device to be wirelessly charged, and characterised in that a magnetic shield is provided in the housing at the toroidal core , wherein the magnetic shield is provided as part of an encapsulating unit configured to encapsulate the toroidal core and coated with a metallic material, wherein a slit is formed in the encapsulating unit. an excitation coil made of an electrical conductor wound around a toroidal core to excite a magnetic field inside the toroidal core , the toroidal core having an air-gap between two end-faces of the toroidal core , wherein the air-gap is shaped to receive the device to be wirelessly charged including a receiving antenna , a housing including the toroidal core and the excitation coil , the housing having an opening allowing insertion of the device to be wirelessly charged, and characterised in that a magnetic shield is provided in the housing at the toroidal core , wherein the magnetic shield is provided as part of an encapsulating unit configured to encapsulate the toroidal core and coated with a metallic material,
A method for conducting an aluminum electrolytic process, including preparing an electrolyte and an electrolyte replenishment system for use in the aluminum electrolytic process, comprising the following steps of: Step A: placing aluminum in a reactor, vacuuming the reactor and feeding an inert gas, heating the reactor to 700-850 °C, and adding one of the reactants mixtures: - a mixture consisting of potassium fluoroborate and potassium fluorozirconate in a molar ratio of 2 : 1; or - a mixture consisting of sodium fluoroborate and sodium hexafluorozirconate in a molar ratio of 2 : 1; Step B: stirring the reactants for 4-6 hours and extracting an upper molten liquid to obtain - in the case of potassium fluorozirconate and potassium fluoroborate, the electrolyte replenishment system 6 5 KF ⋅ AlF 3 ; or - in the case of sodium hexafluorozirconate and sodium fluoroborate, the electrolyte replenishment system 6 5 NaF ⋅ AlF 3 , for use in the aluminum electrolysis process; and Step C: adding either of the electrolyte replenishment systems obtained in step B into a fundamental electrolyte system used in the aluminum electrolysis process, wherein the fundamental electrolyte system is consumed continuously during the aluminum electrolysis process. Step A: placing aluminum in a reactor, vacuuming the reactor and feeding an inert gas, heating the reactor to 700-850 °C, and adding one of the reactants mixtures: - a mixture consisting of potassium fluoroborate and potassium fluorozirconate in a molar ratio of 2 : 1; or - a mixture consisting of sodium fluoroborate and sodium hexafluorozirconate in a molar ratio of 2 : 1; - a mixture consisting of potassium fluoroborate and potassium fluorozirconate in a molar ratio of 2 : 1; or - a mixture consisting of sodium fluoroborate and sodium hexafluorozirconate in a molar ratio of 2 : 1; Step B: stirring the reactants for 4-6 hours and extracting an upper molten liquid to obtain - in the case of potassium fluorozirconate and potassium fluoroborate, the electrolyte replenishment system 6 5 KF ⋅ AlF 3 ; or - in the case of sodium hexafluorozirconate and sodium fluoroborate, the electrolyte replenishment system 6 5 NaF ⋅ AlF 3 , for use in the aluminum electrolysis process; and - in the case of potassium fluorozirconate and potassium fluoroborate, the electrolyte replenishment system 6 5 KF ⋅ AlF 3 ; or - in the case of sodium hexafluorozirconate and sodium fluoroborate, the electrolyte replenishment system 6 5 NaF ⋅ AlF 3 , for use in the aluminum electrolysis process; and Step C: adding either of the electrolyte replenishment systems obtained in step B into a fundamental electrolyte system used in the aluminum electrolysis process, wherein the fundamental electrolyte system is consumed continuously during the aluminum electrolysis process.