mhurhangee/patent-ind-claim-en huggingface dataset:
- Device for determining an attitude of a satellite , said satellite being provided with an attitude control system comprising at least one gyroscopic actuator , said at least one gyroscopic actuator comprising a flywheel mounted so as to be rotatable around an axis of rotation, said flywheel being carried by a gimbal articulated to rotate around an axis of rotation, said device comprising an attitude sensor capable of measuring the attitude of said satellite, said device comprising: - a position sensor capable of measuring the angular position of the gimbal around its axis of rotation, - a speed sensor capable of measuring the rotational speed of the flywheel , - calculation means configured to determine the attitude of the satellite by using the measurement of the angular position of the gimbal carried out by the position sensor , the measurement of the rotational speed of the flywheel carried out by the speed sensor , and the measurement of the attitude of the satellite carried out by the attitude sensor . - a position sensor capable of measuring the angular position of the gimbal around its axis of rotation, - a speed sensor capable of measuring the rotational speed of the flywheel , - calculation means configured to determine the attitude of the satellite by using the measurement of the angular position of the gimbal carried out by the position sensor , the measurement of the rotational speed of the flywheel carried out by the speed sensor , and the measurement of the attitude of the satellite carried out by the attitude sensor .
A dental treatment apparatus that is configured to energize a dental treatment site with a high-frequency current, the dental treatment apparatus comprising: a holder configured to hold an electrode that can be placed at the dental treatment site; a power supply configured to energize the electrode with the high-frequency current; and a controller configured to cause, during energization operation, the power supply to provide a stop period (TC2) where the energization of the electrode with the high-frequency current is stopped between a single energization period (SP) and a next single energization period (SP). a holder configured to hold an electrode that can be placed at the dental treatment site; a power supply configured to energize the electrode with the high-frequency current; and a controller configured to cause, during energization operation, the power supply to provide a stop period (TC2) where the energization of the electrode with the high-frequency current is stopped between a single energization period (SP) and a next single energization period (SP).
A spark plug testing kit comprising: a spark observation device , which comprises a transparent observation chamber so as to allow for the viewing of the spark gap of a spark plug installed therein in use, and wherein the observation chamber is substantially airtight so as to substantially prevent or reduce the possibility of the inadvertent ignition of fuel; a positive lead for connecting the spark plug to a distributor; an earth lead ; the spark plug testing kit being characterised in that it further comprises: a spark plug opening engaging device which is configured for engaging a spark plug opening of the spark plug once the spark plug has been removed from an engine for observation so as to: substantially prevent debris from falling in through the opening; and serve as an engine block electrical connection contact for the earth lead ; and which comprises at least one exhaust for chamber decompression; and wherein the earth lead is electrically connecting the spark observation device and the spark plug opening engaging device . a spark observation device , which comprises a transparent observation chamber so as to allow for the viewing of the spark gap of a spark plug installed therein in use, and wherein the observation chamber is substantially airtight so as to substantially prevent or reduce the possibility of the inadvertent ignition of fuel; a positive lead for connecting the spark plug to a distributor; an earth lead ; the spark plug testing kit being characterised in that it further comprises: a spark plug opening engaging device which is configured for engaging a spark plug opening of the spark plug once the spark plug has been removed from an engine for observation so as to: substantially prevent debris from falling in through the opening; and serve as an engine block electrical connection contact for the earth lead ; and which comprises at least one exhaust for chamber decompression; and wherein the earth lead is electrically connecting the spark observation device and the spark plug opening engaging device . is configured for engaging a spark plug opening of the spark plug once the spark plug has been removed from an engine for observation so as to: substantially prevent debris from falling in through the opening; and serve as an engine block electrical connection contact for the earth lead ; and substantially prevent debris from falling in through the opening; and serve as an engine block electrical connection contact for the earth lead ; and which comprises at least one exhaust for chamber decompression; and wherein the earth lead is electrically connecting the spark observation device and the spark plug opening engaging device .
A three-dimensional (3-D) printer comprising: an intermediate transfer surface ; a build material development station positioned to transfer build material to said intermediate transfer surface ; a support material development station positioned to transfer support material to said intermediate transfer surface , said build material development station and said support material development station transfer layers of said build material and said support material to said intermediate transfer surface ; a platen having a flat surface positioned to contact said intermediate transfer surface , said intermediate transfer surface transfers a layer of said build material and said support material to said platen , or existing layers on said platen , each time said platen , or said existing layers , contact said intermediate transfer surface ; a sensor detecting the thickness and topography of said layer on said platen ; a mechanical planer positioned to contact and level said layer on said platen as said platen moves past said mechanical planer ; and a feedback loop electrically connected to said sensor and said mechanical planer , said mechanical planer adjusts the amount of material removed from said layer based on said thickness and topography of said layer on said platen , as determined by said sensor , wherein said mechanical planer comprises a movable blade positioned at a non-parallel and non-perpendicular angle to said flat surface of said platen and an actuator connected to said movable blade , said actuator moves said movable blade toward and away from said platen . an intermediate transfer surface ; a build material development station positioned to transfer build material to said intermediate transfer surface ; a support material development station positioned to transfer support material to said intermediate transfer surface , said build material development station and said support material development station transfer layers of said build material and said support material to said intermediate transfer surface ; a platen having a flat surface positioned to contact said intermediate transfer surface , said intermediate transfer surface transfers a layer of said build material and said support material to said platen , or existing layers on said platen , each time said platen , or said existing layers , contact said intermediate transfer surface ; a sensor detecting the thickness and topography of said layer on said platen ; a mechanical planer positioned to contact and level said layer on said platen as said platen moves past said mechanical planer ; and a feedback loop electrically connected to said sensor and said mechanical planer , said mechanical planer adjusts the amount of material removed from said layer based on said thickness and topography of said layer on said platen , as determined by said sensor , wherein said mechanical planer comprises a movable blade positioned at a non-parallel and non-perpendicular angle to said flat surface of said platen and an actuator connected to said movable blade , said actuator moves said movable blade toward and away from said platen .
An underwater decommissioning method of a nuclear facility that includes a nuclear reactor pressure vessel and bio-protective concrete including a cavity in which the nuclear reactor pressure vessel is positioned, comprising: (a) floating the nuclear reactor pressure vessel above the cavity ; (b) forming an insertion part filled with water in a side spaced apart from the cavity , and installing a support part on a bottom surface of the insertion part , the support part including a mounting portion including a curved surface corresponding to a lower portion of the nuclear reactor pressure vessel and a step-like surface , the support part being provided with a through hole that penetrates from an outer surface thereof to a position of the mounting portion so that an outer surface of the nuclear reactor pressure vessel mounted on the support part is exposed and through which a cutting device is inserted; (c) mounting a lower portion of the nuclear reactor pressure vessel on the support part ; and (d) repeatedly cutting and decommissioning the nuclear reactor pressure vessel mounted on the support part by using a cutting device in an underwater position. (a) floating the nuclear reactor pressure vessel above the cavity ; (b) forming an insertion part filled with water in a side spaced apart from the cavity , and installing a support part on a bottom surface of the insertion part , the support part including a mounting portion including a curved surface corresponding to a lower portion of the nuclear reactor pressure vessel and a step-like surface , the support part being provided with a through hole that penetrates from an outer surface thereof to a position of the mounting portion so that an outer surface of the nuclear reactor pressure vessel mounted on the support part is exposed and through which a cutting device is inserted; (c) mounting a lower portion of the nuclear reactor pressure vessel on the support part ; and (d) repeatedly cutting and decommissioning the nuclear reactor pressure vessel mounted on the support part by using a cutting device in an underwater position.
An authentication token comprising: a communication unit for contactless communication between the token and an external device ; an energy storage unit for storing energy; wherein the token further comprises: a biometric capturing unit for capturing at least one biometric sample; a processing unit for processing the biometric sample captured by the biometric capturing unit ; wherein the token further comprises a synchronization unit configured to: determine a communication status of the communication unit ; determine a power supply capability of the energy storage unit ; adjust a processing speed of the processing unit in dependence on said communication status and said power supply capability; adjust an operating speed of the biometric capturing unit in dependence on said communication status and said power supply capability by making said operating speed adaptive to a level of a buffer between the processing unit and the biometric capturing unit . a communication unit for contactless communication between the token and an external device ; an energy storage unit for storing energy; wherein the token further comprises: a biometric capturing unit for capturing at least one biometric sample; a processing unit for processing the biometric sample captured by the biometric capturing unit ; wherein the token further comprises a synchronization unit configured to: determine a communication status of the communication unit ; determine a power supply capability of the energy storage unit ; adjust a processing speed of the processing unit in dependence on said communication status and said power supply capability; adjust an operating speed of the biometric capturing unit in dependence on said communication status and said power supply capability by making said operating speed adaptive to a level of a buffer between the processing unit and the biometric capturing unit . determine a communication status of the communication unit ; determine a power supply capability of the energy storage unit ; adjust a processing speed of the processing unit in dependence on said communication status and said power supply capability; adjust an operating speed of the biometric capturing unit in dependence on said communication status and said power supply capability by making said operating speed adaptive to a level of a buffer between the processing unit and the biometric capturing unit .
A peristaltic pumping apparatus for use in blood processing procedures, comprising: a pump rotor rotatable about a rotational axis (A) and a pump raceway circumferentially spaced about the axis; a pump cap disposed atop the pump rotor , the pump cap having a finger configured to engage a tubing loop of a length of tubing at a time of loading the tubing and guide the tubing loop within the raceway along the length of the tubing loop ; and wherein the pump cap further comprises a tensioning wall disposed laterally opposite the finger , the tensioning wall configured to engage a length of the tubing loop at a time of unloading the tubing and provide tension to the tubing length as the tubing loop exits the raceway . a pump rotor rotatable about a rotational axis (A) and a pump raceway circumferentially spaced about the axis; a pump cap disposed atop the pump rotor , the pump cap having a finger configured to engage a tubing loop of a length of tubing at a time of loading the tubing and guide the tubing loop within the raceway along the length of the tubing loop ; and wherein the pump cap further comprises a tensioning wall disposed laterally opposite the finger , the tensioning wall configured to engage a length of the tubing loop at a time of unloading the tubing and provide tension to the tubing length as the tubing loop exits the raceway .
Device for energy transmission and for energy storage in a liquid reservoir (FR), the device (VO) comprising a water heat exchanger (WW) and an air heat exchanger (LW) arranged above the water heat exchanger (WW), the water heat exchanger (WW) being arranged in a liquid reservoir (FR), and the device (VO) having a fresh air inlet (LE) from which a fresh air flow can be induced to an air outlet (LA) by the air heat exchanger (LW), characterized by a heat exchanger (WU) which is designed to direct exhaust air flowing in from an exhaust air inlet (AU) for energy transmission via the liquid reservoir (FR) to an edge region (RB) of the heat exchanger (WU), from which heat exchanger the exhaust air can be supplied to the air heat exchanger (LW) as an extract air flow, in which the fresh air flow and the extract air flow mix.
A power conditioning system with two converters , comprising: a fuel cell to be connected to a load ; a fuel cell converter connected between the fuel cell and the load , the fuel cell converter converting an output voltage of the fuel cell at a predetermined required voltage ratio; a battery connected in parallel with the fuel cell with respect to the load , the battery serving as a power supply source different from the fuel cell ; a battery converter connected between the battery and the load , the battery converter converting an output voltage of the battery at a predetermined required voltage ratio; characterized by a converter direct coupling unit configured to control the fuel cell converter to directly couple an input side and an output side of the fuel cell converter during startup of the power conditioning system ; and a fuel cell output voltage increasing unit configured to increase the output voltage of the fuel cell to a predetermined voltage by supplying oxidant gas during startup of the fuel cell . a fuel cell to be connected to a load ; a fuel cell converter connected between the fuel cell and the load , the fuel cell converter converting an output voltage of the fuel cell at a predetermined required voltage ratio; a battery connected in parallel with the fuel cell with respect to the load , the battery serving as a power supply source different from the fuel cell ; a battery converter connected between the battery and the load , the battery converter converting an output voltage of the battery at a predetermined required voltage ratio; characterized by a converter direct coupling unit configured to control the fuel cell converter to directly couple an input side and an output side of the fuel cell converter during startup of the power conditioning system ; and a fuel cell output voltage increasing unit configured to increase the output voltage of the fuel cell to a predetermined voltage by supplying oxidant gas during startup of the fuel cell .
Container for receiving and operating high-temperature fuel cells , comprising high-temperature fuel cells and several layers arranged one above the other, whereby an outer layer delimits the container to the outside and further layers are arranged in the interior of the container formed in this way, whereby an inner layer for receiving high-temperature fuel cells is arranged centrally in the interior of the container and completely envelops the high-temperature fuel cells received in the container , a third layer , which is arranged above the inner layer and completely envelops the latter, at least one fourth layer , which is arranged above the third layer and completely envelops the latter, and the outer layer , which is arranged above the at least fourth layer and completely envelops the latter, whereby a fluid-permeable intermediate space is formed respectively between two superimposed layers (3b-3c, 3c-3d, 3d-3a). whereby an inner layer for receiving high-temperature fuel cells is arranged centrally in the interior of the container and completely envelops the high-temperature fuel cells received in the container , a third layer , which is arranged above the inner layer and completely envelops the latter, at least one fourth layer , which is arranged above the third layer and completely envelops the latter, and the outer layer , which is arranged above the at least fourth layer and completely envelops the latter, whereby a fluid-permeable intermediate space is formed respectively between two superimposed layers (3b-3c, 3c-3d, 3d-3a).
A vehicle front structure comprising: a first bumper reinforcement disposed on a front-end side of a vehicle body front part, with a longitudinal direction oriented in a vehicle width direction; a pair of right and left front side members respectively disposed on a vehicle rear side of outer portions of the first bumper reinforcement in the vehicle width direction, the pair of right and left front side members being provided so as to incline outward in the vehicle width direction while extending toward a vehicle front side; an apron upper member having an elongated shape of which a rear part is located on an outer side in the vehicle width direction as well as a vehicle upper side of the front side member and extends along a vehicle front-rear direction, a front lower end of the apron upper member being connected to a front end side of the front side member ; a first crash box interposed between the first bumper reinforcement and the front side member , the first crash box being configured to undergo compressive deformation when a load equal to or larger than a predetermined value is input from the first bumper reinforcement ; a cross member coupling together front ends of the pair of right and left front side members in the vehicle width direction; and a high-voltage component disposed on the vehicle rear side of and at a distance from the cross member . a first bumper reinforcement disposed on a front-end side of a vehicle body front part, with a longitudinal direction oriented in a vehicle width direction; a pair of right and left front side members respectively disposed on a vehicle rear side of outer portions of the first bumper reinforcement in the vehicle width direction, the pair of right and left front side members being provided so as to incline outward in the vehicle width direction while extending toward a vehicle front side; an apron upper member having an elongated shape of which a rear part is located on an outer side in the vehicle width direction as well as a vehicle upper side of the front side member and extends along a vehicle front-rear direction, a front lower end of the apron upper member being connected to a front end side of the front side member ; a first crash box interposed between the first bumper reinforcement and the front side member , the first crash box being configured to undergo compressive deformation when a load equal to or larger than a predetermined value is input from the first bumper reinforcement ; a cross member coupling together front ends of the pair of right and left front side members in the vehicle width direction; and a high-voltage component disposed on the vehicle rear side of and at a distance from the cross member .
A crystalline linezolid form III, characterized by an x-ray powder diffraction spectrum having peaks expressed as 2Θ at about 7.6, 9.6, 13.6, 14.9, 18.2, 18.9, 21.2, 22.3, 25.6, 26.9, 27.9 and 29.9 degrees, and further characterized by an IR spectrum having main bands at about 3338, 1741, 1662, 1544, 1517, 1471, 1452, 1425, 1400, 1381, 1334, 1273, 1255, 1228, 1213, 1197, 1176, 1116, 1082, 1051, 937, 923, 904, 869, 825 and 756 cm -1 .
A power feed device , comprising: a power feed section configured to supply power wirelessly to a power receiving device having a power receiving coil by means of a power feed coil ; a communication section configured to receive coil information transmitted from the power receiving device , the coil information indicating whether or not a further coil of the power receiving device is provided near the power receiving coil ; a first measuring section configured to measure a first frequency characteristic of a first parameter in a first frequency range on a basis of a signal at the power feed coil or on a basis of a signal at a measuring coil of the power feed device provided near the power feed coil ; and a controller configured to perform, by comparing the coil information and the first frequency characteristic, a first determination as to whether or not to supply power to the power receiving device and to control an operation of the power feed section on a basis of a result of the first determination. a power feed section configured to supply power wirelessly to a power receiving device having a power receiving coil by means of a power feed coil ; a communication section configured to receive coil information transmitted from the power receiving device , the coil information indicating whether or not a further coil of the power receiving device is provided near the power receiving coil ; a first measuring section configured to measure a first frequency characteristic of a first parameter in a first frequency range on a basis of a signal at the power feed coil or on a basis of a signal at a measuring coil of the power feed device provided near the power feed coil ; and a controller configured to perform, by comparing the coil information and the first frequency characteristic, a first determination as to whether or not to supply power to the power receiving device and to control an operation of the power feed section on a basis of a result of the first determination.