mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: controlling a wireless energy transfer apparatus to synchronize energy transfer with at least one further wireless energy transfer apparatus to wirelessly transfer energy to at least one load in combination with the at least one further wireless energy transfer apparatus, wherein the wireless energy transfer apparatus and the at least one further wireless energy transfer apparatus are separate apparatuses, and wherein controlling a wireless energy transfer apparatus to synchronize energy transfer with at least one further wireless energy transfer apparatus comprises controlling at least one of a frequency and phase of an electrical current passing through at least one magnetic field generator to generate at least one magnetic field having substantially the same frequency and phase as a magnetic field generated by the at least one further wireless energy transfer apparatus; and determining the amount and direction of current flow in a conductor of the wireless energy transfer apparatus, wherein the amount and direction of current flow in the conductor indicates an amount of wireless energy transfer from or to the wireless energy apparatus; and characterised by controlling adjustment of at least one of a frequency and phase of wireless energy transfer at the wireless energy transfer apparatus in dependence upon the determination of at least one of the amount and direction of current flow in the conductor.
A lithium battery comprising; a positive electrode comprising a positive active material layer; a negative electrode comprising a negative active material layer; and a separator comprising a base material layer and a polymer layer including a non-aqueous binder formed on at least one surface of the base material layer; wherein the negative active material layer includes a first aqueous binder and at least one second aqueous binder, the first aqueous binder including a same monomer unit as in the non-aqueous binder.
A method for operating an electronic device that includes first and second circuits (410, 490) and adjustable clock generation circuitry operable to produce first and second clock signals (450, 460), wherein the first circuit operates using the first clock signal, wherein the second circuit operates using the second clock signal, and wherein the first and second clock signals (450, 460) have respective clock rates, the method comprising: generating a status information related to the operation of the second circuit; deciding whether adjusting the clock rate of the first clock signal is required based on the status information; and deciding whether adjusting the clock rate of the second clock signal is required based on the status information; adjusting the clock rate of the first clock signal and the clock rate of the second clock signal if the adjustment is required; characterized by with the adjustable clock generation circuitry: generating a plurality of fixed rate clock signals, and selecting the first and second clock signals (450, 460) from the plurality of fixed rate clock signals. generating a status information related to the operation of the second circuit; deciding whether adjusting the clock rate of the first clock signal is required based on the status information; and deciding whether adjusting the clock rate of the second clock signal is required based on the status information; adjusting the clock rate of the first clock signal and the clock rate of the second clock signal if the adjustment is required; characterized by with the adjustable clock generation circuitry: generating a plurality of fixed rate clock signals, and selecting the first and second clock signals (450, 460) from the plurality of fixed rate clock signals.
A filter frame for an embolic filter, the filter frame configured for use with a support wire and comprising: a filter support portion configured for attachment with a filter element; and further comprising: multiple support struts attached to the filter support portion and configured to mount to, and extend radially from, a support wire, at least one support strut having a looped configuration when not in tension in a deployed state, such that, when constrained by a vessel during use, the at least one r looped support strut exerts a radial force onto the vessel wall, said strut, having a portion unattached to the filter element, wherein the strut has at least one bend greater than 90 degrees along the unattached portion. a filter support portion configured for attachment with a filter element; and further comprising: multiple support struts attached to the filter support portion and configured to mount to, and extend radially from, a support wire, at least one support strut having a looped configuration when not in tension in a deployed state, such that, when constrained by a vessel during use, the at least one r looped support strut exerts a radial force onto the vessel wall, said strut, having a portion unattached to the filter element, wherein the strut has at least one bend greater than 90 degrees along the unattached portion. multiple support struts attached to the filter support portion and configured to mount to, and extend radially from, a support wire, at least one support strut having a looped configuration when not in tension in a deployed state, such that, when constrained by a vessel during use, the at least one r looped support strut exerts a radial force onto the vessel wall, said strut, having a portion unattached to the filter element, wherein the strut has at least one bend greater than 90 degrees along the unattached portion.
A network device comprising a base, a bracket, a functional component, a position detector, and a main controller; wherein the bracket is rotatably connected to the base, the functional component is carried on the bracket, and the functional component is rotatable along with the bracket; the position detector comprises a Hall sensor and a magnetic element, one of the Hall sensor and the magnetic element being fixed to the base, the other of the Hall sensor and the magnetic element being fixed to the bracket and rotatable along with the bracket, and a distance between the Hall sensor and the magnetic element remaining unchanged in a direction perpendicular to a rotation plane of the bracket; the Hall sensor is disposed within a range of a magnetic field of the magnetic element; when the Hall sensor rotates relative to the magnetic element, the Hall sensor senses a change in the magnetic field of the magnetic element and outputs a detection signal; the main controller is configured to determine a position of the functional component relative to the base according to the detection signal.
A fuel rod, comprising a first uranium pellet, a gadolinium pellet and a second uranium pellet, wherein the first uranium pellet, the gadolinium pellet and the second uranium pellet are each of a cylindrical shape, an end face of an end of the gadolinium pellet is connected to an end face of an end of the first uranium pellet, and an end face of an opposite end of the gadolinium pellet is connected to an end face of an end of the second uranium pellet, and a difference between an enrichment of the gadolinium pellet and an enrichment of the first uranium pellet is 0.5%, and a difference between an enrichment of the gadolinium pellet and an enrichment of the second uranium pellet is 0.5%, wherein the first uranium pellet, the gadolinium pellet, and the second uranium pellet are all composed of a plurality of small cylindrical pellets which are stacked together. an end face of an end of the gadolinium pellet is connected to an end face of an end of the first uranium pellet, and an end face of an opposite end of the gadolinium pellet is connected to an end face of an end of the second uranium pellet, and a difference between an enrichment of the gadolinium pellet and an enrichment of the first uranium pellet is 0.5%, and a difference between an enrichment of the gadolinium pellet and an enrichment of the second uranium pellet is 0.5%, wherein the first uranium pellet, the gadolinium pellet, and the second uranium pellet are all composed of a plurality of small cylindrical pellets which are stacked together.
A data carrier comprising: - a central portion covered by at least one translucent protective layer on at least one of its sides, - at least one see-through portion, comprising an orifice filled with a translucent plug, going at least partially through of said central portion, characterized in that the said central portion comprises a colored core and at least one opaque layer colored in a color different from the colored core in order to show a layered structure of different colors on the edge of the data carrier. - a central portion covered by at least one translucent protective layer on at least one of its sides, - at least one see-through portion, comprising an orifice filled with a translucent plug, going at least partially through of said central portion,
A bleed air system for an aircraft comprising: a turbocompressor including a turbine portion coupled to drive a compressor portion, the compressor portion including a compressor inlet and a compressor air discharge, the turbine portion including a turbine inlet and a turbine discharge; a passage delivering air to the compressor inlet from one or more locations of an engine; a passage delivering air to the turbine inlet from at least one or more locations of the engine; a passage receiving air from the compressor discharge selectively delivered to one or more locations of the engine; an outlet passage receiving air from the turbine discharge communicating airflow to an aircraft system (70, 72); and a controller to direct inlet and discharge airflow of the compressor portion and the turbine portion to control operation of the turbocompressor; characterised in that the bleed air system further comprises: a passage communicating airflow from the compressor discharge to the turbine inlet; a first control valve controlling airflow from the compressor discharge to one or more locations of the engine and the turbine inlet; and a flow selector for directing air to bypass the turbocompressor or turbine portion through a bypass passage to mix with airflow from the turbine discharge into the outlet passage to the aircraft system (70, 72). a turbocompressor including a turbine portion coupled to drive a compressor portion, the compressor portion including a compressor inlet and a compressor air discharge, the turbine portion including a turbine inlet and a turbine discharge; a passage delivering air to the compressor inlet from one or more locations of an engine; a passage delivering air to the turbine inlet from at least one or more locations of the engine; a passage receiving air from the compressor discharge selectively delivered to one or more locations of the engine; an outlet passage receiving air from the turbine discharge communicating airflow to an aircraft system (70, 72); and a controller to direct inlet and discharge airflow of the compressor portion and the turbine portion to control operation of the turbocompressor; characterised in that the bleed air system further comprises: a passage communicating airflow from the compressor discharge to the turbine inlet; a first control valve controlling airflow from the compressor discharge to one or more locations of the engine and the turbine inlet; and a flow selector for directing air to bypass the turbocompressor or turbine portion through a bypass passage to mix with airflow from the turbine discharge into the outlet passage to the aircraft system (70, 72). a passage communicating airflow from the compressor discharge to the turbine inlet; a first control valve controlling airflow from the compressor discharge to one or more locations of the engine and the turbine inlet; and a flow selector for directing air to bypass the turbocompressor or turbine portion through a bypass passage to mix with airflow from the turbine discharge into the outlet passage to the aircraft system (70, 72).
A control channel mapping method in a multi-carrier system, in which more than one component carrier exists and includes a main carrier and a non-main carrier, the method comprising: for a same aggregation level, determining for each component carrier, an initial location of a search space according to a component carrier indicator of the each component carrier, wherein more than one search space exists for the same aggregation level, the more than one search space is set on the main carrier, component carrier indicators of different component carriers are different, and initial locations of search spaces determined according to the component carrier indicators of different component carriers are different; determining a size of the search space corresponding to the each component carrier; and mapping a control channel corresponding to the each component carrier to the determined search space on the main carrier. for a same aggregation level, determining for each component carrier, an initial location of a search space according to a component carrier indicator of the each component carrier, wherein more than one search space exists for the same aggregation level, the more than one search space is set on the main carrier, component carrier indicators of different component carriers are different, and initial locations of search spaces determined according to the component carrier indicators of different component carriers are different; determining a size of the search space corresponding to the each component carrier; and mapping a control channel corresponding to the each component carrier to the determined search space on the main carrier.
A nacelle of a turbojet engine comprising: - an outer structure including an annular lip delimiting an air inlet as well as a cowl extending within the extension of the annular lip - a fixed inner structure (18, 19, 20) extending within the extension of the air inlet and exhibiting an area equipped with at least one equipment, the maintenance or monitoring of which is to be ensured, the outer structure being movable with respect to the inner structure between an operating position in which the cowl covers the area provided with the equipment, and a maintenance position in which the cowl uncovers said area so as to allow access from the outside to the equipment, characterized in that the outer structure is equipped with at least one reinforcing spar designed to transmit forces between the annular lip and the cowl, the spar extending, along the radial plane of the air inlet, from the outer structure towards the inner structure, the spar exhibits a substantially omega-shaped section, forming a first and a second lateral walls (14, 15) fastened to the outer structure and an end facing the inner structure (18, 19), the spar includes guiding means able to cooperate with complementary guiding means (22, 23) of the inner structure, the guiding means of the spar are mounted on one of the first and second lateral walls (14, 15) of the spar, and in that the guiding means of the spar and the complementary guiding means (22, 23) of the inner structure are offset with respect to the radial plane of extension of the spar. - an outer structure including an annular lip delimiting an air inlet as well as a cowl extending within the extension of the annular lip - a fixed inner structure (18, 19, 20) extending within the extension of the air inlet and exhibiting an area equipped with at least one equipment, the maintenance or monitoring of which is to be ensured,
An isolated anti-human-RORl antibody comprising a heavy chain variable region and a light chain variable region, wherein said heavy chain variable region comprises a CDR1 as set forth in SEQ ID NO:27, a CDR2 as set forth in SEQ ID NO:28, a CDR3 as set forth in SEQ ID NO:29; and wherein said light chain variable region comprises a CDR1 as set forth in SEQ ID NO:30, a CDR2 as set forth in SEQ ID NO:31, and a CDR3 as set forth in SEQ ID NO:32.
A pet bath comprising: an outer cabinet that forms an external appearance of the pet bath, the outer cabinet having an open front surface; an inner cabinet provided within the outer cabinet defining a bathing enclosure therein, the inner cabinet having an open front surface; a door configured to open and close the open front surfaces of the outer cabinet and the inner cabinet; a water collection tank disposed under the inner cabinet and defining a space in which washing water is stored; a circulation pump configured to pump the washing water stored in the water collection tank; a lower nozzle disposed at a lower portion of the bathing enclosure and configured to spray the washing water pumped by the circulation pump to the bathing enclosure; an upper nozzle disposed above the lower nozzle and configured to spray the washing water pumped by the circulation pump to the bathing enclosure; a stand disposed between the lower nozzle and the upper nozzle and configured to support a pet thereon, the stand being configured to drain washing water therethrough; a circulation water filter configured to filter washing water flowing from the bathing enclosure to the water collection tank; an air blower disposed below the inner cabinet and configured to circulate air in the bathing enclosure; and an air nozzle (80, 82) disposed on side surfaces of the inner cabinet and configured to discharge air from the air blower to an inside of the bathing enclosure, wherein inner exhaust holes configured to exhaust air flowing in the bathing enclosure are defined in an upper surface of the inner cabinet. an outer cabinet that forms an external appearance of the pet bath, the outer cabinet having an open front surface; an inner cabinet provided within the outer cabinet defining a bathing enclosure therein, the inner cabinet having an open front surface; a door configured to open and close the open front surfaces of the outer cabinet and the inner cabinet; a water collection tank disposed under the inner cabinet and defining a space in which washing water is stored; a circulation pump configured to pump the washing water stored in the water collection tank; a lower nozzle disposed at a lower portion of the bathing enclosure and configured to spray the washing water pumped by the circulation pump to the bathing enclosure; an upper nozzle disposed above the lower nozzle and configured to spray the washing water pumped by the circulation pump to the bathing enclosure; a stand disposed between the lower nozzle and the upper nozzle and configured to support a pet thereon, the stand being configured to drain washing water therethrough; a circulation water filter configured to filter washing water flowing from the bathing enclosure to the water collection tank; an air blower disposed below the inner cabinet and configured to circulate air in the bathing enclosure; and an air nozzle (80, 82) disposed on side surfaces of the inner cabinet and configured to discharge air from the air blower to an inside of the bathing enclosure, wherein inner exhaust holes configured to exhaust air flowing in the bathing enclosure are defined in an upper surface of the inner cabinet.
An arrangement (A1; A2; A3) for mounting a boil-off pipe of a liquefied gas fuel system to a vehicle, said vehicle having a tiltable cab, said fuel system having a chassis-mounted liquefied gas fuel tank for providing fuel to the engine of the vehicle, wherein evaporated gas is arranged to be evacuated from said tank via said boil-off pipe at a certain tank pressure, said boil-off pipe being arranged in connection to a rear side of the cab via a connection arrangement (30; 130; 230) of said arrangement (A1; A2; A3), characterized in that said boil-off pipe is attached to the rear side of the cab, wherein said connection arrangement (30; 130; 230) comprises a coupling configuration (32; 132; 232) for connecting the tank with the boil-off pipe in a non-tilted position of the cab and disconnecting the tank from the boil-off pipe in connection to the cab being tilted, wherein the coupling configuration (32; 132; 232) in said non-tilted position of the cab is arranged to be connected to a cab tilting operation arrangement (40; 140; 240) so as to prevent tilting of said cab.
An implantable stimulator device comprising a plurality of first electrodes (E1-E16) and a plurality of second electrodes (E17-E32) configured to provide stimulation to a patient's tissue, comprising: a first integrated circuit comprising a first stimulation circuitry block configured to provide a stimulation current to only the plurality of first electrodes; a second integrated circuit comprising a second stimulation circuitry block configured to provide a stimulation current to only the plurality of second electrodes; and a conductive case for housing the first and second integrated circuits; wherein each of the first and second electrodes are operable as either an anode or a cathode, and wherein any of the first electrodes is selectable to operate as an anode or as cathode, and wherein any of the second electrodes is selectable to simultaneously operate as the other of the anode or cathode, to pass a stimulation current from the anode to the cathode. a first integrated circuit comprising a first stimulation circuitry block configured to provide a stimulation current to only the plurality of first electrodes; a second integrated circuit comprising a second stimulation circuitry block configured to provide a stimulation current to only the plurality of second electrodes; and a conductive case for housing the first and second integrated circuits; wherein each of the first and second electrodes are operable as either an anode or a cathode, and wherein any of the first electrodes is selectable to operate as an anode or as cathode, and wherein any of the second electrodes is selectable to simultaneously operate as the other of the anode or cathode, to pass a stimulation current from the anode to the cathode.
Rotary valve for a motor vehicle cooling circuit, comprising - a control body for controlling a flow cross section between a first valve connection and a second valve connection, which is arranged orthogonally to a longitudinal axis of the control body, said control body having a cylindrical outer contour, and - a sealing element arranged at the second valve connection between the control body and a connection branch, characterized in that in a non-assembled state, the sealing element is formed as a sealing ring curved complementarily to the outer contour of the control body, said sealing ring having a first sealing leg and a second sealing leg integrally connected with each other at a leg base, wherein, in the assembled state of the sealing element, the first sealing leg abuts on the outer contour of the control body by a leg side surface facing the control body, and the second sealing leg abuts on the connection branch by a leg side surface averted from the control body, wherein a spring element is arranged axially between the first sealing leg and the second sealing leg for the axial biasing of the sealing element, said spring element being configured as a spring ring curved complementarily to the cylindrical outer contour of the control body. - a control body for controlling a flow cross section between a first valve connection and a second valve connection, which is arranged orthogonally to a longitudinal axis of the control body, said control body having a cylindrical outer contour, and - a sealing element arranged at the second valve connection between the control body and a connection branch,