mhurhangee/ep-ind-claims huggingface dataset:
An electronic device comprising: a power receiver including a receiver coil configured to receive a power signal from a wireless power transmitting device and a wireless charging integrated circuit configured to convert the power signal into electrical energy; a power management circuit electrically connected to the power receiver and configured to charge a battery using the electrical energy; and a processor electrically connected with the power receiver and the power management circuit, wherein the processor is configured to activate a power hold mode, in which transmission of the power signal from the wireless power transmitting device to the electronic device is to be held for at least a specific time, if a charging level of the battery is a fully charged level and allow the power receiver to transmit a charging hold message representing that the power hold mode is activated to the wireless power transmitting device, wherein the power receiver is configured to receive a charging hold message indicating that a predetermined time has elapsed in the power hold mode from the wireless power transmitting device in an active state of the power hold mode, and wherein the processor is configured to control auxiliary charging of the battery based on a current charging level of the battery, in response to receiving the charging hold message. a power receiver including a receiver coil configured to receive a power signal from a wireless power transmitting device and a wireless charging integrated circuit configured to convert the power signal into electrical energy; a power management circuit electrically connected to the power receiver and configured to charge a battery using the electrical energy; and a processor electrically connected with the power receiver and the power management circuit, wherein the processor is configured to activate a power hold mode, in which transmission of the power signal from the wireless power transmitting device to the electronic device is to be held for at least a specific time, if a charging level of the battery is a fully charged level and allow the power receiver to transmit a charging hold message representing that the power hold mode is activated to the wireless power transmitting device, wherein the power receiver is configured to receive a charging hold message indicating that a predetermined time has elapsed in the power hold mode from the wireless power transmitting device in an active state of the power hold mode, and wherein the processor is configured to control auxiliary charging of the battery based on a current charging level of the battery, in response to receiving the charging hold message.
Dishwasher, in particular household dishwasher, having at least one mechanism for modifying odour, characterised in that the mechanism for modifying odour comprises at least one ozone generator and a system for fragrance introduction, and the dishwasher has a control device, in which a process is stored, which firstly provides for the odour neutralisation by means of the ozone generator and then the introduction of the new fragrance by means of the system for fragrance introduction. characterised in that the mechanism for modifying odour comprises at least one ozone generator and a system for fragrance introduction, and the dishwasher has a control device, in which a process is stored, which firstly provides for the odour neutralisation by means of the ozone generator and then the introduction of the new fragrance by means of the system for fragrance introduction.
Method for producing and machining a cylindrical hollow body consisting of aluminium or an aluminium alloy and for arranging said hollow body in a motor vehicle transmission, wherein the hollow body is produced by means of a casting process in such a way that the hollow body has an inner and an outer lateral surface (21, 22) and has an internal tooth system in at least one subregion (23, 23') of the inner lateral surface, wherein, for machining, the hollow body is centrally clamped, and wherein the hollow body is arranged in the vehicle transmission exclusively by means of tooth flanks of the internal tooth system, characterized in that the hollow body is clamped centrally exclusively on a tip circle diameter of the internal tooth system (24, 24').
A solventless silicone composition comprising an organopolysiloxane having a viscosity at 25 degrees C of 25 to 50,000 mPa·s, wherein the solventless silicone composition further comprises a silicone mist inhibitor in an amount of 0.1 to 10 parts by mass, relative to 100 parts by mass of said organopolysiloxane, said silicone mist inhibitor comprising at least one selected from silicone elastomer particles, polyorganosilsesquioxane particles and silicone elastomer particles whose surfaces are covered with a polyorganosilsesquioxane, wherein the particles have a volume average particle size of 100 to 4000 nm as determined by a laser diffraction-scattering method.
An electroluminescent substrate comprising: a gate insulating film; a transistor (20, 30); an electroluminescent element; a capacitor section; and a protective layer, a semiconductor layer (22, 32) of the transistor (20, 30), a lower part electrode of the electroluminescent element, and an upper part electrode of the capacitor section being provided on the gate insulating film, and the protective layer being provided over the semiconductor layer (22, 32) of the transistor (20, 30), the lower part electrode of the electroluminescent element, and the upper part electrode of the capacitor section, the protective layer having an opening (17a, 17b) through which the lower part electrode of the electroluminescent element and the upper part electrode of the capacitor section are exposed, the semiconductor layer (22, 32) of the transistor (20, 30) being an oxide semiconductor layer, and each of the lower part electrode of the electroluminescent element and the upper part electrode of the capacitor section being a reduction electrode which has been made by reducing the oxide semiconductor layer provided on the gate insulating film. a gate insulating film; a transistor (20, 30); an electroluminescent element; a capacitor section; and a protective layer, a semiconductor layer (22, 32) of the transistor (20, 30), a lower part electrode of the electroluminescent element, and an upper part electrode of the capacitor section being provided on the gate insulating film, and the protective layer being provided over the semiconductor layer (22, 32) of the transistor (20, 30), the lower part electrode of the electroluminescent element, and the upper part electrode of the capacitor section, the protective layer having an opening (17a, 17b) through which the lower part electrode of the electroluminescent element and the upper part electrode of the capacitor section are exposed, the semiconductor layer (22, 32) of the transistor (20, 30) being an oxide semiconductor layer, and each of the lower part electrode of the electroluminescent element and the upper part electrode of the capacitor section being a reduction electrode which has been made by reducing the oxide semiconductor layer provided on the gate insulating film.
A wireless power receiver, comprising: a conductor configured to receive wireless power in form of induced current from a wireless power transmitter; a power processing unit configured to process the wireless power received from the conductor; a first connecting unit configured to connect a first point of the conductor to the power processing unit; and a second connecting unit configured to connect a second point of the conductor to the power processing unit; wherein the conductor is implemented as a metal case of the wireless power receiver and comprises a main slit which is a cutout portion within the conductor, for allowing the induced current to flow from the first point to the second point in a path substantially in the form of a loop. a conductor configured to receive wireless power in form of induced current from a wireless power transmitter; a power processing unit configured to process the wireless power received from the conductor; a first connecting unit configured to connect a first point of the conductor to the power processing unit; and a second connecting unit configured to connect a second point of the conductor to the power processing unit; wherein the conductor is implemented as a metal case of the wireless power receiver and comprises a main slit which is a cutout portion within the conductor, for allowing the induced current to flow from the first point to the second point in a path substantially in the form of a loop.
An image acquisition device for obtaining images of an object for each light source (251;252;253) in a state where the object is successively irradiated with light from N, N being a natural number equal to or greater than 2, light sources having mutually different irradiation directions, the device comprising: a mover configured to move the object in a first direction; an imager comprising a single imaging element having a strip-like imaging area extending in a second direction orthogonal to the first direction, wherein the imager is configured to obtain a partial image of the object by imaging a partial area of the object passing through the imaging area; a light source switch controller configured to successively switch the light to be irradiated to the object every time the object is moved in the first direction by a unit distance (ΔD)obtained by dividing a size of the imaging area in the first direction by the number N of the light sources (251;252;253); a storage configured to store the partial images obtained by the imager every time the light is switched; wherein each partial image includes N image parts whose size in the first direction is equal to the unit distance (ΔD); and an object image acquisitor configured to obtain N images of the object by combining partial images obtained respectively for each light source so as to obtain N composite images; and deleting, from each composite image, the image parts of the partial images representing a portion of the object irradiated by less than N light sources. a mover configured to move the object in a first direction; an imager comprising a single imaging element having a strip-like imaging area extending in a second direction orthogonal to the first direction, wherein the imager is configured to obtain a partial image of the object by imaging a partial area of the object passing through the imaging area; a light source switch controller configured to successively switch the light to be irradiated to the object every time the object is moved in the first direction by a unit distance (ΔD)obtained by dividing a size of the imaging area in the first direction by the number N of the light sources (251;252;253); a storage configured to store the partial images obtained by the imager every time the light is switched; wherein each partial image includes N image parts whose size in the first direction is equal to the unit distance (ΔD); and an object image acquisitor configured to obtain N images of the object by combining partial images obtained respectively for each light source so as to obtain N composite images; and deleting, from each composite image, the image parts of the partial images representing a portion of the object irradiated by less than N light sources.
Power switching circuit, the circuit comprising: - a transformer having a primary winding and a secondary winding, - a power switch having a control gate in electrical connection with the secondary winding of the transformer, - a switching element configured to provide switching on and off of an electrical current in the primary winding of the transformer, characterised by: - the transformer being a planar transformer, - flyback switching circuitry configured to, in response to a control signal, send a turn-on electrical pulse by: - controlling the switching element to switch on, to build up a primary current in the primary winding, and then - controlling the switching element to switch off, to dump the energy stored in the transformer in the secondary winding inducing the turn-on electrical pulse in the control gate to turn the power switch on. - a transformer having a primary winding and a secondary winding, - a power switch having a control gate in electrical connection with the secondary winding of the transformer, - a switching element configured to provide switching on and off of an electrical current in the primary winding of the transformer, characterised by: - the transformer being a planar transformer, - flyback switching circuitry configured to, in response to a control signal, send a turn-on electrical pulse by: - controlling the switching element to switch on, to build up a primary current in the primary winding, and then - controlling the switching element to switch off, to dump the energy stored in the transformer in the secondary winding inducing the turn-on electrical pulse in the control gate to turn the power switch on. - the transformer being a planar transformer, - flyback switching circuitry configured to, in response to a control signal, send a turn-on electrical pulse by: - controlling the switching element to switch on, to build up a primary current in the primary winding, and then - controlling the switching element to switch off, to dump the energy stored in the transformer in the secondary winding inducing the turn-on electrical pulse in the control gate to turn the power switch on. - controlling the switching element to switch on, to build up a primary current in the primary winding, and then - controlling the switching element to switch off, to dump the energy stored in the transformer in the secondary winding inducing the turn-on electrical pulse in the control gate to turn the power switch on.
An electromagnetic surgical ablation system, comprising: a generator module configured to provide radiofrequency surgical energy; a processor operably coupled to the generator module; a database in operable communication with the processor and adapted to store probe parameters corresponding to at least one antenna probe; and a user interface operably coupled to the processor, wherein the user interface in configured to: display at least one patient image; receive a shape selection user input; and superimpose on the at least one patient image a probe image including an antenna probe ablation pattern associated with the selected shape: wherein the user interface is configured to receive at least one temporal user input; and wherein in response to said at least one temporal user input, the user interface is configured to display a change in an ablation pattern with respect to time. a generator module configured to provide radiofrequency surgical energy; a processor operably coupled to the generator module; a database in operable communication with the processor and adapted to store probe parameters corresponding to at least one antenna probe; and a user interface operably coupled to the processor, wherein the user interface in configured to: display at least one patient image; receive a shape selection user input; and superimpose on the at least one patient image a probe image including an antenna probe ablation pattern associated with the selected shape: wherein the user interface is configured to receive at least one temporal user input; and wherein in response to said at least one temporal user input, the user interface is configured to display a change in an ablation pattern with respect to time. display at least one patient image; receive a shape selection user input; and superimpose on the at least one patient image a probe image including an antenna probe ablation pattern associated with the selected shape: wherein the user interface is configured to receive at least one temporal user input; and wherein in response to said at least one temporal user input, the user interface is configured to display a change in an ablation pattern with respect to time. wherein the user interface is configured to receive at least one temporal user input; and wherein in response to said at least one temporal user input, the user interface is configured to display a change in an ablation pattern with respect to time.
A method of attaching foamed polymeric material to at least one fabric layer, the method comprising: providing a first mold comprising at least one first cavity and at least one material injection channel in fluid communication with the at least one first cavity; disposing at least one fabric layer over the at least one first cavity; closing the first mold; injecting unfoamed polymeric material into the at least one first cavity through the at least one material injection channel, wherein the unfoamed polymeric material penetrates at least a portion of the fabric layer proximate the at least one first cavity to attach the polymeric material to the fabric layer; and foaming the unfoamed polymeric material to fixedly set the foamed polymeric material in the at least one fabric layer, wherein foaming the unfoamed polymeric material comprises: removing the fabric and attached unfoamed polymeric material from the first mold; providing a second mold comprising at least one second cavity, the at least one second cavity comprising a volume greater than that of the at least one first cavity; placing the fabric layer and attached unfoamed material into second mold such that the unfoamed polymeric material extends into the at least one second cavity; closing the second mold; and foaming the unfoamed polymeric material within the second cavity.. providing a first mold comprising at least one first cavity and at least one material injection channel in fluid communication with the at least one first cavity; disposing at least one fabric layer over the at least one first cavity; closing the first mold; injecting unfoamed polymeric material into the at least one first cavity through the at least one material injection channel, wherein the unfoamed polymeric material penetrates at least a portion of the fabric layer proximate the at least one first cavity to attach the polymeric material to the fabric layer; and foaming the unfoamed polymeric material to fixedly set the foamed polymeric material in the at least one fabric layer, wherein foaming the unfoamed polymeric material comprises: removing the fabric and attached unfoamed polymeric material from the first mold; providing a second mold comprising at least one second cavity, the at least one second cavity comprising a volume greater than that of the at least one first cavity; placing the fabric layer and attached unfoamed material into second mold such that the unfoamed polymeric material extends into the at least one second cavity; closing the second mold; and foaming the unfoamed polymeric material within the second cavity.. removing the fabric and attached unfoamed polymeric material from the first mold; providing a second mold comprising at least one second cavity, the at least one second cavity comprising a volume greater than that of the at least one first cavity; placing the fabric layer and attached unfoamed material into second mold such that the unfoamed polymeric material extends into the at least one second cavity; closing the second mold; and foaming the unfoamed polymeric material within the second cavity..
A refrigeration and air-conditioning apparatus comprising: a refrigerant circuit formed by connecting, in sequence, a compressor, a condenser (23, 42), an expansion valve, an evaporator (42, 23), and a liquid reserve container to one another by pipes; a temperature sensor (36a-36c) that measures a surface temperature of the liquid reserve container; and a controller that is configured such that, during operation of the refrigeration and air-conditioning apparatus, it varies a pressure or a temperature inside the liquid reserve container leading to a variation of the surface temperature of the liquid reserve container, wherein the controller is configured to detect a liquid level position inside the liquid reserve container, based on a measured value of the temperature sensor (36a-36c), which is obtained when a specified period of time has passed after said varying a pressure or a temperature inside the liquid reserve container; wherein the controller is configured to determine that the measured value indicates a liquid portion when an absolute value of a difference between a threshold and the measured value is smaller than a margin (α), the threshold being a saturation temperature of a low-pressure side pressure. a refrigerant circuit formed by connecting, in sequence, a compressor, a condenser (23, 42), an expansion valve, an evaporator (42, 23), and a liquid reserve container to one another by pipes; a temperature sensor (36a-36c) that measures a surface temperature of the liquid reserve container; and a controller that is configured such that, during operation of the refrigeration and air-conditioning apparatus, it varies a pressure or a temperature inside the liquid reserve container leading to a variation of the surface temperature of the liquid reserve container, wherein the controller is configured to detect a liquid level position inside the liquid reserve container, based on a measured value of the temperature sensor (36a-36c), which is obtained when a specified period of time has passed after said varying a pressure or a temperature inside the liquid reserve container; wherein the controller is configured to determine that the measured value indicates a liquid portion when an absolute value of a difference between a threshold and the measured value is smaller than a margin (α), the threshold being a saturation temperature of a low-pressure side pressure.
A carton for holding reams of cut sheets of paper, wherein said carton comprises: a bottom wall, opposite side walls (12, 13), and opposite end walls (14, 15); a hand hole (30, 31, 45) in each of said end walls (14, 15); and a spacer panel which when in use is inserted in said carton between said reams of cut sheets of paper, said spacer panel having cut outs in opposite ends thereof, said cut outs being behind and in registry with said hand holes (30, 31, 45) which when in use provide space for fingers inserted through said hand holes (30, 31, 45), characterized in that said spacer panel has width and length dimensions to fit closely within the width and length dimensions of the interior of the carton. a bottom wall, opposite side walls (12, 13), and opposite end walls (14, 15); a hand hole (30, 31, 45) in each of said end walls (14, 15); and a spacer panel which when in use is inserted in said carton between said reams of cut sheets of paper, said spacer panel having cut outs in opposite ends thereof, said cut outs being behind and in registry with said hand holes (30, 31, 45) which when in use provide space for fingers inserted through said hand holes (30, 31, 45), characterized in that said spacer panel has width and length dimensions to fit closely within the width and length dimensions of the interior of the carton.
A detector for electromagnetic radiation, particularly an X-ray and/or gamma detector, comprising: - a first, pixelated electrode layer comprising a multitude of electrode pixels, - a first layer comprising a multitude of tiles comprising a material absorbing and converting the electromagnetic radiation, wherein the first layer comprises gaps between the tiles, wherein the gaps are filled with a material comprising at least a first semiconductor and/or at least a first perovskite, and - a second electrode layer. - a first, pixelated electrode layer comprising a multitude of electrode pixels, - a first layer comprising a multitude of tiles comprising a material absorbing and converting the electromagnetic radiation, wherein the first layer comprises gaps between the tiles, wherein the gaps are filled with a material comprising at least a first semiconductor and/or at least a first perovskite, and - a second electrode layer.