mhurhangee/patent-ind-claim-en huggingface dataset:
Device for hyperthermal treatment of itching, comprising a) a treatment surface b) at least one heating plate and b) a control device to regulate the temperature of the treatment surface wherein the control device is configured to regulate the temperature of the at least one heating plate such that in a heating phase, the treatment surface is regulated to a treatment temperature between 42° C und 53° C, and characterized in that in a treatment phase, the treatment temperature is maintained continuously for a duration of 4 seconds to 6 seconds and wherein the size of the treatment surface is between 6 cm 2 and 18 cm 2 . a) a treatment surface b) at least one heating plate and b) a control device to regulate the temperature of the treatment surface wherein the control device is configured to regulate the temperature of the at least one heating plate such that in a heating phase, the treatment surface is regulated to a treatment temperature between 42° C und 53° C, and characterized in that in a treatment phase, the treatment temperature is maintained continuously for a duration of 4 seconds to 6 seconds and wherein the size of the treatment surface is between 6 cm 2 and 18 cm 2 .
A cooling apparatus comprising: a compressor including a casing and a compression unit formed inside the casing; a condenser for condensing a refrigerant discharged from the compressor; an expansion device for expanding the refrigerant discharged from the condenser; and an evaporator for evaporating the refrigerant discharged from the expansion device and delivering the refrigerant to the compressor, wherein the compressor comprises a rotary compressor having a displacement volume less than about 3cc, and wherein the refrigerant circulating inside the cooling apparatus includes at least one of R290, R600a, R123a, R1234yf, and R1234ze, wherein the compression unit includes at least one cylinder , and plates arranged on a top and bottom of the at least one cylinder to form at least one compression room, and wherein the compression unit includes at least four separate spot welds for combining the compression unit to an internal part of the casing, located on at least one of the plates and/or the at least one cylinder. a compressor including a casing and a compression unit formed inside the casing; a condenser for condensing a refrigerant discharged from the compressor; an expansion device for expanding the refrigerant discharged from the condenser; and an evaporator for evaporating the refrigerant discharged from the expansion device and delivering the refrigerant to the compressor, wherein the compressor comprises a rotary compressor having a displacement volume less than about 3cc, and wherein the refrigerant circulating inside the cooling apparatus includes at least one of R290, R600a, R123a, R1234yf, and R1234ze, wherein the compression unit includes at least one cylinder , and plates arranged on a top and bottom of the at least one cylinder to form at least one compression room, and wherein the compression unit includes at least four separate spot welds for combining the compression unit to an internal part of the casing, located on at least one of the plates and/or the at least one cylinder.
MEMS microphone (MM), comprising - a carrier (TR), - a cap (KP) on the carrier (TR), which at least partially encloses a cavity, - a MEMS chip (MC) in the cavity, - a sound opening (SO) in the cap (KP), - a rear volume (RV), - a channel (K), which connects the sound opening (SO) to the MEMS chip (MC) and acoustically insulates it from the rear volume (RV), wherein - the channel (K) comprises a heterogeneous material (HM), which consists of at least two different components with different thermomechanical properties, characterized in that - the heterogeneous material (HM) comprises a first component as matrix (M) and a second component with elements (KG) embedded in the matrix, - the first component comprises a thermoplastic material, an elastomer and/or a silicone gel, - the second component comprises polymer beads (KG), - the matrix material (M) has a thermal hardening mechanism which is activated above that temperature at which the expansion of the second component is activated. - a carrier (TR), - a cap (KP) on the carrier (TR), which at least partially encloses a cavity, - a MEMS chip (MC) in the cavity, - a sound opening (SO) in the cap (KP), - a rear volume (RV), - a channel (K), which connects the sound opening (SO) to the MEMS chip (MC) and acoustically insulates it from the rear volume (RV), - the channel (K) comprises a heterogeneous material (HM), which consists of at least two different components with different thermomechanical properties, characterized in that - the heterogeneous material (HM) comprises a first component as matrix (M) and a second component with elements (KG) embedded in the matrix, - the first component comprises a thermoplastic material, an elastomer and/or a silicone gel, - the second component comprises polymer beads (KG), - the matrix material (M) has a thermal hardening mechanism which is activated above that temperature at which the expansion of the second component is activated.
A compact weapon sight, comprising: a housing having a base configured to mount to a weapon; a holographic optical element, H.O.E., the H.O.E. supported by the housing; a laser diode light source being a vertical-cavity surface emitting laser, VCSEL, diode operable in use to emit a beam of light at an output wavelength when energized, the laser diode illuminating the H.O.E.; and a power source operable in use to energize the laser diode ; characterized by a temperature sensor adapted for sensing a temperature of the laser diode , wherein the temperature sensor is a voltage sensor operable in use to measure a voltage of the laser diode during an off-period of a duty cycle; and an open loop wavelength controller communicating with the temperature sensor , the temperature sensor sensing and communicating the temperature of the laser diode to the wavelength controller, the wavelength controller operable in use to control a current from the power source to the laser diode , the wavelength controller adjusting in use the current based on a change in the temperature such that the output wavelength is approximately the same as a desired wavelength. a housing having a base configured to mount to a weapon; a holographic optical element, H.O.E., the H.O.E. supported by the housing; a laser diode light source being a vertical-cavity surface emitting laser, VCSEL, diode operable in use to emit a beam of light at an output wavelength when energized, the laser diode illuminating the H.O.E.; and a power source operable in use to energize the laser diode ; characterized by a temperature sensor adapted for sensing a temperature of the laser diode , wherein the temperature sensor is a voltage sensor operable in use to measure a voltage of the laser diode during an off-period of a duty cycle; and an open loop wavelength controller communicating with the temperature sensor , the temperature sensor sensing and communicating the temperature of the laser diode to the wavelength controller, the wavelength controller operable in use to control a current from the power source to the laser diode , the wavelength controller adjusting in use the current based on a change in the temperature such that the output wavelength is approximately the same as a desired wavelength.
A valve port for a pneumatic force holding unit in a breath actuated metered dose inhaler, said valve port comprising a valve seal surface, which in use is sealably engaged by a movable valve seal, characterised in that the valve seal surface has a surface roughness average (RA) of less than about 0.15 μm.
An electrocatalyst characterized in that the electrocatalyst is a core-shell structure type nanosheet made of a carbon support / metal ruthenium nanosheet core / platinum shell, wherein a metal ruthenium nanosheet is attached to carbon, and a platinum atomic layer is provided as monoatomic layer or as laminated monoatomic layer is provided on the entire surface of the metal ruthenium nanosheet, wherein the metal ruthenium nanosheet is a monoatomic layer metal ruthenium nanosheet.
An article of footwear having an upper and a sole structure secured to the upper, the sole structure comprising a component formed from a first polymer layer and a second polymer layer , the component including a chamber with an interior void that encloses a fluid, at least a portion of the component including a flange that forms a seam for joining the first polymer layer and the second polymer layer and sealing the fluid within the void, the flange extending in an outward direction from the void and having a tapered configuration with a first thickness adjacent to the void and a second thickness spaced away from the void, the first thickness being greater than the second thickness, the chamber including a first group of subchambers (43a-43c) located adjacent to a lateral side of the article of footwear and a second group of subchambers (43d-43f) located adjacent to a medial side of the article of footwear , the first group of subchambers (43a-43c) having at least two parallel segments extending away from the lateral side toward the medial side and the second group of subchambers (43d-43f) having at least two parallel segments extending away from the medial side toward the lateral side , the first group of subchambers (43a-43c) and the second group of subchambers (43d-43f) bounded by a web area where the first polymer layer and the second polymer layer are bonded together, the web area extending between the at least two parallel segments of the first group of subchambers (43a-43c) and between the at least two parallel segments of the second group of subchambers (43d-43f), characterized in that the first group of subchambers (43a-43c) are in fluid communication with one another by a conduit extending along the lateral side of the article of footwear and substantially perpendicular to the at least two parallel segments of the first group of subchambers (43a-43c); and in that the second group of subchambers (43d-43f) are in fluid communication with one another by a conduit extending along the medial side of the article of footwear and substantially perpendicular to the at least two parallel segments of the second group of subchambers (43d-43f).
A combustor panel (110; 210) for a combustor , comprising: a combustion facing surface ; a cooling surface opposite the combustion facing surface ; and heat transfer pins (116; 216) extending from the cooling surface , wherein a first grouping of the heat transfer pins comprises a metallic coating , characterised in that a second forward grouping of the heat transfer pins is free of the metallic coating . a combustion facing surface ; a cooling surface opposite the combustion facing surface ; and heat transfer pins (116; 216) extending from the cooling surface , wherein a first grouping of the heat transfer pins comprises a metallic coating , characterised in that a second forward grouping of the heat transfer pins is free of the metallic coating .
A wireless detonator which includes a control unit , an ignition element , an energy source which is configured to fire the ignition element in response to a signal from the control unit, a communication module , and an energy harvesting unit which harvests energy from an external electromagnetic field which is used to power, at least, the communication module, characterized in that the wireless detonator further includes a sensor which inhibits firing of the ignition element by the energy source and which only allows firing of the ignition element by the energy source if the sensor detects that the sensor is in proximity to a bulk explosive.
The use of a copolymer comprising repeat units derived from at least one first monomer which is selected from the group consisting of N-vinylpyrrolidone (N-vinyl-2-pyrrolidone), N-vinyl-2-piperidone, N-vinyl-3-methylpyrrolidinone, N-vinyl-3-methylpiperidone, N-vinyl-3-methylcaprolactam, N-vinyl-4-methylpyrrolidinone, N-vinyl-4-methyl-2-pyrrolidone, N-vinyl-4-methylpiperidone, N-vinyl-4-methylcaprolactam, N-vinyl-5-methylpyrrolidinone, N-vinyl-5-ethyl-2-pyrrolidone, N-vinyl-4-methylpiperidone, N-vinyl-3-ethylpyrrolidinone, N-vinyl-4,5-dimethylpyrrolidinone, N-vinyl-5,5-dimethylpyrrolidinone, N-vinyl-3,3,5-trimethylpyrrolidinone, N-vinyl-5-methyl-5-ethylpyrrolidinone, N-vinyl-3,4,5-trimethyl-3-ethylpyrrolidinone, N-vinyl-6-methyl-2-piperidone, N-vinyl-6-ethyl-2-piperidone, N-vinyl-3,5-dimethyl-2-piperidone, N-vinyl-4,4-dimethyl-2-piperidone, N-vinyl-2-caprolactam, N-vinyl-7-methylcaprolactam, N-vinyl-7-ethylcaprolactam, N-vinyl-3,5-dimethylcaprolactam, N-vinyl-4,6-dimethylcaprolactam, N-vinyl-3,5,7-trimethylcaprolactam, N-vinyl-2-valerolactam, N-vinylhexahydro-2-azepinone, N-vinyloctahydro-2-azocinone, N-vinyloctahydro-2-azoninone, N-vinyldecahydro-2-azecinone and combinations of these monomers, at least one comonomer which is selected from the group consisting of a monomer comprising at least one phosphoric ester group, a monomer comprising at least one phosphonic acid group, a monomer comprising at least one sulfonic acid group, an ethylenically unsaturated dicarboxylic acid, an ethylenically unsaturated dicarboxylic anhydride and combinations of these monomers, optionally at least one further free-radically polymerizable, ethylenically unsaturated monomer, and optionally at least one crosslinking comonomer having at least two free-radically polymerizable, ethylenically unsaturated groups in the molecule, for stabilization of a peroxidic compound against breakdown, wherein this peroxidic compound is selected from the group consisting of an organic peroxide compound and hydrogen peroxide.
Wind turbine blade , comprising a hollow blade body with a blade root and a base plate arranged at a root-side end section of the blade , which base plate comprises a manhole through which the interior of the blade is accessible, characterized in that the base plate is provided with mounting means arranged at the or close to the manhole and adapted to directly or indirectly mount at least one ladder to the base plate .
A photoelectronic device comprising: a first electrode including a first metal; a second electrode opposing the first electrode; an active layer between the first electrode and the second electrode; a diffusion barrier layer between one side of the first electrode and the active layer, the diffusion barrier layer including a second metal; and a light transmission auxiliary layer on the side of the first electrode opposing its one side, the light transmission auxiliary layer including tungsten oxide, WO x , where 0<x≤3; wherein the second metal has a thermal diffusion coefficient that is lower than a thermal diffusion coefficient of the first metal; wherein the first electrode and the diffusion barrier layer are configured to transmit light; and wherein the first metal is silver (Ag) or a silver alloy, and the second metal is aluminum (Al) or an aluminum alloy. a first electrode including a first metal; a second electrode opposing the first electrode; an active layer between the first electrode and the second electrode; a diffusion barrier layer between one side of the first electrode and the active layer, the diffusion barrier layer including a second metal; and a light transmission auxiliary layer on the side of the first electrode opposing its one side, the light transmission auxiliary layer including tungsten oxide, WO x , where 0<x≤3; wherein the second metal has a thermal diffusion coefficient that is lower than a thermal diffusion coefficient of the first metal; wherein the first electrode and the diffusion barrier layer are configured to transmit light; and wherein the first metal is silver (Ag) or a silver alloy, and the second metal is aluminum (Al) or an aluminum alloy.
A magnetic field generating device comprising: a superconducting coil formed by winding a superconductive wire material; and a protection circuit which is connected in parallel with the superconducting coil and attenuates a current flowing through the superconducting coil; wherein the magnetic field generating device further comprises an unseparated conductor plate which comprises an electric conductor and is placed such that the conductor plate is insulated from the superconducting coil and is adjacent to the superconducting coil in a winding axis direction of the superconducting coil, and one of main surfaces of the conductor plate faces the superconducting coil; wherein the unseparated conductor plate is formed of at least one material which is selected from the group consisting of oxygen-free copper, pure aluminum, pure gold, and pure silver and has a residual resistance ratio of 100 or more; wherein the unseparated conductor plate covers an entire surface of the superconducting coil when viewed from the winding axis direction of the superconducting coil; and wherein one said unseparated conductor plate is located on each of both sides of the superconducting coil in the winding axis direction of the superconducting coil. a superconducting coil formed by winding a superconductive wire material; and a protection circuit which is connected in parallel with the superconducting coil and attenuates a current flowing through the superconducting coil; wherein the magnetic field generating device further comprises an unseparated conductor plate which comprises an electric conductor and is placed such that the conductor plate is insulated from the superconducting coil and is adjacent to the superconducting coil in a winding axis direction of the superconducting coil, and one of main surfaces of the conductor plate faces the superconducting coil; wherein the unseparated conductor plate is formed of at least one material which is selected from the group consisting of oxygen-free copper, pure aluminum, pure gold, and pure silver and has a residual resistance ratio of 100 or more; wherein the unseparated conductor plate covers an entire surface of the superconducting coil when viewed from the winding axis direction of the superconducting coil; and wherein one said unseparated conductor plate is located on each of both sides of the superconducting coil in the winding axis direction of the superconducting coil.
An aircraft , comprising: fuselage having a nose , a main section aft of the nose in an axial direction and a tail aft of the main section in the axial direction; an engine nacelle partially embedded in the tail and comprising a boundary layer ingestion (BLI) propulsor with an inlet directly adjacent to the fuselage; and a nozzle element disposed upstream from the inlet; characterised in that the nozzle element is configured to accelerate boundary flows flowing toward an interior side of the engine nacelle; and in that the nozzle element has a step-wise curvature along the axial direction and an annular curvature about a longitudinal axis of the fuselage. fuselage having a nose , a main section aft of the nose in an axial direction and a tail aft of the main section in the axial direction; an engine nacelle partially embedded in the tail and comprising a boundary layer ingestion (BLI) propulsor with an inlet directly adjacent to the fuselage; and a nozzle element disposed upstream from the inlet; characterised in that the nozzle element is configured to accelerate boundary flows flowing toward an interior side of the engine nacelle; and in that the nozzle element has a step-wise curvature along the axial direction and an annular curvature about a longitudinal axis of the fuselage.
A laundry treating apparatus comprising a cabinet , a drum rotatably housed inside the cabinet , a wireless power transmitter unit associated to said cabinet separately from said drum and arranged for wireless transmitting electric power to a wireless power receiver unit mounted in/on said drum , said laundry treating apparatus comprising one or more electromechanical actuators mounted in/on said drum , wherein said wireless power receiver unit supplies power to said one or more electromechanical actuators , wherein said wireless power transmitter unit comprises a transmission coil generating a magnetic field, characterized in that said wireless power receiver unit comprises a reception coil generating power from the magnetic field generated by said transmission coil and supplying the generated power to said one or more electromechanical actuators , wherein said transmission coil and said reception coil are aligned, centered and parallel in radial direction, said transmission coil and said reception coil have a common radius dimension approximately equal to said drum external radius and are distanced in axial direction by a distance lower than their radius. wherein said wireless power transmitter unit comprises a transmission coil generating a magnetic field, characterized in that said wireless power receiver unit comprises a reception coil generating power from the magnetic field generated by said transmission coil and supplying the generated power to said one or more electromechanical actuators , wherein said transmission coil and said reception coil are aligned, centered and parallel in radial direction, said transmission coil and said reception coil have a common radius dimension approximately equal to said drum external radius and are distanced in axial direction by a distance lower than their radius.
A method for preventing the unauthorized copying of content items stored on a mobile device using keys associated with each content item comprising: receiving a request to read data associated with a content item by a mobile device, wherein the data is encrypted and stored in removable storage associated with the mobile device; determining that the request to read the data is authorized by the mobile device; in response to determining that request to read the data is authorized, determining a key associated with the content item by the mobile device; decrypting the data associated with the content item using the key by the mobile device; and providing the decrypted data by the mobile device; wherein determining a key associated with the content item comprises determining a region of non-removable storage associated with the mobile device, and retrieving the key from the region of non-removable storage associated with the mobile device; the content item key is stored in the non-removable storage in a content item folder ; and the content item folder used to store the content item key has the same name or identifier as a content item folder used to store the corresponding encrypted content item data in the removable storage ; wherein the file structure of the content item folders used to store the content item keys on the non-removable storage mirrors the file structure of the content item folders used to store the encrypted content item data on the removable storage. receiving a request to read data associated with a content item by a mobile device, wherein the data is encrypted and stored in removable storage associated with the mobile device; determining that the request to read the data is authorized by the mobile device; in response to determining that request to read the data is authorized, determining a key associated with the content item by the mobile device; decrypting the data associated with the content item using the key by the mobile device; and providing the decrypted data by the mobile device; wherein determining a key associated with the content item comprises determining a region of non-removable storage associated with the mobile device, and retrieving the key from the region of non-removable storage associated with the mobile device; the content item key is stored in the non-removable storage in a content item folder ; and the content item folder used to store the content item key has the same name or identifier as a content item folder used to store the corresponding encrypted content item data in the removable storage ; wherein the file structure of the content item folders used to store the content item keys on the non-removable storage mirrors the file structure of the content item folders used to store the encrypted content item data on the removable storage.