mhurhangee/ep-ind-claims huggingface dataset:
A triboelectric nanogenerator that collects mechanical energy of liquid, comprising: an insulating substrate; an electricity generation component that consists of a first electrode layer (21; 210) and a second electrode layer (22; 220), wherein the first electrode layer (21; 210) and the second electrode layer (22; 220) are separately disposed on the substrate and electrically connected to each other; and a friction layer that covers the electricity generation component such that the first electrode layer (21; 210) and the second electrode layer (22; 220) of the electricity generation component are isolated from the liquid, characterized in that, the triboelectric nanogenerator further comprises the liquid; and the liquid frictionates with the friction layer when the liquid fluctuates or flows, such that a surface of the friction layer in contact with the liquid carries charges, and wherein the charges on the surface of the friction layer corresponding to the two electrode layers are sequentially shielded by ions in the liquid as the liquid fluctuates or flows, causing the electrostatic effects of the charges carried on the surface of the friction layer on the electrons in the first electrode layer (21; 210) different from those on the electrons in the second electrode layer (22; 220), which results in a flow of induced charges between the first electrode layer (21; 210) and the second electrode layer (22; 220). an insulating substrate; an electricity generation component that consists of a first electrode layer (21; 210) and a second electrode layer (22; 220), wherein the first electrode layer (21; 210) and the second electrode layer (22; 220) are separately disposed on the substrate and electrically connected to each other; and a friction layer that covers the electricity generation component such that the first electrode layer (21; 210) and the second electrode layer (22; 220) of the electricity generation component are isolated from the liquid, characterized in that, the triboelectric nanogenerator further comprises the liquid; and the liquid frictionates with the friction layer when the liquid fluctuates or flows, such that a surface of the friction layer in contact with the liquid carries charges, and wherein the charges on the surface of the friction layer corresponding to the two electrode layers are sequentially shielded by ions in the liquid as the liquid fluctuates or flows, causing the electrostatic effects of the charges carried on the surface of the friction layer on the electrons in the first electrode layer (21; 210) different from those on the electrons in the second electrode layer (22; 220), which results in a flow of induced charges between the first electrode layer (21; 210) and the second electrode layer (22; 220).
A pixel array comprising: a plurality of pixels (P1, P2, P3, P4), wherein each of the pixels (P1; P2; P3; P4) comprises four sub-pixels (R11, G11, B11, B12; R21, G21, B21, B22; R31, G31, B31, B32; R41, G41, B41, B42), the four sub-pixels (R11, G11, B11, B12; R21, G21, B21, B22; R31, G31, B31, B32; R41, G41, B41, B42) are of the same size and all in a shape of an isosceles trapezoid, characterized in that: the four sub-pixels (R11, G11, B11, B12; R21, G21, B21, B22; R31, G31, B31, B32; R41, G41, B41, B42) are arranged into a form of half of a regular hexagon. a plurality of pixels (P1, P2, P3, P4), wherein each of the pixels (P1; P2; P3; P4) comprises four sub-pixels (R11, G11, B11, B12; R21, G21, B21, B22; R31, G31, B31, B32; R41, G41, B41, B42), the four sub-pixels (R11, G11, B11, B12; R21, G21, B21, B22; R31, G31, B31, B32; R41, G41, B41, B42) are of the same size and all in a shape of an isosceles trapezoid, characterized in that: the four sub-pixels (R11, G11, B11, B12; R21, G21, B21, B22; R31, G31, B31, B32; R41, G41, B41, B42) are arranged into a form of half of a regular hexagon.
A binding machine for gardening comprising: a main handle; a clincher arm that is rotatably attached to the main handle; a tape guide that is configured to draw out and guide a tape at a front end portion of the main handle; a tape gripping device that is configured to grip an end portion of the tape drawn out from the tape guide, at a front end portion of the clincher arm; and a cutting blade that is configured to cut the tape, wherein the tape gripping device includes a gripping member that operates to grip the tape, characterized in that the tape guide is swingably attached to the main handle such that a position of the tape guide when the tape gripping device operates to grip the end portion of the tape and a position of the tape guide when the cutting blade operates to cut the tape are different from each other, and is configured to move while holding the tape so as to apply a tension to the tape to be cut by the cutting blade, and the tape guide is configured to be guided and to move by the gripping member. a main handle; a clincher arm that is rotatably attached to the main handle; a tape guide that is configured to draw out and guide a tape at a front end portion of the main handle; a tape gripping device that is configured to grip an end portion of the tape drawn out from the tape guide, at a front end portion of the clincher arm; and a cutting blade that is configured to cut the tape, wherein the tape gripping device includes a gripping member that operates to grip the tape, characterized in that the tape guide is swingably attached to the main handle such that a position of the tape guide when the tape gripping device operates to grip the end portion of the tape and a position of the tape guide when the cutting blade operates to cut the tape are different from each other, and is configured to move while holding the tape so as to apply a tension to the tape to be cut by the cutting blade, and the tape guide is configured to be guided and to move by the gripping member.
An aircraft environmental control system comprising: a gas turbine engine including a compressor and a primary generator; a supply line coupled to the compressor, wherein a pressure in the supply line is less than a desired pressure in the aircraft environmental control system during idle, and wherein the pressure in the supply line is greater than the desired pressure in the aircraft environmental control system during cruise; a pressure regulating turbomachine located within the supply line; and a motor-generator coupled to the pressure regulating turbomachine and to the primary generator, and wherein the motor-generator is configured to generate energy in response to the pressure in the supply line being greater than the desired pressure; and further comprising a battery configured to store the energy generated by the motor-generator. a gas turbine engine including a compressor and a primary generator; a supply line coupled to the compressor, wherein a pressure in the supply line is less than a desired pressure in the aircraft environmental control system during idle, and wherein the pressure in the supply line is greater than the desired pressure in the aircraft environmental control system during cruise; a pressure regulating turbomachine located within the supply line; and a motor-generator coupled to the pressure regulating turbomachine and to the primary generator, and wherein the motor-generator is configured to generate energy in response to the pressure in the supply line being greater than the desired pressure; and further comprising a battery configured to store the energy generated by the motor-generator.
An apparatus comprising: a first oscillator to generate a first clock signal; a second oscillator to generate a second clock signal; a phase frequency detector to detect phase difference between the first and second clock signals, and to generate a phase difference; an output stage comprising a p-type transistor, connectable to a load, to generate a power supply for the load according to the phase difference, wherein a gate terminal of the p-type transistor is configured to receive the phase difference; and characterized by a feedback mechanism coupled between a terminal of the output stage and an input of the second oscillator, and wherein the first and second oscillators (201, 202) are voltage controlled oscillators, each including: a first chain of delay stages; a second chain of delay stages; and a multiplexer which is operable to select one of the first or second chain of delay stages according to a select signal, wherein the multiplexer and the first and second chain of delay stages are coupled together to form a loop. a first oscillator to generate a first clock signal; a second oscillator to generate a second clock signal; a phase frequency detector to detect phase difference between the first and second clock signals, and to generate a phase difference; an output stage comprising a p-type transistor, connectable to a load, to generate a power supply for the load according to the phase difference, wherein a gate terminal of the p-type transistor is configured to receive the phase difference; and characterized by a feedback mechanism coupled between a terminal of the output stage and an input of the second oscillator, and wherein the first and second oscillators (201, 202) are voltage controlled oscillators, each including: a first chain of delay stages; a second chain of delay stages; and a multiplexer which is operable to select one of the first or second chain of delay stages according to a select signal, wherein the multiplexer and the first and second chain of delay stages are coupled together to form a loop. a first chain of delay stages; a second chain of delay stages; and a multiplexer which is operable to select one of the first or second chain of delay stages according to a select signal, wherein the multiplexer and the first and second chain of delay stages are coupled together to form a loop.
Determining method, at least for determining at least one c-value for an electronic heat cost allocator, characterized by the following method steps: - mounting the electronic heat cost allocator on a radiator, - starting up the radiator, - determining, in particular measuring, an average surface temperature of the radiator and/or determining a feed temperature and a return temperature at the radiator, wherein the feed temperature is determined by determining, in particular measuring, a surface temperature at a feed of the radiator and the return temperature is determined by determining, in particular measuring, a surface temperature at a return of the radiator, - determining, in particular measuring, a room air temperature of a room in which the radiator is arranged, - wherein the aforementioned temperatures are each determined by at least one external thermometer and/or by at least one external temperature sensor, rather than by temperature sensors of the electronic heat cost allocator, - requesting a sensor temperature of at least one temperature sensor of the electronic heat cost allocator, - calculating the at least one c-value, wherein for calculating the at least one c-value - an average heating medium overtemperature is calculated from the average surface temperature and the room air temperature and/or from the feed temperature, the return temperature and the room air temperature, and/or - a logarithmic overtemperature of the radiator is calculated from the feed temperature, the return temperature and the room air temperature. - mounting the electronic heat cost allocator on a radiator, - starting up the radiator, - determining, in particular measuring, an average surface temperature of the radiator and/or determining a feed temperature and a return temperature at the radiator, wherein the feed temperature is determined by determining, in particular measuring, a surface temperature at a feed of the radiator and the return temperature is determined by determining, in particular measuring, a surface temperature at a return of the radiator, - determining, in particular measuring, a room air temperature of a room in which the radiator is arranged, - wherein the aforementioned temperatures are each determined by at least one external thermometer and/or by at least one external temperature sensor, rather than by temperature sensors of the electronic heat cost allocator, - requesting a sensor temperature of at least one temperature sensor of the electronic heat cost allocator, - calculating the at least one c-value, - an average heating medium overtemperature is calculated from the average surface temperature and the room air temperature and/or from the feed temperature, the return temperature and the room air temperature, and/or - a logarithmic overtemperature of the radiator is calculated from the feed temperature, the return temperature and the room air temperature.
A method of making a compound of Formula la: comprising: (a) forming a first reaction mixture comprising a compound of Formula IIa: a non-nucleophilic base, a first solvent, and a compound of Formula IIIa: under conditions suitable to form a compound of Formula IVa: and (b) forming a second reaction mixture comprising the compound of Formula IVa, a second solvent and a reducing agent under conditions suitable to prepare the compound of Formula la, wherein R 1 and R 11 are each independently C 1 -C 6 alkyl; and LG is selected from the group consisting of halogen, -OH, and -OSO 2 R 13, wherein R 13 is selected from the group consisting of C 1 -C 6 alkyl, C 1 -C 6 haloalkyl and aryl, wherein the aryl group is substituted with 1 to 3 R 13a groups each independently selected from the group consisting of C 1 -C 6 alkyl, halogen, and NO 2. (a) forming a first reaction mixture comprising a compound of Formula IIa: a non-nucleophilic base, a first solvent, and a compound of Formula IIIa: under conditions suitable to form a compound of Formula IVa: and (b) forming a second reaction mixture comprising the compound of Formula IVa, a second solvent and a reducing agent under conditions suitable to prepare the compound of Formula la,
A system for treating patient pain, comprising: a controller having instructions to direct first electrical signals in a first frequency range and to direct second electrical signals in a second frequency range; first electrodes electrically coupled to the controller to receive the first signals and configured to be positioned proximate to a first target location of the patient's spinal cord region; and second electrodes electrically coupled to the controller to receive the second electrical signals and configured to be positioned proximate to a second target region of the patient's spinal cord region, characterised in that the first frequency range is up to 1,500 Hz, and the second frequency range is from 2,500 Hz to 100,000 Hz. a controller having instructions to direct first electrical signals in a first frequency range and to direct second electrical signals in a second frequency range; first electrodes electrically coupled to the controller to receive the first signals and configured to be positioned proximate to a first target location of the patient's spinal cord region; and second electrodes electrically coupled to the controller to receive the second electrical signals and configured to be positioned proximate to a second target region of the patient's spinal cord region, characterised in that the first frequency range is up to 1,500 Hz, and the second frequency range is from 2,500 Hz to 100,000 Hz.
A hinge having two elements (12, 20) pivotally connected together for relative rotational movement about a hinge axis, a spring formed of bent wire, and a mechanism for activating the spring to cause it to apply a spring biassing force between the two elements (12, 20) over at least part of their relative rotational movement, the spring being mounted on one of the elements and having a spring finger for transmitting said spring biassing force, with said mechanism including a spreader fitting over the spring finger and being in operative engagement with the other element, with the spreader being arranged to extend continuously over and engage substantially the whole of the finger, characterised in that the spreader is of a channel-shaped construction and is arranged to straddle the spring finger.
Awning comprising a cassette surrounded by an outer casing with a cap on the top and having a frame, said frame comprising housings extending inside the cassette and leading to outside the cassette at the rear side, the awning further comprising a support, characterised in that said support is U-shaped and has at least one plate designed to be fastened to the wall of a building and at least two tie rods constituting the branches of the U and extending perpendicularly in the plane formed by said plate and inserting by sliding inside their respective housings.
OSB wood-based panel with reduced emission of volatile organic compounds (VOCs) comprising - wood strands, wherein the wood strands are obtained by wood disintegration by means of chipping and associated aqueous treatment and purification, wherein the wood strands are treated with saturated water vapour after wood disintegration without drying, the water vapour being passed over the wood strands at a temperature between 80°C and 120°C and a pressure between 0.5 bar and 2 bar, wherein the water vapor treated wood strands or a mixture of water vapor treated wood strands and non-water vapor treated wood strands form a middle layer and/or top layer of the OSB wood-based panel; and at least one polyurethane adhesive as binder, wherein the OSB wood material board has a reduced emission of aldehydes and terpenes released during the wood disintegration, wherein no additives are added to the water vapour, in particular no bleaching agents such as bisulphites or oxygen-releasing substances, and wherein the at least one binder has no VOC scavenger. - wood strands, wherein the wood strands are obtained by wood disintegration by means of chipping and associated aqueous treatment and purification, wherein the wood strands are treated with saturated water vapour after wood disintegration without drying, the water vapour being passed over the wood strands at a temperature between 80°C and 120°C and a pressure between 0.5 bar and 2 bar, wherein the water vapor treated wood strands or a mixture of water vapor treated wood strands and non-water vapor treated wood strands form a middle layer and/or top layer of the OSB wood-based panel; and at least one polyurethane adhesive as binder, wherein the wood strands are obtained by wood disintegration by means of chipping and associated aqueous treatment and purification, wherein the wood strands are treated with saturated water vapour after wood disintegration without drying, the water vapour being passed over the wood strands at a temperature between 80°C and 120°C and a pressure between 0.5 bar and 2 bar, wherein the water vapor treated wood strands or a mixture of water vapor treated wood strands and non-water vapor treated wood strands form a middle layer and/or top layer of the OSB wood-based panel; and at least one polyurethane adhesive as binder,
An imaging element comprising: a plurality of microlenses; a plurality of the pixels provided to correspond to each of the plurality of microlenses and including pixels having photoelectric converting sections that photoelectrically convert light incident thereto via a first filter having a first spectral characteristic, pixels having photoelectric converting sections that photoelectrically convert light incident thereto via a second filter having a second spectral characteristic, and pixels having photoelectric converting sections that photoelectrically convert light incident thereto via a third filter having a third spectral characteristic, wherein the pixels having the first spectral characteristic, the pixels having the second spectral characteristic, and the pixels having the third spectral characteristic are each arranged to be adjacent to pixels having the same spectral characteristics provided to correspond to adjacent microlenses, and one pixel among each set of pixels having the same spectral characteristic and arranged adjacent to each other (24-1, 24-2, 24-3) is replaced with a correction pixel, the correction pixels being pixels provided to correspond to at least two of the microlenses and generating correction data that does not depend on the amount of incident light, and wherein the correction pixels are not adjacent to each other in two adjacent microlenses among the plurality of microlenses. a plurality of microlenses; a plurality of the pixels provided to correspond to each of the plurality of microlenses and including pixels having photoelectric converting sections that photoelectrically convert light incident thereto via a first filter having a first spectral characteristic, pixels having photoelectric converting sections that photoelectrically convert light incident thereto via a second filter having a second spectral characteristic, and pixels having photoelectric converting sections that photoelectrically convert light incident thereto via a third filter having a third spectral characteristic, wherein the pixels having the first spectral characteristic, the pixels having the second spectral characteristic, and the pixels having the third spectral characteristic are each arranged to be adjacent to pixels having the same spectral characteristics provided to correspond to adjacent microlenses, and one pixel among each set of pixels having the same spectral characteristic and arranged adjacent to each other (24-1, 24-2, 24-3) is replaced with a correction pixel, the correction pixels being pixels provided to correspond to at least two of the microlenses and generating correction data that does not depend on the amount of incident light, and wherein the correction pixels are not adjacent to each other in two adjacent microlenses among the plurality of microlenses.
A method, in a base station, for Information Centric Networking, ICN, based communications with radio bearers, the base station having an interface dedicated for ICN communications between the base station and an ICN based network, the method comprising: receiving an indication that a wireless device is compatible for ICN based communications; creating, in response to the indication, an ICN dedicated radio bearer between the wireless device and the base station alongside a default bearer between the wireless device and a Packet Data Network Gateway, PGW; receiving, from the wireless device, a request for content on the ICN dedicated radio bearer between the wireless device and the base station; determining if the content in the request is in a cache associated to or in the base station; and if the content is cached, sending, to the wireless device, the content; if the content is not cached, sending, to the ICN based network, the request on the interface dedicated between the base station and the ICN based network. receiving an indication that a wireless device is compatible for ICN based communications; creating, in response to the indication, an ICN dedicated radio bearer between the wireless device and the base station alongside a default bearer between the wireless device and a Packet Data Network Gateway, PGW; receiving, from the wireless device, a request for content on the ICN dedicated radio bearer between the wireless device and the base station; determining if the content in the request is in a cache associated to or in the base station; and if the content is cached, sending, to the wireless device, the content; if the content is not cached, sending, to the ICN based network, the request on the interface dedicated between the base station and the ICN based network.
A method of improving the sag resistance of an olefin-based polymer comprising: adding from 1 to 5 wt% chlorinated polyolefin grafted with an alkyl (meth)acrylate to one or more polyolefins, wherein the alkyl of the alkyl (meth)acrylate is selected from the group consisting of stearyl, lauryl, and combinations thereof.