mhurhangee/ep-ind-claims huggingface dataset:
A radiofrequency surface coil (1, 21, 31, 501, 601, 701) for magnetic resonance, wherein the radiofrequency surface coil (1, 21, 31, 501, 601, 701) is arranged to transmit and/or receive an oscillating magnetic field, the radiofrequency surface coil (1, 21, 31, 501, 601, 701) comprising: a continuous conducting path comprising a plurality of conducting elements (2, 22, 32, 502, 602, 702), the continuous conducting path being conducting to an applied or induced radiofrequency alternating current, wherein each conducting element (2, 22, 32, 502, 602 702) is connected to another of the conducting elements (2, 22, 32, 502, 602, 702) so as to form the continuous conducting path, and each conducting element (2, 22, 32, 502, 602, 702) defines an area bounded by the conducting element (2, 22, 32, 502, 602, 702); wherein each conducting element (2, 22, 32, 502, 602, 702) at least partially surrounds the area it bounds and the remainder of the area is bounded by a geodesic line extending between the ends of the conducting element (2, 22, 32, 502, 602, 702); characterised in that the plurality of conducting elements (2, 22, 32, 502, 602, 702) are arranged in substantially parallel surfaces such that the area bounded by each conducting element (2, 22, 32, 502, 602, 702) overlaps with at least 20% of the area bounded by another of the conducting elements (2, 22, 32, 502, 602, 702); and wherein each conducting element (2, 22, 32, 502, 602, 702) is separated from the conducting element (2, 22, 32, 502, 602, 702) in the adjacent substantially parallel surface by a dielectric (4, 24, 34, 504, 704). a continuous conducting path comprising a plurality of conducting elements (2, 22, 32, 502, 602, 702), the continuous conducting path being conducting to an applied or induced radiofrequency alternating current, wherein each conducting element (2, 22, 32, 502, 602 702) is connected to another of the conducting elements (2, 22, 32, 502, 602, 702) so as to form the continuous conducting path, and each conducting element (2, 22, 32, 502, 602, 702) defines an area bounded by the conducting element (2, 22, 32, 502, 602, 702); wherein each conducting element (2, 22, 32, 502, 602, 702) at least partially surrounds the area it bounds and the remainder of the area is bounded by a geodesic line extending between the ends of the conducting element (2, 22, 32, 502, 602, 702); characterised in that the plurality of conducting elements (2, 22, 32, 502, 602, 702) are arranged in substantially parallel surfaces such that the area bounded by each conducting element (2, 22, 32, 502, 602, 702) overlaps with at least 20% of the area bounded by another of the conducting elements (2, 22, 32, 502, 602, 702); and wherein each conducting element (2, 22, 32, 502, 602, 702) is separated from the conducting element (2, 22, 32, 502, 602, 702) in the adjacent substantially parallel surface by a dielectric (4, 24, 34, 504, 704).
Method for producing a semiconductor component, comprising the following steps: applying in a structured fashion a multiplicity of sintering elements (22a, 22b, 22c) composed of a starting material that forms a sintering layer on a contact area of a main surface of a substrate; arranging a semiconductor chip to be connected to the substrate on the sintering elements (22a, 22b, 22c); and heating and compressing the sintering elements (22a, 22b, 22c) in order to produce the structured sintering layer which connects the substrate and the semiconductor chip and which extends within the contact area and which comprises the multiplicity of sintering elements (22a, 22b, 22c) positioned between the substrate and the semiconductor chip, wherein from each of the sintering elements (22a, 22b, 22c) there is at least one passage channel running laterally with respect to the main surface of the substrate between the substrate and the semiconductor chip to the edge of the contact area, wherein process gases are guided to and from the sintering elements (22a, 22b, 22c) during the sintering process via the passage channels, characterized in that the area occupation density of the sintering elements on the substrate in a central region of the contact area is greater than the area occupation density of the sintering elements in an edge region of the contact area, and in that the sintering elements (22a, 22b, 22c) have lateral notches, via which, during the sintering process, the process gases are fed to the centre of the sintering elements (22a, 22b, 22c) and are carried away from the same. applying in a structured fashion a multiplicity of sintering elements (22a, 22b, 22c) composed of a starting material that forms a sintering layer on a contact area of a main surface of a substrate; arranging a semiconductor chip to be connected to the substrate on the sintering elements (22a, 22b, 22c); and heating and compressing the sintering elements (22a, 22b, 22c) in order to produce the structured sintering layer which connects the substrate and the semiconductor chip and which extends within the contact area and which comprises the multiplicity of sintering elements (22a, 22b, 22c) positioned between the substrate and the semiconductor chip, wherein from each of the sintering elements (22a, 22b, 22c) there is at least one passage channel running laterally with respect to the main surface of the substrate between the substrate and the semiconductor chip to the edge of the contact area, wherein process gases are guided to and from the sintering elements (22a, 22b, 22c) during the sintering process via the passage channels, characterized in that the area occupation density of the sintering elements on the substrate in a central region of the contact area is greater than the area occupation density of the sintering elements in an edge region of the contact area, and in that the sintering elements (22a, 22b, 22c) have lateral notches, via which, during the sintering process, the process gases are fed to the centre of the sintering elements (22a, 22b, 22c) and are carried away from the same.
A handheld magnetic susceptometry probe (4, 6, 20) for detecting a magnetic marker within the body of a patient, comprising: a solid probe core having a first end and a second end, the probe core defining two longitudinal regions for containing coils of wire, one of the regions being adjacent the first end of the cylindrical probe core; two sense coils (16, 16'), one each of the sense coils being located in a respective one of the regions; and two drive coils (10, 10'), one each of the drive coils being located in a respective one of the regions, wherein the regions are longitudinally separated by a distance equal to or greater than the diameter of one of the coils. a solid probe core having a first end and a second end, the probe core defining two longitudinal regions for containing coils of wire, one of the regions being adjacent the first end of the cylindrical probe core; two sense coils (16, 16'), one each of the sense coils being located in a respective one of the regions; and two drive coils (10, 10'), one each of the drive coils being located in a respective one of the regions, wherein the regions are longitudinally separated by a distance equal to or greater than the diameter of one of the coils.
A frame for an electrically-assisted vehicle, comprising a down tube and a middle tube connected with each other, wherein a controller is disposed in the middle tube, characterized in that, inside the down tube, the frame is provided with relative circuits; the relative circuits comprising a charging circuit and charging socket, the charging circuit and charging socket are disposed in a charging box base, the charging box base is disposed in the down tube, the charging box base is hinged with a charging box lid via one or more hinge pins; the relative circuits also comprising a USB socket and relative circuit thereof, the USB socket and relative circuit thereof are disposed in the charging box base; the relative circuits also comprise a battery, the battery is disposed in the down tube, and an end of the battery is provided with a DC charging plug, the DC charging plug is electrically connected with the charging circuit; the battery is provided with a USB buck board, the USB buck board is also provided with a USB plug, the USB plug is electrically connected with the USB socket and relative circuit thereof.
A method for preparing a super absorbent polymer comprising the steps of: performing crosslinking polymerization of a water-soluble ethylenically unsaturated monomer having an acidic group of which at least a part is neutralized, in the presence of an internal crosslinking agent and a polymerization initiator to form a hydrogel polymer containing a first crosslinked polymer (step 1); drying the hydrogel polymer so that a water content of the polymer is 4.0 to 8.0 wt% (step 2), wherein the water content of the polymer is measured by measuring the weight of the particles, increasing the temperature from room temperature to 140°C for 40 seconds, and then maintaining the temperature at 140°C, setting the total drying time 10 minutes, including the temperature rising step, and drying, then, measuring the weight of the particles again; and the amount of reduction in the particles relative to the particle weight measured previously is measured as the water content.; and pulverizing the dried polymer (step 3), wherein the internal crosslinking agent is used in an amount of 800 to 1300 ppmw based on the weight of the water-soluble ethylenically unsaturated monomer having an acidic group of which at least a part is neutralized, wherein the step 1 is performed in the presence of a foaming agent, and wherein the foaming agent is an encapsulated foaming agent, which has a structure including a core containing hydrocarbon and a shell surrounding the core and formed of a thermoplastic resin. performing crosslinking polymerization of a water-soluble ethylenically unsaturated monomer having an acidic group of which at least a part is neutralized, in the presence of an internal crosslinking agent and a polymerization initiator to form a hydrogel polymer containing a first crosslinked polymer (step 1); drying the hydrogel polymer so that a water content of the polymer is 4.0 to 8.0 wt% (step 2), wherein the water content of the polymer is measured by measuring the weight of the particles, increasing the temperature from room temperature to 140°C for 40 seconds, and then maintaining the temperature at 140°C, setting the total drying time 10 minutes, including the temperature rising step, and drying, then, measuring the weight of the particles again; and the amount of reduction in the particles relative to the particle weight measured previously is measured as the water content.; and pulverizing the dried polymer (step 3), wherein the internal crosslinking agent is used in an amount of 800 to 1300 ppmw based on the weight of the water-soluble ethylenically unsaturated monomer having an acidic group of which at least a part is neutralized, wherein the step 1 is performed in the presence of a foaming agent, and wherein the foaming agent is an encapsulated foaming agent, which has a structure including a core containing hydrocarbon and a shell surrounding the core and formed of a thermoplastic resin.
An optical train for viewing an object, the optical train comprising: an objective lens system for capturing an image of the object; an ocular lens system; a relay lens system (40,50) disposed along an optical path between the objective lens system and the ocular lens system; wherein an intermediate image is formed within an optical element of the ocular lens system, wherein the relay lens system is separated from the ocular lens system by an ocular-relay gap, wherein the optical element is disposed adjacent the relay lens system, and wherein no intermediate image is disposed within the ocular-relay gap. an objective lens system for capturing an image of the object; an ocular lens system; a relay lens system (40,50) disposed along an optical path between the objective lens system and the ocular lens system; wherein an intermediate image is formed within an optical element of the ocular lens system, wherein the relay lens system is separated from the ocular lens system by an ocular-relay gap, wherein the optical element is disposed adjacent the relay lens system, and wherein no intermediate image is disposed within the ocular-relay gap.
A winding machine configured to form a pipe member in an existing pipe by winding a profile strip (10, 100) having an elongated shape, the winding machine comprising: a main body that moves toward a winding direction front side as the profile strip is added, while rotating at a winding direction front end portion of the pipe member; wherein the winding machine further comprises: a first arm and a second arm that are supported by the main body, wherein the first arm and the second arm are configured to be disposed between the existing pipe and the pipe member so as to extend toward a winding direction rear side, the first arm and the second arm are configured to be disposed at positions away from each other in a circumference direction of the formed pipe member, and the first arm and the second arm include a restricting portion (42, 43, 52, 53) that comes into contact with a reinforcement member (70, 120) provided to the profile strip forming the pipe member, directly or via the profile strip, characterized in that the first arm and the second arm each have a shape of a plate. wherein the first arm and the second arm are configured to be disposed between the existing pipe and the pipe member so as to extend toward a winding direction rear side, the first arm and the second arm are configured to be disposed at positions away from each other in a circumference direction of the formed pipe member, and the first arm and the second arm include a restricting portion (42, 43, 52, 53) that comes into contact with a reinforcement member (70, 120) provided to the profile strip forming the pipe member, directly or via the profile strip, characterized in that the first arm and the second arm each have a shape of a plate.
An intra prediction method for video decoding, the method comprising: (S310, S1420) deriving an intra prediction mode for a current block; and (S340, S1430) generating a predicted block which includes prediction samples by deriving a prediction sample for the current block based on a first reference sample, wherein the first reference sample is derived based on the intra prediction mode, wherein the intra prediction mode is a horizontal prediction mode, and wherein the generating the predicted block includes filtering the prediction sample which is one of prediction samples adjacent to a top boundary of the current block, wherein the first reference sample is located along a horizontal prediction direction with regard to a location of the prediction sample, wherein the first reference sample is located outside of the current block and is adjacent to a left boundary of the current block, and the filtering the prediction sample is performed based on a second reference sample which is located along a vertical direction with regard to the location of the prediction sample, wherein the second reference sample is located outside of the current block and is adjacent to the top boundary of the current block. (S310, S1420) deriving an intra prediction mode for a current block; and (S340, S1430) generating a predicted block which includes prediction samples by deriving a prediction sample for the current block based on a first reference sample, wherein the first reference sample is derived based on the intra prediction mode, wherein the intra prediction mode is a horizontal prediction mode, and wherein the generating the predicted block includes filtering the prediction sample which is one of prediction samples adjacent to a top boundary of the current block, wherein the first reference sample is located along a horizontal prediction direction with regard to a location of the prediction sample, wherein the first reference sample is located outside of the current block and is adjacent to a left boundary of the current block, and the filtering the prediction sample is performed based on a second reference sample which is located along a vertical direction with regard to the location of the prediction sample, wherein the second reference sample is located outside of the current block and is adjacent to the top boundary of the current block.
Method for the thermal elimination of the germination capacity and/or fertility of plant constituents capable of germination and/or reproduction in material to be treated in the form of excavation material, comprising the following steps: a) producing a radio frequency signal by a generator unit; b) producing an electric high-frequency field with the radio frequency signal by means of an electrode arrangement (11, 12); c) irradiation of the material to be treated with the electric high-frequency field, such that specifically the plant constituents capable of germination and/or reproduction are heated to a temperature of 50°C to 80°C, preferably of 65°C to 75°C, wherein the electric high-frequency field has a frequency (f) of 3.5 MHz to 100 MHz, preferably of 10 to 20 MHz, more preferably of 13.56 MHz, and wherein the material to be treated has a density of between 1.0 g/cm 3 to 3.0 g/cm 3 and a water content of 5% to 40%, such that the rest of the material of the material to be treated heats up less than the plant constituents capable of germination and/or reproduction. a) producing a radio frequency signal by a generator unit; b) producing an electric high-frequency field with the radio frequency signal by means of an electrode arrangement (11, 12); c) irradiation of the material to be treated with the electric high-frequency field, such that specifically the plant constituents capable of germination and/or reproduction are heated to a temperature of 50°C to 80°C, preferably of 65°C to 75°C, wherein the electric high-frequency field has a frequency (f) of 3.5 MHz to 100 MHz, preferably of 10 to 20 MHz, more preferably of 13.56 MHz, and wherein the material to be treated has a density of between 1.0 g/cm 3 to 3.0 g/cm 3 and a water content of 5% to 40%, such that the rest of the material of the material to be treated heats up less than the plant constituents capable of germination and/or reproduction.
A method comprising: receiving, at a mobile device, wireless signals transmitted by a plurality of transmitters (210, 220, 222); extracting identification information from the wireless signals corresponding to the plurality of transmitters (210, 220, 222); determining locations of the plurality of transmitters (210, 220, 222) based on the identification information; calculating an average of the transmitter (210, 220, 222) locations; and determining a location of the mobile device based on the calculated average, characterized in that the method further comprises: receiving a first wireless signal from a transmitter that is serving the mobile device; extracting an identifier for the serving transmitter from the first wireless signal; receiving a second wireless signal from a second transmitter; determining a characteristic of the second wireless signal; and determining a location for the second transmitter based on the identifier of the serving transmitter and the characteristic of the second wireless signal. receiving, at a mobile device, wireless signals transmitted by a plurality of transmitters (210, 220, 222); extracting identification information from the wireless signals corresponding to the plurality of transmitters (210, 220, 222); determining locations of the plurality of transmitters (210, 220, 222) based on the identification information; calculating an average of the transmitter (210, 220, 222) locations; and determining a location of the mobile device based on the calculated average, characterized in that the method further comprises: receiving a first wireless signal from a transmitter that is serving the mobile device; extracting an identifier for the serving transmitter from the first wireless signal; receiving a second wireless signal from a second transmitter; determining a characteristic of the second wireless signal; and determining a location for the second transmitter based on the identifier of the serving transmitter and the characteristic of the second wireless signal. receiving a first wireless signal from a transmitter that is serving the mobile device; extracting an identifier for the serving transmitter from the first wireless signal; receiving a second wireless signal from a second transmitter; determining a characteristic of the second wireless signal; and determining a location for the second transmitter based on the identifier of the serving transmitter and the characteristic of the second wireless signal.
A gastro-resistant pharmaceutical composition comprising posaconazole, wherein posaconazole is molecularly dispersed in a mixture containing an enteric polymer and a non-enteric polymer, wherein the mixture is prepared by hot-melt extrusion, and wherein the composition contains an antioxidant.
A control moment gyroscope configured for selectively and alternately providing a first spatial configuration and a second spatial configuration at least during operation of the CMG, wherein in said first spatial configuration no part of said CMG projects beyond a predetermined geometrical boundary, and wherein in said second spatial configuration, a portion of said CMG projects beyond said geometrical boundary, wherein in said first spatial configuration said CMG occupies a smaller volume than in said second spatial configuration, and wherein the CMG further comprises a variable external envelope (El, E2) enclosing a variable volume (VI, V2), wherein in said first spatial configuration said variable volume is smaller than in said second spatial configuration; the CMG comprising a rotor assembly pivotably mounted to a housing defining a vehicle interface, wherein in said first spatial configuration said rotor assembly is inwards of said vehicle interface, and wherein in said second spatial configuration at least a part of said rotor assembly projects outwards of said vehicle interface; characterised in that the CMG further comprises a shroud for said rotor assembly, said shroud being configured for pivoting with said rotor assembly about a gimbal axis.
A roller pump comprising a pump head operably connected to be driven by a pump drive, wherein the pump head includes a pump stator comprising an inner circumferential surface defining a raceway, a pump rotor disposed to rotate within the pump stator, wherein the pump rotor includes one or more rollers, wherein each roller is connected to a respective roller block that is moveable radially with respect to a central axis of the pump head, and an occlusion adjustment mechanism connected to the roller block of each roller, wherein the occlusion adjustment mechanism is adapted to move each roller block radially with respect to the central axis of the pump head in a non-uniform manner, characterised in that the occlusion adjustment mechanism comprises an elongated rod member oriented on the central axis of the pump head, and a drive member attached to the elongated rod member so as to move along the elongated rod member between a first position and a second position, wherein each roller block is connected by a drag link to the drive member.