mhurhangee/ep-ind-claims huggingface dataset:
A method for amplifying radio signals between a terminal and an antenna or antenna connector by means of a circuit arrangement comprising an amplification unit and a detector unit having signal paths designed for different frequency ranges and a power detector, comprising - receiving a transmission signal from the terminal; - dividing a transmission signal power of the transmission signal at least into a first signal part and a second signal part; - applying the first signal part to the signal paths of the detector unit, - determining a frequency range of the first signal part by applying the signal paths of the detector unit to the power detector in time sequence to evaluate a power of the first signal part; - detecting disturbing signals by comparing a power on a band-specific applied signal path, which has a bandpass filter for useful signals, with a power on an applied signal path which supports both the useful signals and the disturbing signals to be detected; - adjusting the signal routing for the second signal part in the amplification unit based on the frequency range determined by the detector unit, wherein adjusting the signal routing for the second signal part in the amplification unit comprises switching signal paths having one or more amplifiers designed for the determined frequency range; - amplifying at least the second signal part using the amplification unit. - receiving a transmission signal from the terminal; - dividing a transmission signal power of the transmission signal at least into a first signal part and a second signal part; - applying the first signal part to the signal paths of the detector unit, - determining a frequency range of the first signal part by applying the signal paths of the detector unit to the power detector in time sequence to evaluate a power of the first signal part; - detecting disturbing signals by comparing a power on a band-specific applied signal path, which has a bandpass filter for useful signals, with a power on an applied signal path which supports both the useful signals and the disturbing signals to be detected; - adjusting the signal routing for the second signal part in the amplification unit based on the frequency range determined by the detector unit, wherein adjusting the signal routing for the second signal part in the amplification unit comprises switching signal paths having one or more amplifiers designed for the determined frequency range; - amplifying at least the second signal part using the amplification unit.
Operating table comprising a base including a column, a tabletop supported by the column, at least one sensor configured to directly detect a change of position of the tabletop, and a controller configured to process signals of the at least one sensor in order to determine a position of the tabletop, characterized in that the operating table comprises at least one of a first inclinometer and a first acceleration sensor attached to the base, wherein the controller processes signals of the at least one of the first inclinometer and the first acceleration sensor for determining a base angle of the operating table. a base including a column, a tabletop supported by the column, at least one sensor configured to directly detect a change of position of the tabletop, and a controller configured to process signals of the at least one sensor in order to determine a position of the tabletop, characterized in that the operating table comprises at least one of a first inclinometer and a first acceleration sensor attached to the base, wherein the controller processes signals of the at least one of the first inclinometer and the first acceleration sensor for determining a base angle of the operating table.
A parallel mechanism comprising: arms each being capable of swingably pivoting on a base end portion and each including a pair of rods aligned in parallel in a longitudinal direction thereof; a bracket having an end effecter attached thereto, the bracket being retained between the pair of rods at a free end portion of the arms; a pair of ball joints (41, 42) for displaceably connecting the bracket with the arms, the ball joints (41, 42) each including a first joint element having a ball end provided to one of the rod and the bracket, and a second joint element having a socket for retaining the ball end provided to the other of the rod and the bracket; a connecting member for connecting the pair of parallel rods; and a biasing member for providing a biasing force for retaining the balls in the sockets at the ball joints (41, 42); characterized by the connecting member preventing rotation of each rod about an axis that is parallel to the longitudinal direction of the rod. arms each being capable of swingably pivoting on a base end portion and each including a pair of rods aligned in parallel in a longitudinal direction thereof; a bracket having an end effecter attached thereto, the bracket being retained between the pair of rods at a free end portion of the arms; a pair of ball joints (41, 42) for displaceably connecting the bracket with the arms, the ball joints (41, 42) each including a first joint element having a ball end provided to one of the rod and the bracket, and a second joint element having a socket for retaining the ball end provided to the other of the rod and the bracket; a connecting member for connecting the pair of parallel rods; and a biasing member for providing a biasing force for retaining the balls in the sockets at the ball joints (41, 42); characterized by the connecting member preventing rotation of each rod about an axis that is parallel to the longitudinal direction of the rod.
Method for preparing a composition comprising one or more omega-3 fatty acid salt(s), characterized in that a paste comprising one or more omega-3 fatty acid(s), one or more basic amine(s) and 20% by weight or less water, based on the total weight of the paste, at a temperature of 130°C or less is kneaded for a period of time between 30 seconds and 60 minutes until a homogenous paste is obtained, wherein the omega-3 fatty acids comprise in total 30% by weight or more eicosapentaenoic acid and docosahexaenoic acid, based on the total weight of the fatty acids, wherein the basic amines are chosen from lysine, arginine, ornithine, choline, or mixtures thereof, wherein, when a mixture of L-lysine and L-arginine is used as basic amines the ratio between L-lysine and L-arginine is between 10:1 and 1:1, wherein the composition is dried until a solid is obtained, wherein the solid has a water content of ≤ 2% by weight, preferably ≤ 1% by weight, measured by Karl-Fischer titration, and wherein the solid is milled. characterized in that a paste comprising one or more omega-3 fatty acid(s), one or more basic amine(s) and 20% by weight or less water, based on the total weight of the paste, at a temperature of 130°C or less is kneaded for a period of time between 30 seconds and 60 minutes until a homogenous paste is obtained, wherein the omega-3 fatty acids comprise in total 30% by weight or more eicosapentaenoic acid and docosahexaenoic acid, based on the total weight of the fatty acids, wherein the basic amines are chosen from lysine, arginine, ornithine, choline, or mixtures thereof, wherein, when a mixture of L-lysine and L-arginine is used as basic amines the ratio between L-lysine and L-arginine is between 10:1 and 1:1, wherein the composition is dried until a solid is obtained, wherein the solid has a water content of ≤ 2% by weight, preferably ≤ 1% by weight, measured by Karl-Fischer titration, and wherein the solid is milled.
Method for preparing a composite material, consisting of a crosslinked composition, said composition comprising 97 to 99 % by weight of a pre-mixture, said pre-mixture comprising 20 to 60 % by weight of a polyolefin rubber and 40 to 80% of a mineral filler; and 1 to 3% by weight of an additive selected from the group consisting of multifunctional acrylates, multifunctional methacrylates, cyanurates and isocyanurates and substituted vinyl silanes or a mixture thereof, by (a) Mixing the polyolefin rubber and the mineral filler at temperature between 40 and 60°C obtaining a pre-mixture of the polyolefin rubber and the mineral filler; (b) Adding an additive selected from the group consisting of multifunctional acrylates, multifunctional methacrylates, cyanurates and isocyanurates and substituted vinyl silanes or a mixture thereof to the pre-mixture of step (a) while mixing and at a temperature of 155 to 175°C (c) Compression molding, extruding or injection molding of the composition of step (b) to a product with a desired shape, (d) Treating the product of step (c) with electrons at 25 to 200 kGy at room temperature. 97 to 99 % by weight of a pre-mixture, said pre-mixture comprising 20 to 60 % by weight of a polyolefin rubber and 40 to 80% of a mineral filler; and 1 to 3% by weight of an additive selected from the group consisting of multifunctional acrylates, multifunctional methacrylates, cyanurates and isocyanurates and substituted vinyl silanes or a mixture thereof, by (a) Mixing the polyolefin rubber and the mineral filler at temperature between 40 and 60°C obtaining a pre-mixture of the polyolefin rubber and the mineral filler; (b) Adding an additive selected from the group consisting of multifunctional acrylates, multifunctional methacrylates, cyanurates and isocyanurates and substituted vinyl silanes or a mixture thereof to the pre-mixture of step (a) while mixing and at a temperature of 155 to 175°C (c) Compression molding, extruding or injection molding of the composition of step (b) to a product with a desired shape, (d) Treating the product of step (c) with electrons at 25 to 200 kGy at room temperature. (a) Mixing the polyolefin rubber and the mineral filler at temperature between 40 and 60°C obtaining a pre-mixture of the polyolefin rubber and the mineral filler; (b) Adding an additive selected from the group consisting of multifunctional acrylates, multifunctional methacrylates, cyanurates and isocyanurates and substituted vinyl silanes or a mixture thereof to the pre-mixture of step (a) while mixing and at a temperature of 155 to 175°C (c) Compression molding, extruding or injection molding of the composition of step (b) to a product with a desired shape, (d) Treating the product of step (c) with electrons at 25 to 200 kGy at room temperature.
An apparatus for preventing a fluid from entering a basin, the apparatus comprising: a containment tube (310; 400) configured to fit within the basin and receive a filling fluid, further comprising: a top portion (140, 140A) that is suitable to fit within and span substantially all of a cross-section of an opening of the basin; a base portion that is suitable to fit within and span substantially all of a cross-section of a bottom of the basin; and a side portion that connects the top portion (140, 140A) and the base portion, wherein a part of the side portion is suitable to be in contact with part of one or more walls of the basin, wherein the top portion (140; 140A) is sealed to a first side of the side portion and the base portion is sealed to a second side of the side portion, wherein the containment tube (310; 400) is water-tight; and wherein: • the base portion is assembled piecewise from a plurality of pieces of flexible and waterproof material and having waterproof seams that connect the plurality of pieces of material, and/or • the side portion is assembled piecewise from a plurality of pieces of flexible and waterproof material and having waterproof seams that connect the plurality of pieces of material. a top portion (140, 140A) that is suitable to fit within and span substantially all of a cross-section of an opening of the basin; a base portion that is suitable to fit within and span substantially all of a cross-section of a bottom of the basin; and a side portion that connects the top portion (140, 140A) and the base portion, wherein a part of the side portion is suitable to be in contact with part of one or more walls of the basin, wherein the top portion (140; 140A) is sealed to a first side of the side portion and the base portion is sealed to a second side of the side portion, wherein the containment tube (310; 400) is water-tight; and wherein: • the base portion is assembled piecewise from a plurality of pieces of flexible and waterproof material and having waterproof seams that connect the plurality of pieces of material, and/or • the side portion is assembled piecewise from a plurality of pieces of flexible and waterproof material and having waterproof seams that connect the plurality of pieces of material. • the base portion is assembled piecewise from a plurality of pieces of flexible and waterproof material and having waterproof seams that connect the plurality of pieces of material, and/or • the side portion is assembled piecewise from a plurality of pieces of flexible and waterproof material and having waterproof seams that connect the plurality of pieces of material.
A method of growing a nitride semiconductor layer, the method comprising: providing a Sapphire substrate having a different lattice constant and different thermal expansion coefficients from the nitride semiconductor layer to be grown; creating vacancies in the surface of the substrate by removing atoms; forming a plurality of Aluminium Nitride, AlN, seeds in said vacancies; growing a plurality of Gallium Nitride, GaN, semiconductor dots from said seeds using a halide vapor phase epitaxy, HVPE, process; and growing the nitride semiconductor layer directly on said surface from the GaN semiconductor dots; characterised in that the growing of the GaN semiconductor dots includes (i) growing at least 90% of the GaN semiconductor dots at about 1040°C to a size of 0.4 μm to 0.8 μm or (ii) growing at least 90% of the GaN semiconductor dots at about 980°C to about 990°C to a size less than or equal to 0.4 μm. providing a Sapphire substrate having a different lattice constant and different thermal expansion coefficients from the nitride semiconductor layer to be grown; creating vacancies in the surface of the substrate by removing atoms; forming a plurality of Aluminium Nitride, AlN, seeds in said vacancies; growing a plurality of Gallium Nitride, GaN, semiconductor dots from said seeds using a halide vapor phase epitaxy, HVPE, process; and growing the nitride semiconductor layer directly on said surface from the GaN semiconductor dots; characterised in that the growing of the GaN semiconductor dots includes (i) growing at least 90% of the GaN semiconductor dots at about 1040°C to a size of 0.4 μm to 0.8 μm or (ii) growing at least 90% of the GaN semiconductor dots at about 980°C to about 990°C to a size less than or equal to 0.4 μm.
A method for public land mobile network searching performed by a user equipment, the method comprising: for each of at least one mobile network identity, each mobile network identity separately associated to a different mobile network, sequentially assessing, with a processor, for each mobile network identity, identity information sets corresponding to one of the at least one mobile network identity for a location code corresponding to the mobile network associated with the one of the mobile network identities; and presenting, on a user interface, information related to the mobile network corresponding to the location code as identified; wherein, upon the location code corresponding to the mobile network having been identified, the processor ceases assessing identity information sets corresponding to the mobile network identity for the location code; wherein at least some of the identity information sets include a timestamp, and wherein sequentially assessing the identity information sets includes sequentially assessing the identity information sets until a timestamp exceeds a predetermined threshold time. for each of at least one mobile network identity, each mobile network identity separately associated to a different mobile network, sequentially assessing, with a processor, for each mobile network identity, identity information sets corresponding to one of the at least one mobile network identity for a location code corresponding to the mobile network associated with the one of the mobile network identities; and presenting, on a user interface, information related to the mobile network corresponding to the location code as identified; wherein, upon the location code corresponding to the mobile network having been identified, the processor ceases assessing identity information sets corresponding to the mobile network identity for the location code; wherein at least some of the identity information sets include a timestamp, and wherein sequentially assessing the identity information sets includes sequentially assessing the identity information sets until a timestamp exceeds a predetermined threshold time.
Device to guide supply lines from a connection set at a fixed height to a vertically adjustable machine, with a cable drag chain in which the supply lines are gathered and at least partially enclosed; whereby the cable drag chain comprises a number of interconnected chain links arranged lengthwise, and whereby the cable drag chain comprises one section suspended from the connection, and a second section suspended from the machine, which two are interconnected by a curved section with a guiding mechanism, which comprises at least one vertically-running guiding element for the first section of the cable drag chain, and fastenings applying a force against the tendency of the first section to move away from the guiding element; whereby the guiding mechanism comprises a vertically-running guide rail, characterised in that the fastenings on the outer surfaces of the cable drag chain are magnets, and that the guide rail comprises a ferromagnetic material.
Method for producing a decorative, laminated board by means of a press, in which method a base board is covered on either side with decorative paper (1, 7) in the press, the decorative paper having a wood-effect decorative design, a natural stone-effect decorative design or a tile-effect decorative design as the graphic decorative design on its front side, in which the press is used to emboss a three-dimensional structure in the upper and underside of the board such that the structure is congruent with the decorative design applied to either side of the base board in each case, and in which the position of the decorative paper (1, 7) is detected by means of a sensor device and the decorative paper (1, 7) and/or a structure-providing means (5, 6) which produces the three-dimensional structure is/are aligned by means of an aligning device (13, 13') such that the decorative design is made congruent with the structure-providing means (5, 6) which produces the three-dimensional structure, characterised in that decorative paper is used at least as the decorative paper for the underside of the base board and comprises either at least one marking which can be detected from the rear side of the decorative paper by means of the sensor device or at least one element which acts as the marking and can be detected from the rear side of the decorative paper by means of the sensor device, and in that said marking or said element acting as the marking is detected from the rear side of the decorative paper by means of the sensor device.
Method of controlling the stability of response of a semi-conductor matrix imager composed of pixels, the method comprising at least a first phase of characterizing the said stability and a second phase of correcting the said stability, characterized in that the said first phase comprises the following steps: - irradiation of the pixels of the detector by a standard radiation that is constant over time for a predetermined duration; - storage of the signals supplied by each pixel at regular time intervals during the predetermined duration; - determination, for each pixel, of an amplitude distribution of the signals supplied by each pixel during the predetermined duration; - characterization of each distribution by at least one statistical indicator representative of the dispersion of the distribution; - classification of each pixel, on the basis of this indicator, into at least two categories of pixels, each category being representative of the stability of the temporal response of the pixels, the pixels belonging to the first category being denoted "stable pixels", the pixels belonging to the second category being denoted "unstable pixels"; the second phase comprises the following steps: - association of each unstable pixel with at least one stable pixel according to a predetermined criterion; - irradiation of the pixels of the detector by a radiation to be characterized during a second predetermined duration; - storage of the signals supplied by each pixel for at least one time interval taken during the second predetermined duration; - correction of the signal or signals generated by each unstable pixel as a function of the signal or signals generated by the stable pixel with which the unstable pixel is associated. - irradiation of the pixels of the detector by a standard radiation that is constant over time for a predetermined duration; - storage of the signals supplied by each pixel at regular time intervals during the predetermined duration; - determination, for each pixel, of an amplitude distribution of the signals supplied by each pixel during the predetermined duration; - characterization of each distribution by at least one statistical indicator representative of the dispersion of the distribution; - classification of each pixel, on the basis of this indicator, into at least two categories of pixels, each category being representative of the stability of the temporal response of the pixels, the pixels belonging to the first category being denoted "stable pixels", the pixels belonging to the second category being denoted "unstable pixels"; - association of each unstable pixel with at least one stable pixel according to a predetermined criterion; - irradiation of the pixels of the detector by a radiation to be characterized during a second predetermined duration; - storage of the signals supplied by each pixel for at least one time interval taken during the second predetermined duration; - correction of the signal or signals generated by each unstable pixel as a function of the signal or signals generated by the stable pixel with which the unstable pixel is associated.