mhurhangee/ep-ind-claims huggingface dataset:
A laser amplifier comprising: a planar optical waveguide for laser amplification; and an input optical system for inputting signal light to be amplified by said laser amplifier to a core layer of the planar optical waveguide, wherein the input optical system includes: a collimating lens for converting output light from a signal light source into parallel light; an anamorphic prism for converting output light from the collimating lens into parallel light having a reduced beam width in a first direction; and a cylindrical lens for collecting output light from the anamorphic prism in a second direction, and output light from the cylindrical lens is input to the core layer, as the signal light having been collected in the second direction and to be propagated inside the core layer without changing the beam width in the first direction, and wherein the planar optical waveguide has a laminated structure including an upper clad layer, the core layer, and a lower clad layer, the first direction is set to be orthogonal to a lamination direction in the laminated structure, and the second direction is set to be parallel to the lamination direction in the laminated structure. a collimating lens for converting output light from a signal light source into parallel light; an anamorphic prism for converting output light from the collimating lens into parallel light having a reduced beam width in a first direction; and a cylindrical lens for collecting output light from the anamorphic prism in a second direction, and output light from the cylindrical lens is input to the core layer, as the signal light having been collected in the second direction and to be propagated inside the core layer without changing the beam width in the first direction, and wherein the planar optical waveguide has a laminated structure including an upper clad layer, the core layer, and a lower clad layer, the first direction is set to be orthogonal to a lamination direction in the laminated structure, and the second direction is set to be parallel to the lamination direction in the laminated structure.
A stable sustained release letrozole composition for intramuscular administration suitable for forming an in situ intramuscular implant comprising from 10 to 500 mg of letrozole and a sterile biodegradable thermoplastic polymer of poly(lactic acid), wherein said PLA is milled; and/or wherein said PLA has a particle size mass distribution with not more than 10% above 300 microns, preferably not above 250 microns, when measured by analytical sieving according to USP<786> and/or said PLA has a particle size volume distribution with a D90 not above 330 microns, preferably not above 280 microns when measured by laser diffraction analysis; and/or wherein said PLA has a particle size mass distribution where not more than 80 % of the particles have a particle size below 125 microns, when measured by analytical sieving according to USP<786> and/or said PLA has a particle size volume distribution with a D80 not below 135 microns when measured by laser diffraction analysis; and wherein the release of the active agent from the implant is between 2 and 30 % of the active agent each 28 days, preferably is between 5 and 25 % of the active agent each 28 days; and/or wherein the composition releases from 0.1 to 2 milligrams of letrozole every day, preferably from 0.13 to 0.80 milligrams of letrozole every day.
A refiner apparatus comprising a disc arrangement adapted to grind a, with liquid, saturated ligno-cellulosic material in a refining gap defined by opposed discs during use of the apparatus, the material is moved from a refiner inlet opening towards an outer edge of the disc arrangement, characterized by that the outer edge of the disc arrangement comprises a barrier arrangement to increase the pressure in the refining gap for retaining the liquid phase all the way out to said outer edge within the refining gap so that the vaporisation is controlled to be performed at the outer edge perimeter of the disc arrangement, wherein by means of the barrier arrangement provided at a limited area of the disc outer edge, and a pump action of the discs, the centrifugal force, and a high boiling point of the liquid of the material due to the created high pressure, the vaporisation is controlled to be performed at the outer edge perimeter of the disc arrangement, bringing the grinded fiber material from high pressure to low pressure outside the refining gap and the barrier arrangement; exposing the material outside the outer edge, the outside pressure is lower than in the refining gap for achieving an explosive decompression of the material.
A reservoir structure for a bottom-up stereolithography device, the reservoir structure comprising: a reservoir having a lower opening; an aperture system comprising: a flexible membrane positioned within the reservoir and covering the lower opening; and a compliant release layer below the flexible membrane in the lower opening of the reservoir, the compliant release layer covering the lower opening and being separable from the flexible membrane; and a boundary seal positioned around a periphery of the flexible membrane, the boundary seal comprising one or more boundary seal components and immobilizing the periphery of the flexible membrane against the reservoir, wherein the compliant release layer has a durometer of about 30 OO to about 65 A, and the aperture system is transparent. a reservoir having a lower opening; an aperture system comprising: a flexible membrane positioned within the reservoir and covering the lower opening; and a compliant release layer below the flexible membrane in the lower opening of the reservoir, the compliant release layer covering the lower opening and being separable from the flexible membrane; and a flexible membrane positioned within the reservoir and covering the lower opening; and a compliant release layer below the flexible membrane in the lower opening of the reservoir, the compliant release layer covering the lower opening and being separable from the flexible membrane; and a boundary seal positioned around a periphery of the flexible membrane, the boundary seal comprising one or more boundary seal components and immobilizing the periphery of the flexible membrane against the reservoir, wherein the compliant release layer has a durometer of about 30 OO to about 65 A, and the aperture system is transparent.
A method by a first station, STA, in a wireless local area network, WLAN, system, comprising: transmitting a physical protocol data unit, PPDU, comprising an enhanced directional multi gigabit, EDMG, header A field and a training, TRN, field through a plurality of channels to a second STA, wherein the TRN field is differently configured based on first information included in the EDMG header A field; and performing beamforming training procedure on the plurality of channels with the second STA, based on the PPDU, wherein the EDMG header A field is duplicated for the plurality of channels, and wherein the TRN field is transmitted through a bonded channel being 4.32GHz channel when the first information is set to 0, and wherein the TRN field is transmitted through an aggregated channel being 2.16GHz+2.16GHz channel when the first information is set to 1. transmitting a physical protocol data unit, PPDU, comprising an enhanced directional multi gigabit, EDMG, header A field and a training, TRN, field through a plurality of channels to a second STA, wherein the TRN field is differently configured based on first information included in the EDMG header A field; and performing beamforming training procedure on the plurality of channels with the second STA, based on the PPDU, wherein the EDMG header A field is duplicated for the plurality of channels, and wherein the TRN field is transmitted through a bonded channel being 4.32GHz channel when the first information is set to 0, and wherein the TRN field is transmitted through an aggregated channel being 2.16GHz+2.16GHz channel when the first information is set to 1.
A carbon composite comprising: carbon microstructures having interstitial space between the carbon microstructures; and a binder disposed in at least some of the interstitial space; wherein the carbon microstructures comprise unfilled voids within the carbon microstructures, the largest dimension of each of the carbon microstructures is 5 to 500 microns, the carbon microstructures comprise microstructures of graphite, and the carbon microstructures have an aspect ratio of 10 to 500, characterised in that the unfilled voids within the carbon microstructures have a size of 20 nm to 1 micron, wherein the size of the unfilled voids is the largest dimension of the unfilled voids and can be determined by high resolution electron or atomic force microscope technology. carbon microstructures having interstitial space between the carbon microstructures; and a binder disposed in at least some of the interstitial space; wherein the carbon microstructures comprise unfilled voids within the carbon microstructures, the largest dimension of each of the carbon microstructures is 5 to 500 microns, the carbon microstructures comprise microstructures of graphite, and the carbon microstructures have an aspect ratio of 10 to 500, characterised in that the unfilled voids within the carbon microstructures have a size of 20 nm to 1 micron, wherein the size of the unfilled voids is the largest dimension of the unfilled voids and can be determined by high resolution electron or atomic force microscope technology.
Holding apparatus for holding an exhaust pipe for a motor vehicle, having: - a first portion with a mounting device (M.1) for the mounting on the motor vehicle, - a holding device for holding a subregion (A.1) of the exhaust pipe and with an alignment axis, in particular along which the subregion (A.1) can be aligned, and - a second portion which extends between the first portion and the holding device, wherein - the second portion is aligned in an alignment plane, and the holding device is designed in order to align the alignment axis with a deviation of at maximum +/- 25° perpendicularly to the alignment plane, and - one and the same profile part forms the first portion and the second portion, characterized in that - the second portion has a channel which is arranged in the alignment plane. - a first portion with a mounting device (M.1) for the mounting on the motor vehicle, - a holding device for holding a subregion (A.1) of the exhaust pipe and with an alignment axis, in particular along which the subregion (A.1) can be aligned, and - a second portion which extends between the first portion and the holding device, - the second portion is aligned in an alignment plane, and the holding device is designed in order to align the alignment axis with a deviation of at maximum +/- 25° perpendicularly to the alignment plane, and - one and the same profile part forms the first portion and the second portion, - the second portion has a channel which is arranged in the alignment plane.
A video coding apparatus, comprising: a reference picture list storing unit configured to store picture information of pictures; a motion vector information storing unit configured to store motion vector information including motion vectors of blocks that are spatially or temporally adjacent to a target block to be encoded and reference picture identifiers indicating pictures that the motion vectors refer to; a scaling factor calculation unit configured to calculate, based on the picture information and the motion vector information, an interval between a target picture including the target block and a target reference picture that a motion vector of the target block refers to and an interval between a picture including an adjacent block adjacent to the target block and an adjacent reference picture that a motion vector of the adjacent block refers to, and to calculate a scaling factor based on the calculated intervals; and a scaling operation unit configured to scale a vector predictor candidate for the motion vector of the target block by multiplying the vector predictor candidate by the scaling factor and to correct the scaled vector predictor candidate by subtracting a predetermined value from an absolute value of the scaled vector predictor candidate, wherein the scaling factor has N bits of precision after a decimal point; and the scaling operation unit is configured to calculate the predetermined value that is greater than or equal to 1 and less than or equal to 2 N-2. a reference picture list storing unit configured to store picture information of pictures; a motion vector information storing unit configured to store motion vector information including motion vectors of blocks that are spatially or temporally adjacent to a target block to be encoded and reference picture identifiers indicating pictures that the motion vectors refer to; a scaling factor calculation unit configured to calculate, based on the picture information and the motion vector information, an interval between a target picture including the target block and a target reference picture that a motion vector of the target block refers to and an interval between a picture including an adjacent block adjacent to the target block and an adjacent reference picture that a motion vector of the adjacent block refers to, and to calculate a scaling factor based on the calculated intervals; and a scaling operation unit configured to scale a vector predictor candidate for the motion vector of the target block by multiplying the vector predictor candidate by the scaling factor and to correct the scaled vector predictor candidate by subtracting a predetermined value from an absolute value of the scaled vector predictor candidate, wherein the scaling factor has N bits of precision after a decimal point; and the scaling operation unit is configured to calculate the predetermined value that is greater than or equal to 1 and less than or equal to 2 N-2.
A submersible turbine-generator unit for generating electricity from ocean or tidal currents, comprising: a) a generator; b) a shaft for driving said generator; c) two or more unidirectional turbines capable of rotation under reversible fluid flow, each of which is mounted on said shaft at either side of said generator such that the shaft, the two or more turbines and the generator are coaxial, wherein i) shaft couplings are disposed along the shaft between the generator and the two or more turbines, and ii) no gears exist between the generator and the turbines; and d) a framework for supporting said generator, said shaft, said shaft couplings and said two or more turbines, the turbines each being supported at both sides by said framework. a) a generator; b) a shaft for driving said generator; c) two or more unidirectional turbines capable of rotation under reversible fluid flow, each of which is mounted on said shaft at either side of said generator such that the shaft, the two or more turbines and the generator are coaxial, wherein i) shaft couplings are disposed along the shaft between the generator and the two or more turbines, and ii) no gears exist between the generator and the turbines; and i) shaft couplings are disposed along the shaft between the generator and the two or more turbines, and ii) no gears exist between the generator and the turbines; and d) a framework for supporting said generator, said shaft, said shaft couplings and said two or more turbines, the turbines each being supported at both sides by said framework.
A door, comprising a door leaf and two side borders, wherein at least one side border comprises a light grid strip and a runner rail, wherein a plurality of spacers is connected to the light grid strip, wherein the spacers comprise a connection region for the connection with the light grid strip, wherein at least one of the spacers comprises a length section (L, L', 9), which length section (L, L', 9) defines a distance or distances between the light grid strip and the runner rail of the side border, characterised in that the length section (L, L', 9) comprises at least one length-changing element (5, 5') for changing the length of the length section (L, L', 9), wherein the length-changing element (5, 5') is a predetermined breaking point.
A system (10, 50, 80) for delivering high amplitude and short duration mechanical waves to treat a lesion present in a vessel of a body, comprising: an external mechanical broadband wave source for generating the mechanical waves having high amplitude and short duration pulses, from outside of the body; and a wave directing device insertable in the vessel, the wave directing device for receiving the high amplitude and short duration mechanical waves generated by the external mechanical broadband wave source and redirecting the high amplitude and short duration mechanical waves according to a target direction. an external mechanical broadband wave source for generating the mechanical waves having high amplitude and short duration pulses, from outside of the body; and a wave directing device insertable in the vessel, the wave directing device for receiving the high amplitude and short duration mechanical waves generated by the external mechanical broadband wave source and redirecting the high amplitude and short duration mechanical waves according to a target direction.
A grey iron alloy containing (in wt%): C: ≤ 4.2 % Si: 1 - <1.30 % Mn: 0.4 - 0.8 % Nb: 0.05 - 0.4 % Cr: ≤ 0.4 % Cu: ≤ 0.7 % V + Ti + Mo: ≤0.4 % P: <0.05 % S: <0.1 % the remainder consisting of Fe and naturally occurring impurities, and the degree of saturation Sc, expressed as % ⁢ C / 4.26 − 0.317 * % Si + 0.027 % Mn − 0.3 % P > 1.
A sensor structure, comprising: - a mass airflow measurement device inserted into a sensor insertion port provided in an intake air tube component including an intake air tube and fixed to the intake air tube; and - a pressure measurement device mounted in a housing structural component of the mass airflow measurement device for measuring pressure inside the intake tube, wherein - a pressure intake port connecting the pressure measurement device to an inside of the intake air tube is provided in the housing structural component, and - an opening portion of the pressure intake port is provided on a side face of the housing structural component, wherein the pressure intake port has a cross-sectional area expanded at a position adjacent to the main air flow passage, wherein the pressure intake port forms an enlarged opening, wherein the enlarged opening is provided on a side face of the housing structural component parallel to an air-flowing direction, and wherein the opening portion has an elongated shape in the air-flow direction, characterized in that: the opening portion is divided into a plurality of blocks by partition walls, and disposed such that an upper surface of each partition wall is lower than an outer wall of the housing structural component. - a mass airflow measurement device inserted into a sensor insertion port provided in an intake air tube component including an intake air tube and fixed to the intake air tube; and - a pressure measurement device mounted in a housing structural component of the mass airflow measurement device for measuring pressure inside the intake tube, wherein - a pressure intake port connecting the pressure measurement device to an inside of the intake air tube is provided in the housing structural component, and - an opening portion of the pressure intake port is provided on a side face of the housing structural component, wherein
An anchoring harpoon for an aircraft, capable of cooperating with an anchoring grate of a platform, comprising jack means including cylinder means containing mobile piston means provided with a rod that extends beyond the cylinder means, the free end of which includes a harpoon head that is hooked in the grate and comprises retaining fingers (8, 13, 14) that can be moved between a retracted position and an active position by control means, characterized in that the cylinder means of the jack include at least two telescopic cylinder portions (10, 11) which can move between a position in which one portion is retracted inside the other and an active position in which one portion projects out from the other.
Use of a copolymer comprising at least 66 % by weight of tetrafluoroethylene units, and units independently represented by formula in a range from 0.2 to 12 % by weight percent, based on the total weight of the copolymer, wherein n is independently from 1 to 6, z is 0, 1, or 2, and Rf is a linear or branched perfluoroalkyl group having from 1 to 8 carbon atoms and optionally interrupted by one or more -O- groups, wherein the copolymer has a melt flow index in a range from 1 to 19 grams per 10 minutes (measured as described in the method section) and further comprising from 5 to 22 % by weight of units derived from hexafluoropropylene copolymer, wherein the weight percentages are based on the total weight of the polymer for cable and wire coating.
A scanning device, comprising: a first sensor, a second sensor, a first channel corresponding to the first sensor, a second channel corresponding to the second sensor, and a selector; the first sensor, being configured to collect first image data of a to-be-scanned document; the second sensor, being configured to collect second image data of the to-be-scanned document; and the selector is configured to acquire the image data collected by the first sensor and the image data collected by the second sensor in an uninterrupted, continuous and cross-flow manner; the selector, being configured to acquire image data alternately from the first channel and the second channel to acquire a first image data from the first channel and a second image data from the second channel by using a pixel-by-pixel acquisition mode in one acquisition cycle; and characterized in that a selection frequency of the selector to select the first channel or the second channel is greater than or equal to twice of an output frequency of the first sensor; and/or, the selection frequency of the selector to select the first channel or the second channel is greater than or equal to twice of an output frequency of the second sensor. the first sensor, being configured to collect first image data of a to-be-scanned document; the second sensor, being configured to collect second image data of the to-be-scanned document; and the selector is configured to acquire the image data collected by the first sensor and the image data collected by the second sensor in an uninterrupted, continuous and cross-flow manner; the selector, being configured to acquire image data alternately from the first channel and the second channel to acquire a first image data from the first channel and a second image data from the second channel by using a pixel-by-pixel acquisition mode in one acquisition cycle; and characterized in that a selection frequency of the selector to select the first channel or the second channel is greater than or equal to twice of an output frequency of the first sensor; and/or, the selection frequency of the selector to select the first channel or the second channel is greater than or equal to twice of an output frequency of the second sensor.