mhurhangee/ep-ind-claims huggingface dataset:
A lamp comprising: a light source; a housing that contains the light source, and in which a first opening and a second opening, which are opened from an inside space of the housing toward the outside of the lamp, are formed at different positions of the housing; a lens that outputs light from the light source to outside of the housing; and a dehumidifying device comprising: a ventilating member that is provided at the first opening of the housing that is closed, the ventilating member preventing a liquid and a solid from entering inside of the housing and circulating a gas between the inside and outside of the housing; and an electrolysis dehumidifying element that is provided at the second opening of the housing different from the first opening, the electrolysis dehumidifying element discharging water vapor inside of the housing to the outside of the housing by electrolysis. a light source; a housing that contains the light source, and in which a first opening and a second opening, which are opened from an inside space of the housing toward the outside of the lamp, are formed at different positions of the housing; a lens that outputs light from the light source to outside of the housing; and a dehumidifying device comprising: a ventilating member that is provided at the first opening of the housing that is closed, the ventilating member preventing a liquid and a solid from entering inside of the housing and circulating a gas between the inside and outside of the housing; and an electrolysis dehumidifying element that is provided at the second opening of the housing different from the first opening, the electrolysis dehumidifying element discharging water vapor inside of the housing to the outside of the housing by electrolysis. a ventilating member that is provided at the first opening of the housing that is closed, the ventilating member preventing a liquid and a solid from entering inside of the housing and circulating a gas between the inside and outside of the housing; and an electrolysis dehumidifying element that is provided at the second opening of the housing different from the first opening, the electrolysis dehumidifying element discharging water vapor inside of the housing to the outside of the housing by electrolysis.
A support bar having two bearing journals (4, 5) to take up a material web wound to provide a coreless roll, the support bar including two narrowing parts (6, 7) which can be axially inserted into the roll from opposite sides, which are of different lengths, and which comprise flanges (10, 11) each forming an abutment for the insertion depth, wherein the first part forms a core part and projects, when in use, at both sides from the roll, the projecting ends forming the two bearing journals (4, 5), and wherein the second part is formed by a sleeve, and the insertion end of the first part forming the first bearing journal projects from the flange of the sleeve, characterised in that the second part is pushed on and latched to the first part.
A neural network training apparatus, configured, in a training phase, to train a neural network using a plurality of pairs of training images, wherein each pair of training images comprises a first training image and a second training image, wherein the first training image and the second training image are a first and a second color filter mosaic, CFM, image of a training scene, respectively, and wherein the trained neutral network, in an application phase, is configured to process an original CFM image into an enhanced CFM image; wherein the neural network training apparatus comprises an image capturing device configured to provide the first training image of a respective pair of training images by capturing a first low quality CFM image of a respective training scene using a first exposure parameter, and to provide the second training image of the respective pair of training images by capturing a second high quality CFM image of the respective training scene using a second exposure parameter, wherein the first exposure defined by the first exposure parameter is shorter than the second exposure defined by the second exposure parameter; wherein the original CFM image is captured by the image capturing device using the first exposure parameter. wherein the neural network training apparatus comprises an image capturing device configured to provide the first training image of a respective pair of training images by capturing a first low quality CFM image of a respective training scene using a first exposure parameter, and to provide the second training image of the respective pair of training images by capturing a second high quality CFM image of the respective training scene using a second exposure parameter, wherein the first exposure defined by the first exposure parameter is shorter than the second exposure defined by the second exposure parameter; wherein the original CFM image is captured by the image capturing device using the first exposure parameter.
A method for decoding a symbol transmitted over a millimeter wave, mmWave, channel, comprising: receiving a test symbol transmitted over the mmWave channel; determining a type of an environment for propagating the mmWave in the mmWave channel; and selecting a multi-dimensional spreading model of the mmWave channel corresponding to the type of the environment for propagating the mmWave; estimating channel state information, CSI, of the mmWave channel using a block sparse signal recovery including at least one Bayesian inference method that captures a block sparsity on the test symbol according to the multi-dimensional spreading model with statistics on multi-dimensional paths (230, 240, 250) including an angle of departure, AoD,, angle of arrival, AoA,, and an angular spread for the AoD and an angular spread for the AoA by representing a virtual angular domain as a two-dimensional grid, in which the direction of arrival, DoA, and the direction of departure, DoD, are represented with AoA and AoD and the angular spread path for the AoA and the angular spread path for the AoD are represented and estimating the channel path gain matrix represented on grids of the AoD and AoA using the at least one Bayesian inference method and indicating an angular spread of mmWaves propagating in the mmWave channel; receiving a symbol over the mmWave channel; and decoding the symbol using the CSI, wherein steps of the method are performed by a processor of a receiver. receiving a test symbol transmitted over the mmWave channel; determining a type of an environment for propagating the mmWave in the mmWave channel; and selecting a multi-dimensional spreading model of the mmWave channel corresponding to the type of the environment for propagating the mmWave; estimating channel state information, CSI, of the mmWave channel using a block sparse signal recovery including at least one Bayesian inference method that captures a block sparsity on the test symbol according to the multi-dimensional spreading model with statistics on multi-dimensional paths (230, 240, 250) including an angle of departure, AoD,, angle of arrival, AoA,, and an angular spread for the AoD and an angular spread for the AoA by representing a virtual angular domain as a two-dimensional grid, in which the direction of arrival, DoA, and the direction of departure, DoD, are represented with AoA and AoD and the angular spread path for the AoA and the angular spread path for the AoD are represented and estimating the channel path gain matrix represented on grids of the AoD and AoA using the at least one Bayesian inference method and indicating an angular spread of mmWaves propagating in the mmWave channel; receiving a symbol over the mmWave channel; and decoding the symbol using the CSI, wherein steps of the method are performed by a processor of a receiver.
A method for sealing paperboard, the method comprising: a) providing a first paperboard comprising a first surface (201, 301, 401) and a second surface (202, 302, 402) wherein the second surface is coated with a barrier composition comprising ▪ 0-60% by weight platy particles, ▪ 0-60% by weight precipitated calcium carbonate, and ▪ 40-100% by weight a binder comprising 20-95% by weight one or more synthetic polymers and 5-80% by weight one or more biopolymers, b) subjecting a first part (201a, 301a, 401a, 401b) of the first surface of the first paperboard to temperature of 120-450 °C, preferably 250-450 °C, more preferably of 350-400 °C, and c) pressing part (202b, 302b, 402a, 402b) of the second surface (202, 302, 402) of the first paperboard opposing the first part (201a, 301a, 401a, 401b) of the first surface against a paperboard surface wherein the paperboard surface (201, 301, 403) is not coated with the binder composition. a) providing a first paperboard comprising a first surface (201, 301, 401) and a second surface (202, 302, 402) wherein the second surface is coated with a barrier composition comprising ▪ 0-60% by weight platy particles, ▪ 0-60% by weight precipitated calcium carbonate, and ▪ 40-100% by weight a binder comprising 20-95% by weight one or more synthetic polymers and 5-80% by weight one or more biopolymers, ▪ 0-60% by weight platy particles, ▪ 0-60% by weight precipitated calcium carbonate, and ▪ 40-100% by weight a binder comprising 20-95% by weight one or more synthetic polymers and 5-80% by weight one or more biopolymers, b) subjecting a first part (201a, 301a, 401a, 401b) of the first surface of the first paperboard to temperature of 120-450 °C, preferably 250-450 °C, more preferably of 350-400 °C, and c) pressing part (202b, 302b, 402a, 402b) of the second surface (202, 302, 402) of the first paperboard opposing the first part (201a, 301a, 401a, 401b) of the first surface against a paperboard surface wherein the paperboard surface (201, 301, 403) is not coated with the binder composition.
A method of producing a beta-casein-containing composition, the method comprising the steps of: a) pre-heating a milk by adjusting it to a pre-heating temperature (T pre) in the range of 20-60 degrees C and with a holding time in the range of 1 minute - 1 hour, thereby providing a warm milk, b) subjecting the warm milk to microfiltration, thereby providing a first MF permeate and a first MF retentate, c) optionally, subjecting the first MF retentate to MF-diafiltration, d) adjusting the temperature of a first composition derived from the first MF retentate to a cold temperature (T cold) in the range of 0-15 degrees C and keeping the temperature of the first composition within that range for a duration (t cold) of at least 0.5 hour, thereby obtaining a cooled first composition, e) subjecting the cooled first composition to MF, thereby obtaining a second retentate and a second permeate, which second permeate is enriched with respect to beta-casein, and f) optionally, subjecting the second MF retentate to MF-diafiltration, g) optionally, subjecting a second composition derived from the second permeate to one or more further processing steps, e.g. further purification and/or concentration steps, thereby providing the beta-casein-containing composition. a) pre-heating a milk by adjusting it to a pre-heating temperature (T pre) in the range of 20-60 degrees C and with a holding time in the range of 1 minute - 1 hour, thereby providing a warm milk, b) subjecting the warm milk to microfiltration, thereby providing a first MF permeate and a first MF retentate, c) optionally, subjecting the first MF retentate to MF-diafiltration, d) adjusting the temperature of a first composition derived from the first MF retentate to a cold temperature (T cold) in the range of 0-15 degrees C and keeping the temperature of the first composition within that range for a duration (t cold) of at least 0.5 hour, thereby obtaining a cooled first composition, e) subjecting the cooled first composition to MF, thereby obtaining a second retentate and a second permeate, which second permeate is enriched with respect to beta-casein, and f) optionally, subjecting the second MF retentate to MF-diafiltration, g) optionally, subjecting a second composition derived from the second permeate to one or more further processing steps, e.g. further purification and/or concentration steps,
A stack comprising: at least one layer of non-oriented fibers comprising glass fibers, carbon fibers, or a combination thereof; and at least two uni-directional fibers layers (10 or 10') of uni-directional and non-woven individual thermoplastic fibers composed of a first type of thermoplastic fiber having a length between 0.5 and 3,000 cm and a diameter; wherein said at least two uni-directional fibers layers of uni-directional and non-woven individual thermoplastic fibers make up between 40 and 98 total weight percent of the stack fiber content. at least one layer of non-oriented fibers comprising glass fibers, carbon fibers, or a combination thereof; and at least two uni-directional fibers layers (10 or 10') of uni-directional and non-woven individual thermoplastic fibers composed of a first type of thermoplastic fiber having a length between 0.5 and 3,000 cm and a diameter; wherein said at least two uni-directional fibers layers of uni-directional and non-woven individual thermoplastic fibers make up between 40 and 98 total weight percent of the stack fiber content.
A magnetron assembly, comprising: a body extending along a central axis of the magnetron assembly; a coolant feed structure extending through the body along the central axis to provide a coolant along the central axis to an area beneath the coolant feed structure; and a rotatable magnet assembly coupled to a bottom of the body and having a plurality of magnets, wherein the body is fixedly coupled to the rotatable magnet assembly, wherein the rotatable magnet assembly is rotatably coupled to the coolant feed structure to allow the rotatable magnet assembly to rotate while the coolant feed structure remains stationary, and wherein the rotatable magnet assembly is configured to move vertically. a body extending along a central axis of the magnetron assembly; a coolant feed structure extending through the body along the central axis to provide a coolant along the central axis to an area beneath the coolant feed structure; and a rotatable magnet assembly coupled to a bottom of the body and having a plurality of magnets, wherein the body is fixedly coupled to the rotatable magnet assembly, wherein the rotatable magnet assembly is rotatably coupled to the coolant feed structure to allow the rotatable magnet assembly to rotate while the coolant feed structure remains stationary, and wherein the rotatable magnet assembly is configured to move vertically.
An electrochemical cell comprising: a negative electrode comprising a first assembly of carbon nanotubes supporting a silicon active material; a positive electrode comprising a second assembly of carbon nanotubes supporting a sulfur active material; and an electrolyte provided between said positive electrode and said negative electrode; said electrolyte capable of conducting charge carriers; and a substrate; wherein said first assembly of carbon nanotubes and said second assembly of carbon nanotubes are physically separated from each other and are supported by a common surface that is an external surface of said substrate; wherein said first assembly of carbon nanotubes is provided as one or more first strips supported by said substrate and said second assembly of carbon nanotubes is provided as one or more second strips supported by said substrate, the strips arranged in a space filling geometry selected from an interleaved geometry, a nested geometry, a coiled geometry, and a spiral geometry. a negative electrode comprising a first assembly of carbon nanotubes supporting a silicon active material; a positive electrode comprising a second assembly of carbon nanotubes supporting a sulfur active material; and an electrolyte provided between said positive electrode and said negative electrode; said electrolyte capable of conducting charge carriers; and
Method for manufacturing a workpiece into a product, wherein the method is performed by an apparatus providing a laser beam coupled into a pressurized fluid jet, the method comprising: executing multiple cuts of the workpiece with the laser beam according to a predetermined cut-sequence to remove workpiece material with each completed cut, executing multiple rotations of the workpiece around the same axis of revolution according to a predetermined rotation-sequence, wherein one rotation by an angle determined from the predetermined rotation-sequence is executed after each completed cut, and wherein for executing a cut the laser beam is moved once along a two-dimensional path determined from the predetermined cut-sequence. executing multiple cuts of the workpiece with the laser beam according to a predetermined cut-sequence to remove workpiece material with each completed cut, executing multiple rotations of the workpiece around the same axis of revolution according to a predetermined rotation-sequence, wherein one rotation by an angle determined from the predetermined rotation-sequence is executed after each completed cut, and wherein for executing a cut the laser beam is moved once along a two-dimensional path determined from the predetermined cut-sequence.
A cutter assembly comprising: a flexible sickle bar extending in a horizontal plane; knife sections mounted to and along the sickle bar; a sickle drive adapted to reciprocatively drive the sickle bar; a sickle bar drive mount coupled to the sickle bar, the sickle bar drive mount comprising an arm extending along a first horizontal axis parallel and mounted to the sickle bar; and a sickle bar drive eye connected to the sickle drive, wherein the sickle drive has a sickle drive bearing received within the sickle bar drive eye and the sickle bar drive eye is pivotally coupled to the arm for pivotal movement about a second horizontal axis perpendicular to the first axis; characterized in that the pivotal connection between the arm and the sickle bar drive eye is provided by a trunnion extending from the arm which trunnion is pinned to a pair of opposite ears extending from the sickle bar drive eye. a flexible sickle bar extending in a horizontal plane; knife sections mounted to and along the sickle bar; a sickle drive adapted to reciprocatively drive the sickle bar; a sickle bar drive mount coupled to the sickle bar, the sickle bar drive mount comprising an arm extending along a first horizontal axis parallel and mounted to the sickle bar; and a sickle bar drive eye connected to the sickle drive, wherein the sickle drive has a sickle drive bearing received within the sickle bar drive eye and the sickle bar drive eye is pivotally coupled to the arm for pivotal movement about a second horizontal axis perpendicular to the first axis; characterized in that the pivotal connection between the arm and the sickle bar drive eye is provided by a trunnion extending from the arm which trunnion is pinned to a pair of opposite ears extending from the sickle bar drive eye.
A transmission apparatus comprising: a modulation signal generating section configured to generate one OFDM modulation signal (2910, 3010) or a plurality of OFDM modulation signals (2910, 2920, 3010, 3020), and a plurality of antenna units for transmitting the one OFDM modulation signal or the plurality of OFDM modulation signals, wherein, a first OFDM modulation signal includes multiplex information symbols (2901, 2903, 3001), the multiplex information symbol carries multiplex information indicating whether the first OFDM modulation signal and a second OFDM modulation signal are simultaneously transmitted on a same frequency band from a first antenna unit and second antenna unit, respectively, following the multiplex information symbol, or only the first OFDM modulation signal is transmitted from the first antenna following the multiplex information symbol. a modulation signal generating section configured to generate one OFDM modulation signal (2910, 3010) or a plurality of OFDM modulation signals (2910, 2920, 3010, 3020), and a plurality of antenna units for transmitting the one OFDM modulation signal or the plurality of OFDM modulation signals, wherein, a first OFDM modulation signal includes multiplex information symbols (2901, 2903, 3001), the multiplex information symbol carries multiplex information indicating whether the first OFDM modulation signal and a second OFDM modulation signal are simultaneously transmitted on a same frequency band from a first antenna unit and second antenna unit, respectively, following the multiplex information symbol, or only the first OFDM modulation signal is transmitted from the first antenna following the multiplex information symbol.
A method for forming a buried metal line in a semiconductor substrate, the method comprising: at a position between a pair of semiconductor structures (131, 132) protruding from the semiconductor substrate, forming a metal line trench in the semiconductor substrate at a level below a base of each semiconductor structure of the pair, forming the metal line in the metal line trench by means of area selective deposition of a metal line material, followed by embedding the pair of semiconductor structures in an insulating layer, characterized in that the method further comprises, prior to forming the metal line in the metal line trench: forming a barrier layer in the trench, wherein the barrier layer is adapted to promote selective growth of the metal line material in the metal line trench. at a position between a pair of semiconductor structures (131, 132) protruding from the semiconductor substrate, forming a metal line trench in the semiconductor substrate at a level below a base of each semiconductor structure of the pair, forming the metal line in the metal line trench by means of area selective deposition of a metal line material, followed by embedding the pair of semiconductor structures in an insulating layer, characterized in that the method further comprises, prior to forming the metal line in the metal line trench: forming a barrier layer in the trench, wherein the barrier layer is adapted to promote selective growth of the metal line material in the metal line trench.
Procedure for coating surfaces of a component under vacuum using a vacuum coating system, whereby the procedure includes at least two of the following process steps: a) plasma activation of the component surface to be coated in an evacuated plasma activation chamber and/or b) applying the coat in an evacuated coating chamber and/or c) plasma polymerization to create a protective layer on the applied coat in an evacuated plasma polymerization chamber, wherein the plasma activation chamber and/or coating chamber and/or plasma polymerization chamber are ventilated and opened between at least two of the aforementioned process steps, and the component is fed to the subsequent process step. a) plasma activation of the component surface to be coated in an evacuated plasma activation chamber and/or b) applying the coat in an evacuated coating chamber and/or c) plasma polymerization to create a protective layer on the applied coat in an evacuated plasma polymerization chamber,
A reaction vessel for an automatic chemical or biological analysis device, with said vessel having an open upper end and containing a means for stirring a fluid, wherein the upper end of the vessel carries a part for connecting same, by snapping, with an identical connecting part of another vessel of the same type, with the connecting part being clipped or elastically snap-fastened to the upper end of the vessel, with said connecting part comprising means for retaining the fluid stirring means, such retaining means extending inside the vessel, with the fluid stirring means being a ball made of a ferromagnetic material, the retaining means formed on the connecting part comprising at least one thin plate or lamella extending downwardly inside the vessel along a longitudinal wall thereof and having a lower edge forming one edge guiding and retaining the ball mentioned above.