mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing a printed element (100, 200, 20, 30), the method comprising: printing indicia by dye-sublimation on a first material (110, 210); positioning a second material (120, 220) adjacent to the first material (110, 210); characterized by positioning a dye retention layer (305, 405) adjacent to the first material (110, 210) and the indicia; and compressing and heating the first material (110, 210), the second material (120, 220), and the dye retention layer (305, 405) to secure the first material (110, 210) to the second material (120, 220). printing indicia by dye-sublimation on a first material (110, 210); positioning a second material (120, 220) adjacent to the first material (110, 210); characterized by positioning a dye retention layer (305, 405) adjacent to the first material (110, 210) and the indicia; and compressing and heating the first material (110, 210), the second material (120, 220), and the dye retention layer (305, 405) to secure the first material (110, 210) to the second material (120, 220).
A dishwasher comprising a body, a door providing access into the body and which opens from the top downwards by rotating around a horizontal axis, and a locking mechanism providing the locking of the door, having a bolt, a housing wherein the bolt is seated when the door is in the closed position and a stress means that is connected to the bolt and a door opening mechanism which provides the door to be partially opened by being pushed at the end of the washing and drying processes so that a gap remains between the door and the body, characterized by an adjustment means that simultaneously changes the stiffness level of the stress means and actuates the door opening mechanism at the end of the washing cycle.
An alkoxide compound represented by General Formula below: wherein R 1 to R 3 each independently represent hydrogen, a C 1-12 hydrocarbon group, or a group represented by General Formulas (X-1) to (X-8) below; R 4 represents a C 1-12 hydrocarbon group or a group represented by General Formulas (X-1) to (X-8) below; wherein at least one of R 1 and R 2 is a C 1-5 alkyl group, di (trimethylsilyl) amino group, or di(triethylsilyl)amino group and at least one of R 3 and R 4 is a C 1-5 alkyl group, di(trimethylsilyl)amino group, or di(triethylsilyl)amino group; provided that when R 1 is a methyl group, R 2 is a methyl group or an ethyl group and R 4 is a methyl group, R 3 represents hydrogen, a C 4-12 hydrocarbon group or a group represented by General Formulas (X-1) to (X-8) below; L represents hydrogen, halogen, a hydroxyl group, an amino group, an azide group, a phosphido group, a nitrile group, a carbonyl group, a C 1-12 hydrocarbon group or a group represented by General Formulas (L-1) to (L-13) below; and M represents a metal atom being copper, iron, nickel, cobalt or manganese, n represents an integer of 1 or more, m represents an integer of 0 or more, and n + m represents a valence of the metal atom, wherein R X1 to R X12 each independently represent hydrogen or a C 1-12 hydrocarbon group, and A 1 to A 3 each represent a C 1-6 alkanediyl group, wherein R L1 to R L31 each independently represent hydrogen or a C 1-12 hydrocarbon group, and A 4 to A 7 each represent a C 1-6 alkanediyl group; provided that when R L1 to R L31 are each a C 1-12 hydrocarbon group, a hydrogen atom in the hydrocarbon group may be substituted with a halogen atom or an amino group.
Vehicle comprising a crane and a crane control for the crane arranged on the vehicle, comprising at least one operating unit operable by an operator for controlling working functions of the crane, wherein control signals can be input to actuators of the crane by means of the operating unit, wherein there is provided a mounting arrangement for mounting the operating unit in a driving cab of the vehicle and a support arrangement for the operating unit, which connects the operating unit to the mounting arrangement, wherein the support arrangement for the operating unit is supported limitedly moveably between at least two positions of which one position is in the form of a working position, characterised in that in this working position the operating unit is between a steering arrangement of the vehicle and a driving seat and of which another position is in the form of a storage position in which the operating unit is moved away from the steering arrangement of the vehicle, wherein the mounting arrangement of the crane control is mounted in a driving cab of the vehicle.
Device for transferring data packets between at least two data networks comprising: - first means for storing the data packets originating from a first network, - second means for storing the data packets intended for at least one second network, - means for filtering (3, 8, 9, 11) the data packets originating from the first network, and intended for sorting the said data packets so as to determine whether the said data packets are intended for at least one second network, - means for transferring (5, 6, 7, 12) the data packets from the first means of storage to at least the second means of storage when the data packets are intended for at least one second network, - means (4, 15) for writing and for reading the data packets to and from the at least two means of storage by slaving the writing of a data packet intended for at least one second network into the second means of storage to the reading of the said data packet from the first means of storage so that the transfer time inside the device is constant for all the data packets. Characterized in that it comprises means (10, 14) for replacing the data packets originating from the first network which are not intended for at least one second network by data packets, so-called signalling packets, so as to transmit them to a second network by inserting them in a synchronous manner between the packets received from the first network and transmitted to the second network. - first means for storing the data packets originating from a first network, - second means for storing the data packets intended for at least one second network, - means for filtering (3, 8, 9, 11) the data packets originating from the first network, and intended for sorting the said data packets so as to determine whether the said data packets are intended for at least one second network, - means for transferring (5, 6, 7, 12) the data packets from the first means of storage to at least the second means of storage when the data packets are intended for at least one second network, - means (4, 15) for writing and for reading the data packets to and from the at least two means of storage by slaving the writing of a data packet intended for at least one second network into the second means of storage to the reading of the said data packet from the first means of storage so that the transfer time inside the device is constant for all the data packets.
A xylylenediamine composition comprising xylylenediamine and bis(methylbenzyl)amine, a content of the bis(methylbenzyl)amine being 0.0005 to 0.1 parts by mass based on 100 parts by mass of the xylylenediamine.
Method for producing metallized semiconductor substrates, comprising the steps: - immersion of a semiconductor substrate in a coating bath containing an electrolyte, - preferably light-induced or light-assisted coating of the surface of the immersed semiconductor substrate, and - transfer of the semiconductor substrate into a rinsing device, in which metal residues from the electrolyte are as far as possible removed from the coated surface with the aid of a liquid rinsing medium, wherein the semiconductor substrate is subjected to cascade rinsing in the rinsing device and metal-containing rinsing medium from the rinsing device is transferred into the coating bath and therein is discharged from the bath and/or replaces evaporated electrolyte at least partially, and wherein the transfer of the metal-containing rinsing medium from the rinsing device is not directly back into the coating bath, but on a detour via a blowing zone, wherein the rinsing medium is sprayed and thereby evaporates. - immersion of a semiconductor substrate in a coating bath containing an electrolyte, - preferably light-induced or light-assisted coating of the surface of the immersed semiconductor substrate, and - transfer of the semiconductor substrate into a rinsing device, in which metal residues from the electrolyte are as far as possible removed from the coated surface with the aid of a liquid rinsing medium,
Use of a chemical compound as an etchant for the removal of the unmodified areas of a chalcogenide-based glass, while leaving the imagewise modified areas un-removed, whereby said compound is N-(4-methoxybenzyl)-(pyren-1-yl-methyl)amine or N-(benzyl)-(pyren-1-ylmethyl)amine.
A method for making a tris-(2-hydroxyethyl)-methylammonium methylsulfate fatty acid ester comprising a step of quaternizing a tris-(2-hydroxyethyl)-amine fatty acid ester with dimethylsulfate, wherein the quaternizing is carried out in the presence of a solid acid scavenger and wherein the fatty acid moieties of said tris-(2-hydroxyethyl)-amine fatty acid ester have an average chain length of from 16 to 18 carbon atoms.
An ink jet recording apparatus comprising: a recording head including a plurality of element columns, wherein each element column includes a plurality of recording elements arrayed in a first direction to discharge ink for forming pixels on a print medium, and is divided into a plurality of groups including a plurality of continuous recording elements and the plurality of element columns are arranged in a second direction intersecting the first direction; a conveyance unit configured to convey the print medium in the second direction; and a driving unit configured to drive the recording head and execute control so that the plurality of recording elements in each group is driven in order at a specific time interval, wherein a number of the element columns is equal to or larger than a number of recording elements in a group; wherein the apparatus is characterised in that the driving unit is configured to control driving of the plurality of element columns so that pixels in one column extending in the first direction are recorded by using the plurality of element arrays within an area of the recording medium corresponding to a conveyance with in the second direction of the recording medium conveyed by the conveyance unit within the specific time interval. a recording head including a plurality of element columns, wherein each element column includes a plurality of recording elements arrayed in a first direction to discharge ink for forming pixels on a print medium, and is divided into a plurality of groups including a plurality of continuous recording elements and the plurality of element columns are arranged in a second direction intersecting the first direction; a conveyance unit configured to convey the print medium in the second direction; and a driving unit configured to drive the recording head and execute control so that the plurality of recording elements in each group is driven in order at a specific time interval, wherein a number of the element columns is equal to or larger than a number of recording elements in a group; wherein the apparatus is characterised in that the driving unit is configured to control driving of the plurality of element columns so that pixels in one column extending in the first direction are recorded by using the plurality of element arrays within an area of the recording medium corresponding to a conveyance with in the second direction of the recording medium conveyed by the conveyance unit within the specific time interval.
A method for recycling liquid crystal, the method comprising: receiving a liquid crystal mixture; conducting at least one separation process to separate a first liquid crystal group from the liquid crystal mixture; conducting at least one additional separation process to separate a second liquid crystal group from the remaining of the liquid crystal mixture; conducting at least one mapping process; wherein the mapping process includes: determining the desired physical properties of a target liquid crystal mixture, and the physical properties include Δε (target), Δn (target), and T NI(target); selecting the first liquid crystal group and the second liquid crystal group for forming the reformulated liquid crystal mixture; and determining the amount or the weight ratios of the first and second liquid crystal groups to be combined for forming the reformulated liquid crystal mixture; the method being characterized by forming a reformulated liquid crystal mixture using the first liquid crystal group and the second liquid crystal group. receiving a liquid crystal mixture; conducting at least one separation process to separate a first liquid crystal group from the liquid crystal mixture; conducting at least one additional separation process to separate a second liquid crystal group from the remaining of the liquid crystal mixture; conducting at least one mapping process; wherein the mapping process includes: determining the desired physical properties of a target liquid crystal mixture, and the physical properties include Δε (target), Δn (target), and T NI(target); selecting the first liquid crystal group and the second liquid crystal group for forming the reformulated liquid crystal mixture; and determining the amount or the weight ratios of the first and second liquid crystal groups to be combined for forming the reformulated liquid crystal mixture; the method being characterized by determining the desired physical properties of a target liquid crystal mixture, and the physical properties include Δε (target), Δn (target), and T NI(target); selecting the first liquid crystal group and the second liquid crystal group for forming the reformulated liquid crystal mixture; and determining the amount or the weight ratios of the first and second liquid crystal groups to be combined for forming the reformulated liquid crystal mixture; the method being characterized by forming a reformulated liquid crystal mixture using the first liquid crystal group and the second liquid crystal group.
A conveyor belt (1,1A,1B) employed in a belt conveyor apparatus which comprises: a plurality of rollers; a detection portion (100,100A,100B) configured to detect a state of the rollers; and a demountable processing portion configured to connect to the detection portion (100,100A,100B), for processing an output signal from the detection portion (100,100A,100B), wherein the conveyor belt (1,1A,1B) has a mount portion on which the processing portion is mounted, characterized in that, the mount portion is provided at a widthwise end part of the conveyor belt (1,1A,1B). a plurality of rollers; a detection portion (100,100A,100B) configured to detect a state of the rollers; and a demountable processing portion configured to connect to the detection portion (100,100A,100B), for processing an output signal from the detection portion (100,100A,100B), wherein
An audio data processing method, comprising: acquiring a lyric file according to audio data to be processed; segmenting the audio data according to a sentence in the lyric file to obtain an audio data segment; extracting data corresponding to an end syllable in the audio data segment; the method further comprising: performing harmonic processing on the data corresponding to the end syllable, wherein the step of performing harmonic processing on the data corresponding to the end syllable being characterised by taking data corresponding to the end syllable as an original sound, duplicating the original sound, and performing falling tone processing to obtain intermediate audio data, wherein the falling tone processing is related to a lowering pitch shift, duplicating the intermediate audio data and obtaining a plurality of the intermediate audio data, and performing random delay and attenuation processing on each intermediate audio data to obtain a plurality of harmonic sound effect data, and superposing the original sound and the harmonic sound effect data to obtain audio data with simulative harmonic sound effect. acquiring a lyric file according to audio data to be processed; segmenting the audio data according to a sentence in the lyric file to obtain an audio data segment; extracting data corresponding to an end syllable in the audio data segment; the method further comprising: performing harmonic processing on the data corresponding to the end syllable, wherein the step of performing harmonic processing on the data corresponding to the end syllable being characterised by taking data corresponding to the end syllable as an original sound, duplicating the original sound, and performing falling tone processing to obtain intermediate audio data, wherein the falling tone processing is related to a lowering pitch shift, duplicating the intermediate audio data and obtaining a plurality of the intermediate audio data, and performing random delay and attenuation processing on each intermediate audio data to obtain a plurality of harmonic sound effect data, and superposing the original sound and the harmonic sound effect data to obtain audio data with simulative harmonic sound effect.
A packing material for size exclusion chromatography, comprising porous particles comprising a structure represented by the following formula on a surface of a copolymer comprising at least glycerol 1,3-dimethacrylate and glycidyl methacrylate as monomer units: [Chem. 1] R 1 -O-CH 2 -[CH]n-CH 2 -O-R 2 wherein R 1 represents a partial structure of the porous particles, R 2 represents a hydrogen atom or the partial structure of the porous particles, and n represents an integer of 1 to 5, wherein a ring-opening rate of glycidyl groups of the porous particles is 95% or more, and wherein the copolymer comprises 6 to 29 mol% of glycerol 1,3-dimethacrylate and 71 to 94 mol% of glycidyl methacrylate as the monomer units. wherein R 1 represents a partial structure of the porous particles, R 2 represents a hydrogen atom or the partial structure of the porous particles, and n represents an integer of 1 to 5, wherein a ring-opening rate of glycidyl groups of the porous particles is 95% or more, and wherein the copolymer comprises 6 to 29 mol% of glycerol 1,3-dimethacrylate and 71 to 94 mol% of glycidyl methacrylate as the monomer units.
A laser metal deposition system comprising a delivery system adapted to deliver a metal wire to an inlet orifice of a feed nozzle, the feed nozzle comprising a tubular wall defining a cylindrical duct passing through the feed nozzle along a longitudinal axis, between, on the one hand, an inlet orifice and, on the other hand, an outlet orifice, and a laser head adapted to generate the melting of the metal at the outlet orifice of the feed nozzle, said tubular wall of the feed nozzle further comprising a plurality of external fins adapted to allow heat dissipation by heat exchange with the immediate environment of the feed nozzle, characterised in that said external fins are annular in shape, each having a thickness, along the longitudinal axis, of between 0.7 and 1.3 millimetres and/or being spaced apart, along the longitudinal axis, by a distance of between 0.7 and 1.3 millimetres. said tubular wall of the feed nozzle further comprising a plurality of external fins adapted to allow heat dissipation by heat exchange with the immediate environment of the feed nozzle, characterised in that said external fins are annular in shape, each having a thickness, along the longitudinal axis, of between 0.7 and 1.3 millimetres and/or being spaced apart, along the longitudinal axis, by a distance of between 0.7 and 1.3 millimetres.
A method comprising: storing a first portion of an application in a computer memory of an electronic device, wherein the application further includes a second portion required for execution of the application; storing a second portion of the application in a secure isolated region of the computer memory of the electronic device, the second portion of the application including an encrypted portion and a plaintext portion, wherein the encrypted portion prevents the first portion and the second portion of the application from functioning correctly until the encrypted portion is accurately decrypted; establishing, using the plaintext portion, a secure encrypted communication channel with a server; sending, using the secure encrypted communication channel, data to the server; based at least in part on sending the data, receiving, using the secure encrypted communication channel, a decryption key from the server; decrypting the encrypted portion using the decryption key; and executing the first portion of the application from the computer memory of the electronic device and both of the encrypted portion and the plaintext portion of the second portion of the application from the secure isolated region of the computer memory in response to decrypting the encrypted portion. storing a first portion of an application in a computer memory of an electronic device, wherein the application further includes a second portion required for execution of the application; storing a second portion of the application in a secure isolated region of the computer memory of the electronic device, the second portion of the application including an encrypted portion and a plaintext portion, wherein the encrypted portion prevents the first portion and the second portion of the application from functioning correctly until the encrypted portion is accurately decrypted; establishing, using the plaintext portion, a secure encrypted communication channel with a server; sending, using the secure encrypted communication channel, data to the server; based at least in part on sending the data, receiving, using the secure encrypted communication channel, a decryption key from the server; decrypting the encrypted portion using the decryption key; and executing the first portion of the application from the computer memory of the electronic device and both of the encrypted portion and the plaintext portion of the second portion of the application from the secure isolated region of the computer memory in response to decrypting the encrypted portion.
An engineered three dimensional pulmonary model tissue culture, wherein said model tissue culture a) is free of an artificial tissue scaffold wherein said artificial tissue scaffold is a porous three dimensional matrix, a three dimensional gel matrix or a porous membrane support, b) comprises cultured mesenchymal cells, which are fibroblasts, c) comprises cultured pulmonary epithelial cells, d) has a morphology of one or more cellular aggregate(s), wherein the aggregates comprise a multiplicity of cavities, e) wherein the epithelial cells express at least one alveolar type II (ATII) epithelial differentiation marker selected from TTF1 transcription factor, cytokeratin 7, surfactant protein A (SFPA), surfactant protein C (SFPC) and aquaporin 3 (AQP 3), wherein said model tissue culture comprises cultured primary cells obtained from a subject. a) is free of an artificial tissue scaffold wherein said artificial tissue scaffold is a porous three dimensional matrix, a three dimensional gel matrix or a porous membrane support, b) comprises cultured mesenchymal cells, which are fibroblasts, c) comprises cultured pulmonary epithelial cells, d) has a morphology of one or more cellular aggregate(s), wherein the aggregates comprise a multiplicity of cavities, e) wherein the epithelial cells express at least one alveolar type II (ATII) epithelial differentiation marker selected from TTF1 transcription factor, cytokeratin 7, surfactant protein A (SFPA), surfactant protein C (SFPC) and aquaporin 3 (AQP 3),