mhurhangee/ep-ind-claims huggingface dataset:
A plate heat-exchanger comprising: a first outer plate and a second outer plate spaced apart from each other, and a stack of heat transfer plates located between and pressed together by the first and second outer plates (2,3), wherein the first and second outer plates (2,3) and the stack of heat transfer plates are pressed together by means of a plurality of essentially parallel threaded tightening members and nuts acting on the first and second outer plates (2,3), characterised in that the plate heat-exchanger further comprises at least one nut locking member that is configured to secure at least two nuts acting on the same outer plate and located on different tightening members against accidental release, and that the at least one nut locking member has a U-shaped cross-sectional profile or the at least one nut locking member over a first axial length thereof has a substantially flat cross-sectional profile and over a second axial length thereof has a U-shaped cross-sectional profile, wherein the U-shaped cross-sectional profile has a base wall, two opposite side walls and an opening, wherein the opening of the at least one nut locking member is facing the first or second outer plate (2,3), and wherein each of the at least two nuts located on different tightening members are located between the side walls of the at least one nut locking member, which side walls define at least one nut locking surface. a first outer plate and a second outer plate spaced apart from each other, and a stack of heat transfer plates located between and pressed together by the first and second outer plates (2,3), wherein the first and second outer plates (2,3) and the stack of heat transfer plates are pressed together by means of a plurality of essentially parallel threaded tightening members and nuts acting on the first and second outer plates (2,3), characterised in that the plate heat-exchanger further comprises at least one nut locking member that is configured to secure at least two nuts acting on the same outer plate and located on different tightening members against accidental release, and that the at least one nut locking member has a U-shaped cross-sectional profile or the at least one nut locking member over a first axial length thereof has a substantially flat cross-sectional profile and over a second axial length thereof has a U-shaped cross-sectional profile, wherein the U-shaped cross-sectional profile has a base wall, two opposite side walls and an opening, wherein the opening of the at least one nut locking member is facing the first or second outer plate (2,3), and wherein each of the at least two nuts located on different tightening members are located between the side walls of the at least one nut locking member, which side walls define at least one nut locking surface.
An optical element comprising a lens substrate (20, 30) and a cured product including a polymer arranged on one surface of the lens substrate, wherein the polymer is obtained by subjecting a compound represented by the following general formula to homopolymerization or copolymerization: in the general formula, R 1 and R 2 are each independently selected from a substituted or unsubstituted alkyl group having 1 to 10 carbon atoms, and a substituted or unsubstituted alkylene group having 1 to 8 carbon atoms, the alkylene group having a polymerizable functional group, and R 3 to R 12 are each independently selected from a hydrogen atom, a cyano group, a trifluoromethyl group, a substituted or unsubstituted alkyl group, a substituted or unsubstituted alkylene group having a polymerizable functional group, and a polymerizable functional group, provided that at least one of R 3 to R 12 represents an electron-withdrawing group, and at least one of R 1 to R 12 has a polymerizable functional group.
A method of operating an injection molding machine, the method comprising: providing an injection molding machine having a controller adapted to control operation thereof; entering a learning mode of the controller to obtain a reference load curve; upon obtaining the reference load curve, obtaining a plurality of set points along the reference load curve; and upon obtaining the reference load curve and the plurality of set points, entering an operational mode of the controller; characterized by, using the controller, operating the injection molding machine at one of the plurality of set points such that an average operational load value of the injection molding machine remains at or below the reference load curve. providing an injection molding machine having a controller adapted to control operation thereof; entering a learning mode of the controller to obtain a reference load curve; upon obtaining the reference load curve, obtaining a plurality of set points along the reference load curve; and upon obtaining the reference load curve and the plurality of set points, entering an operational mode of the controller; characterized by, using the controller, operating the injection molding machine at one of the plurality of set points such that an average operational load value of the injection molding machine remains at or below the reference load curve.
A compound preparation, wherein the compound preparation comprises raw medicinal materials consisting of: 15 parts by weight of raw Astragali radix, 15 parts by weight of Rehmaimiae radix praeparata, 15 parts by weight of Actyranthes bidentata, 10 parts by weight of Jujubae fructus, 10 parts by weight of Lycii fructus, 10 parts by weight of parched Ziziphi spinosae semen, 6 parts by weight of Angelicae smensis radix, 3 parts by weight of Carthami flos, 10 parts by weight of Poria, 10 parts by weight of parched Atractylodis macrocephalae rhizoma and 15 parts by weight of Zaocys, and wherein a dosage form of the compound preparation is oral or granules, and is prepared by rinsing the medicinal materials with water to remove impurities; soaking the raw materials in deionized water at 25°C for 120 min; performing water extraction, and decocting at 100°C for 20 min; taking the decoction and allowing same to stand at 4°C for 12 h under sterile conditions, performing filtration and concentration, and adding benzoic acid or sodium benzoate; and performing filling and sterilization to obtain an oral liquid, or performing drying, granulation, filling and sterilization to obtain granules. soaking the raw materials in deionized water at 25°C for 120 min; performing water extraction, and decocting at 100°C for 20 min; taking the decoction and allowing same to stand at 4°C for 12 h under sterile conditions, performing filtration and concentration, and adding benzoic acid or sodium benzoate; and performing filling and sterilization to obtain an oral liquid, or performing drying, granulation, filling and sterilization to obtain granules.
An hepatocyte growth factor mimic having the general formula: where R 1 is one of an N-acyl group, and an amino acid, said amino acid being selected from the group consisting of tyrosine, phenylalanine, aspartic acid, arginine, isoleucine, serine, histidine, glycine, cysteine, methionine, tryptophan, lysine, norvaline, ornithine, and s-benzyl cysteine; R 2 is an amino acid selected from the group selected from the group consisting of tyrosine, phenylalanine, aspartic acid, arginine, isoleucine, serine, histidine, glycine, cysteine, methionine, tryptophan, lysine and valine; R 3 is isoleucine; and n ranges from 3-6; and wherein covalent bonds 1, 2 and 3 are selected from the group consisting of peptide bonds or reduced peptide bonds. R 1 is one of an N-acyl group, and an amino acid, said amino acid being selected from the group consisting of tyrosine, phenylalanine, aspartic acid, arginine, isoleucine, serine, histidine, glycine, cysteine, methionine, tryptophan, lysine, norvaline, ornithine, and s-benzyl cysteine; R 2 is an amino acid selected from the group selected from the group consisting of tyrosine, phenylalanine, aspartic acid, arginine, isoleucine, serine, histidine, glycine, cysteine, methionine, tryptophan, lysine and valine; R 3 is isoleucine; and n ranges from 3-6;
A circular staple cartridge for use with a circular surgical stapling instrument, wherein the circular staple cartridge comprises: an outer tissue-contacting surface comprising at least one first staple cavity, wherein the at least one first staple cavity is configured to receive at least one first staple including a first staple leg with a first tip protruding above the outer tissue-contacting surface when the first staple is in an unfired position; an inner tissue-contacting surface comprising at least one second staple cavity; characterised by at least one pocket extender protruding from the outer tissue-contacting surface, wherein the at least one pocket extender is defined about a perimeter of the at least one first staple cavity, and wherein the pocket extender comprises a jacket configured to conceal the first tip when the first staple is in the unfired position, and wherein the jacket comprises: an end; an inner side wall extending from the end, wherein the inner side wall comprises a first height from the outer tissue-contacting surface; and an outer side wall extending from the end, wherein the outer side wall comprises a second height from the outer tissue-contacting surface, and wherein the first height is greater than the second height. an outer tissue-contacting surface comprising at least one first staple cavity, wherein the at least one first staple cavity is configured to receive at least one first staple including a first staple leg with a first tip protruding above the outer tissue-contacting surface when the first staple is in an unfired position; an inner tissue-contacting surface comprising at least one second staple cavity; characterised by at least one pocket extender protruding from the outer tissue-contacting surface, wherein the at least one pocket extender is defined about a perimeter of the at least one first staple cavity, and wherein the pocket extender comprises a jacket configured to conceal the first tip when the first staple is in the unfired position, and wherein the jacket comprises: an end; an inner side wall extending from the end, wherein the inner side wall comprises a first height from the outer tissue-contacting surface; and an outer side wall extending from the end, wherein the outer side wall comprises a second height from the outer tissue-contacting surface, and wherein the first height is greater than the second height. an end; an inner side wall extending from the end, wherein the inner side wall comprises a first height from the outer tissue-contacting surface; and an outer side wall extending from the end, wherein the outer side wall comprises a second height from the outer tissue-contacting surface, and wherein the first height is greater than the second height.
Multi-core flat cable system with a multi-core flat cable with a plurality of conductors (L1, L2) and an insulating sheath surrounding the plurality of conductors (L1, L2), wherein the plurality of conductors (L1, L2) extend substantially along a longitudinal direction of the multi-core flat cable and the conductors (L1, L2) of the plurality of conductors (L1, L2) are substantially parallel to each other in a width direction perpendicular to the longitudinal direction, wherein a first conductor of the plurality of conductors (L1, L2) is exposed in at least one section (6a; 6b; 6c; 6d; 6e; 6f; 6g) along the longitudinal direction with respect to the insulating sheath and is interrupted in the section (6a; 6b; 6c; 6d; 6e; 6f; 6g) exposed relative to the insulating sheath, so that the first conductor has two ends aligned with each other in the exposed section (6a; 6b; 6c; 6d; 6e; 6f; 6g), wherein at least one fuse section (5a; 5b; 5c; 5d; 5e; 5f; 5g) is formed in which the two ends aligned with each other are electrically conductively connected to each other by a fusible conductor, characterized in that the multi-core flat cable system further comprises a housing in which the at least one fuse section (5a; 5b; 5c; 5d; 5e; 5f; 5g) is accommodated.
A method comprising: receiving, from a transmitter in a first cell of a first digital broadcast network, a signaling frame comprising Transmission Parameter Signaling bits that provide transmission parameters of the first cell and provide transmission parameters of a second cell of a second digital broadcast network, the transmission parameters of the second cell comprising a transmission frequency, a guard interval and a transmission mode, wherein the first digital broadcast network is different to the second digital broadcast network; obtaining the transmission parameters of the second cell contained within the TPS bits based on detecting a type parameter in the TPS bits of the signaling frame; and detecting, by a device, the second cell based on at least one of the TPS bits in the received signaling frame receiving, from a transmitter in a first cell of a first digital broadcast network, a signaling frame comprising Transmission Parameter Signaling bits that provide transmission parameters of the first cell and provide transmission parameters of a second cell of a second digital broadcast network, the transmission parameters of the second cell comprising a transmission frequency, a guard interval and a transmission mode, wherein the first digital broadcast network is different to the second digital broadcast network; obtaining the transmission parameters of the second cell contained within the TPS bits based on detecting a type parameter in the TPS bits of the signaling frame; and detecting, by a device, the second cell based on at least one of the TPS bits in the received signaling frame
A method of producing a photonic integrated circuit, the method comprising the steps of: - integrating at least one III-V hybrid device (415, 603) on a source substrate having at least a top semiconductor or dielectric waveguide layer (412, 413, 901), and - transferring (205, 207) by transfer-printing or by flip-chip bonding the III-V hybrid device (415, 603) and at least part of the top semiconductor or dielectric waveguide layer (412, 413, 901) of the source substrate to a semiconductor-on-insulator or dielectric-on-insulator host substrate (602, 701, 802, 922). - integrating at least one III-V hybrid device (415, 603) on a source substrate having at least a top semiconductor or dielectric waveguide layer (412, 413, 901), and - transferring (205, 207) by transfer-printing or by flip-chip bonding the III-V hybrid device (415, 603) and at least part of the top semiconductor or dielectric waveguide layer (412, 413, 901) of the source substrate to a semiconductor-on-insulator or dielectric-on-insulator host substrate (602, 701, 802, 922).
A polypeptide consisting of between 20 and 55 amino acids, which polypeptide comprises SEQ ID NO: 35, a polypeptide sequence having at least 90% homology with SEQ ID NO: 35, or a sub-sequence of SEQ ID NO: 35, the sub-sequences having 20 amino acids or more, wherein the polypeptide is not an entire arthropod saliva protein, wherein the polypeptide is immunogenic in a vertebrate and wherein the vertebrate produces immune system cells capable of recognising at least one epitope from an arthropod saliva protein fraction.
A method for welding a thick plate (110, 120) into a welded assembly, comprising the steps: a) on a first plate placing a second plate having a periphery, in direct contact with the first plate, wherein the first and second plates (110, 120) are of materials that do not form unacceptable bubbling in the weld when heated and are metals that are selected from the group comprising ferrous materials, nickel alloys and copper alloys, and the group comprising titanium and zirconium, and wherein the second plate is a thick plate having a thickness greater than 3 mm, and b) through welding the second plate to the first plate, wherein the through welding is performed using laser welding, wherein the first and second plates are welded within and along the periphery of the second plate, and wherein the first and second plates are welded within the periphery of the second plate using a pattern from the group comprising closed geometric patterns enclosing a volume such as rectangular pattern, hexagon pattern, and circles, and open geometric patterns such as spots, spirals, and meanders. a) on a first plate placing a second plate having a periphery, in direct contact with the first plate, wherein the first and second plates (110, 120) are of materials that do not form unacceptable bubbling in the weld when heated and are metals that are selected from the group comprising ferrous materials, nickel alloys and copper alloys, and the group comprising titanium and zirconium, and wherein the second plate is a thick plate having a thickness greater than 3 mm, and wherein the first and second plates (110, 120) are of materials that do not form unacceptable bubbling in the weld when heated and are metals that are selected from the group comprising ferrous materials, nickel alloys and copper alloys, and the group comprising titanium and zirconium, and wherein the second plate is a thick plate having a thickness greater than 3 mm, and b) through welding the second plate to the first plate, wherein the through welding is performed using laser welding, wherein the first and second plates are welded within and along the periphery of the second plate, and wherein the first and second plates are welded within the periphery of the second plate using a pattern from the group comprising closed geometric patterns enclosing a volume such as rectangular pattern, hexagon pattern, and circles, and open geometric patterns such as spots, spirals, and meanders. wherein the through welding is performed using laser welding, wherein the first and second plates are welded within and along the periphery of the second plate, and wherein the first and second plates are welded within the periphery of the second plate using a pattern from the group comprising closed geometric patterns enclosing a volume such as rectangular pattern, hexagon pattern, and circles, and open geometric patterns such as spots, spirals, and meanders.
A method, comprising: receiving in a buffer of a first device a multiplicity of data packets (116, 118) in a data flow (120, 122) comprising data packets of a first type and data packets of a second type: adjusting a size of at least one data packet in the data flow based upon an initial data packet size, a type of data packet and a given priority function to be applied, wherein a size of data packets of the first type are set at a specific size value or a range of size values; and assigning a priority to data packets of the multiplicity of data packets according to the priority function, the priority function based upon the size of a data packet. receiving in a buffer of a first device a multiplicity of data packets (116, 118) in a data flow (120, 122) comprising data packets of a first type and data packets of a second type: adjusting a size of at least one data packet in the data flow based upon an initial data packet size, a type of data packet and a given priority function to be applied, wherein a size of data packets of the first type are set at a specific size value or a range of size values; and assigning a priority to data packets of the multiplicity of data packets according to the priority function, the priority function based upon the size of a data packet. adjusting a size of at least one data packet in the data flow based upon an initial data packet size, a type of data packet and a given priority function to be applied, wherein a size of data packets of the first type are set at a specific size value or a range of size values; and assigning a priority to data packets of the multiplicity of data packets according to the priority function, the priority function based upon the size of a data packet.
A mobile terminal, comprising: a body including an internal space, a metal plate located within the internal space and a partition partitioning the internal space by being vertically projected from the metal plate; a battery located in a first space on one side of the internal space with reference to the partition; a main board located in a second space on the other side of the internal space with reference to the partition and having a heating component mounted thereon; and a heat pipe including a heat absorbing portion contacting with the heating component and a heat transfer portion disposed between the battery and the main board side by side with the partition and extending along the partition, so that a surface of the heat transfer portion faces a side of the partition, wherein the heat transfer portion comprises a pipe member formed of a material of high heat conductivity, a first fluid path formed within the pipe member, a second fluid path formed on an inner wall of the pipe member, and a working fluid passing through the first fluid path in a gas state and passing through the second fluid path in a liquid state. a body including an internal space, a metal plate located within the internal space and a partition partitioning the internal space by being vertically projected from the metal plate; a battery located in a first space on one side of the internal space with reference to the partition; a main board located in a second space on the other side of the internal space with reference to the partition and having a heating component mounted thereon; and a heat pipe including a heat absorbing portion contacting with the heating component and a heat transfer portion disposed between the battery and the main board side by side with the partition and extending along the partition, so that a surface of the heat transfer portion faces a side of the partition, wherein the heat transfer portion comprises a pipe member formed of a material of high heat conductivity, a first fluid path formed within the pipe member, a second fluid path formed on an inner wall of the pipe member, and a working fluid passing through the first fluid path in a gas state and passing through the second fluid path in a liquid state.