mhurhangee/ep-ind-claims huggingface dataset:
A selective peptide agonist of melanocortin 1 receptor (MC1R) according to the following formula: Ar(CH 2) m X 1 -X 2 -CO-X 3 -X 4 -X 5 -(Trp) n -NX 6 R Formula I or a dermatologically-acceptable salt, solvate, or enantiomer thereof, wherein: Ar is selected from the group consisting of unsubstituted or substituted phenyl; m is 3; X 1 is absent; X 2 is absent; X 3 is selected from the group consisting of unsubstituted or substituted L-histidine (His); X 4 is selected from the group consisting of D-4-t-Bu-phenylalanine (D-4-tBuPhe), D-4-biphenylalanine (D-4-Bip), D-1-naphthylalanine (D-1-Nal), D-2-naphthylalanine (D-2-Nal); X 5 is selected from the group consisting of unsubstituted or substituted L-arginine (Arg); n is 0 or 1; X 6 is selected from the group consisting of H, methyl or ethyl; and R is selected from the group consisting of H, methyl or ethyl. Ar is selected from the group consisting of unsubstituted or substituted phenyl; m is 3; X 1 is absent; X 2 is absent; X 3 is selected from the group consisting of unsubstituted or substituted L-histidine (His); X 4 is selected from the group consisting of D-4-t-Bu-phenylalanine (D-4-tBuPhe), D-4-biphenylalanine (D-4-Bip), D-1-naphthylalanine (D-1-Nal), D-2-naphthylalanine (D-2-Nal); X 5 is selected from the group consisting of unsubstituted or substituted L-arginine (Arg); n is 0 or 1; X 6 is selected from the group consisting of H, methyl or ethyl; and R is selected from the group consisting of H, methyl or ethyl.
A network interface device comprising: an input configured to receive a plurality of data packets in accordance with at least one protocol, said plurality of data packets comprising at least one protocol component in accordance with a respective protocol; and processing hardware configured to: apply an artificial intelligence process to at least a part of one or more protocol components of at least one of said plurality of data packets; provide an output from the artificial intelligence process, wherein said output comprises a state of the artificial intelligence process; and insert the output from the artificial intelligence process into the at least one of said plurality of data packets; and an output configured to transmit the at least one of said plurality of data packets, via a network, to a data analytical engine. an input configured to receive a plurality of data packets in accordance with at least one protocol, said plurality of data packets comprising at least one protocol component in accordance with a respective protocol; and processing hardware configured to: apply an artificial intelligence process to at least a part of one or more protocol components of at least one of said plurality of data packets; provide an output from the artificial intelligence process, wherein said output comprises a state of the artificial intelligence process; and insert the output from the artificial intelligence process into the at least one of said plurality of data packets; and apply an artificial intelligence process to at least a part of one or more protocol components of at least one of said plurality of data packets; provide an output from the artificial intelligence process, wherein said output comprises a state of the artificial intelligence process; and insert the output from the artificial intelligence process into the at least one of said plurality of data packets; and an output configured to transmit the at least one of said plurality of data packets, via a network, to a data analytical engine.
Fire protection gate, featuring a normative fire resistance category or similar classification, with an encompassing structure and bilateral steel plate shells (9, 10), between which a temperature resistant fire protection inset is integrated to observe demands of the normative fire resistance categories or similar classifications, formed at least from an insulating element in the form of a plate, formed of mineral fibers soluble in a physiological milieu and reinforced by a binding agent, characterized in that the composition of said mineral fibers of the insulating element features an alkali/earth alkali mass relation of < 1 and the fiber structure of said insulating element is determined by an average geometrical fiber diameter ≤ 4 μm, a portion of the binding agent, relative to the mass of fiber content of the insulating element in the range of 1 - to 3 weight % and a gross density in the range of 60 to 130 kg/m 3, whereby the gross density at a fire resistance category T30 or similar features 60 to 80 kg/m 3, preferably 70 kg/m 3, at a fire resistance category T60 or similar, it features 80 to 110 kg/m 3, preferably 100 kg/m 3, and at a fire resistance category of T90 or similar, it features 110 to 130 kg/m 3, preferably 120 kg/m 3.
A natural gas fuel supply device comprising: a natural gas fuel evaporator having: a holding tank arranged to hold therein natural gas fuel supplied from outside in a saturated liquid state; a heating unit arranged to heat the natural gas fuel extracted from the holding tank; a nozzle arranged to discharge the natural gas fuel heated by the heating unit into the holding tank; a fuel supply line that is connected to the holding tank to communicate with an external fuel supply target and arranged such that the natural gas fuel in a gas state can be discharged thereinto from the holding tank; and a flow rate adjusting valve that is provided in the fuel supply line; and a compressor arranged to compress the natural gas fuel in the gas state discharged from the holding tank through the fuel supply line; and a gas temperature adjusting unit provided downstream of a discharge-side end of the compressor for adjusting the temperature of the natural gas fuel; characterized in that the gas temperature adjusting unit is arranged to adjust the temperature of the natural gas fuel by spraying the natural gas fuel in the liquid state extracted from the holding tank onto the natural gas fuel compressed by the compressor. a natural gas fuel evaporator having: a holding tank arranged to hold therein natural gas fuel supplied from outside in a saturated liquid state; a heating unit arranged to heat the natural gas fuel extracted from the holding tank; a nozzle arranged to discharge the natural gas fuel heated by the heating unit into the holding tank; a fuel supply line that is connected to the holding tank to communicate with an external fuel supply target and arranged such that the natural gas fuel in a gas state can be discharged thereinto from the holding tank; and a flow rate adjusting valve that is provided in the fuel supply line; and a holding tank arranged to hold therein natural gas fuel supplied from outside in a saturated liquid state; a heating unit arranged to heat the natural gas fuel extracted from the holding tank; a nozzle arranged to discharge the natural gas fuel heated by the heating unit into the holding tank; a fuel supply line that is connected to the holding tank to communicate with an external fuel supply target and arranged such that the natural gas fuel in a gas state can be discharged thereinto from the holding tank; and a flow rate adjusting valve that is provided in the fuel supply line; and a compressor arranged to compress the natural gas fuel in the gas state discharged from the holding tank through the fuel supply line; and a gas temperature adjusting unit provided downstream of a discharge-side end of the compressor for adjusting the temperature of the natural gas fuel; characterized in that the gas temperature adjusting unit is arranged to adjust the temperature of the natural gas fuel by spraying the natural gas fuel in the liquid state extracted from the holding tank onto the natural gas fuel compressed by the compressor.
A method for determining a resource set, comprising: determining, by a first terminal device, a target resource set; sending, by the first terminal device, first indication information to a second terminal device according to the target resource set; wherein the target resource set is used for the second terminal device to determine a candidate transmission resource, and the first indication information is used for indicating the second terminal device to perform resource reselection. determining, by a first terminal device, a target resource set; sending, by the first terminal device, first indication information to a second terminal device according to the target resource set; wherein the target resource set is used for the second terminal device to determine a candidate transmission resource, and the first indication information is used for indicating the second terminal device to perform resource reselection.
A mold apparatus comprising: a mold tool having a tool face configured to impart a desired shape to molded material; a first release liner carried by the mold tool on the tool face; and a liner vacuum system configured to hold the release liner in place against the tool face and comprising at least one liner vacuum port extending and providing fluid communication between the tool face and a vacuum source, the liner vacuum system being actuable to hold the release liner in place against the tool face; characterised in that the mold tool is an open-face injection mold tool configured for mold-in-place operations that deposit molded material on a working surface; the mold tool has a tool perimeter surface configured to be sealed against the working surface; and the apparatus includes a perimeter vacuum system configured to seal a perimeter surface of the mold tool to a working surface. a mold tool having a tool face configured to impart a desired shape to molded material; a first release liner carried by the mold tool on the tool face; and a liner vacuum system configured to hold the release liner in place against the tool face and comprising at least one liner vacuum port extending and providing fluid communication between the tool face and a vacuum source, the liner vacuum system being actuable to hold the release liner in place against the tool face; characterised in that the mold tool is an open-face injection mold tool configured for mold-in-place operations that deposit molded material on a working surface; the mold tool has a tool perimeter surface configured to be sealed against the working surface; and the apparatus includes a perimeter vacuum system configured to seal a perimeter surface of the mold tool to a working surface.
Method for manufacturing a tubular connector by injecting a molten plastics material into a cavity of a mould, the injection being made in a zone of the cavity arranged in order to promote a circumferential flow of the thermoplastic material prior to an axial flow of the thermoplastic material, such that the thermoplastic material progresses along the cavity with a substantially annular front, the cavity being shaped such that the connector obtained comprises a tubular body having a local thickened portion that extends in an annular manner in the vicinity of a central portion of the tubular body, the injection zone being provided in the vicinity of a central portion of the cavity that corresponds to the thickened portion of the central portion of the tubular body, wherein the cavity is arranged such that the thickened portion is a bulge provided in the vicinity of the central portion of the tubular body and provided between two grooves, the cavity being shaped such that the body of the connector obtained comprises portions that are adjacent to said grooves, have outer diameters that are greater than an outer diameter of the bulge and have a corrugated outer surface, and the grooves are located between said adjacent portions.
Domestic electrical food preparation apparatus for pressing foods, consisting of a working chamber (40; 78; 79) housing a pressing head comprising a pressing screw that rotates inside a filter (30; 30') locked axially by a lid (46; 46'; 51) of the working chamber (40; 78; 79), the pressing head consisting of an axial head housed in a bearing (90; 90') mounted in the lid (46; 46'; 51), characterised by the axial head having a metal end piece resting on a metal support surface (91; 91') in the bottom of the bearing (90; 90').
A beverage making system, comprising: a beverage precursor liquid supply arranged to provide a precursor liquid; a cartridge chamber arranged to hold first and second cartridge portions; a first cartridge portion, disposed in the cartridge chamber and containing a carbon dioxide source arranged to emit carbon dioxide gas for use in carbonating the precursor liquid; and a second cartridge portion, disposed in the cartridge chamber and containing a beverage medium arranged to be mixed with the precursor liquid to form a beverage; wherein the system is arranged to carbonate the precursor liquid using the carbon dioxide gas emitted by the first cartridge portion and to mix the beverage medium of the second cartridge portion with the precursor liquid; characterized in that a single cartridge having an internal space that is sealed provides the first and second cartridge portions as first and second chambers (46, 47) of said cartridge, said chambers being isolated from each other; in that the system is arranged to introduce pressurised gas into the second chamber of the cartridge to force beverage medium to move out of the second chamber; in that the beverage precursor liquid supply includes a pump and a reservoir to receive the precursor liquid from the pump and to receive carbon dioxide gas from the cartridge chamber to dissolve the carbon dioxide gas in the precursor liquid under pressure greater than ambient to carbonate the precursor liquid; and in that the system further includes a mixing chamber arranged to mix beverage medium from the cartridge with the precursor liquid from the reservoir to form a beverage. a beverage precursor liquid supply arranged to provide a precursor liquid; a cartridge chamber arranged to hold first and second cartridge portions; a first cartridge portion, disposed in the cartridge chamber and containing a carbon dioxide source arranged to emit carbon dioxide gas for use in carbonating the precursor liquid; and a second cartridge portion, disposed in the cartridge chamber and containing a beverage medium arranged to be mixed with the precursor liquid to form a beverage;
A method for manufacturing an intermediate device with a purely radiofrequency electronic module, for a smart card or electronic passport, said method comprising a step of forming a supporting body (31, 32) comprising: - a cavity opening onto at least one of the main faces of the supporting body, - at least one interconnection zone (Z1, Z2) in said cavity for the interconnection of an electrical circuit, borne by the supporting body, - an electronic module placed in said cavity and connected to said interconnection zone (Z1, Z2) by an anisotropic connection material, said material being compressed between said zone (Z1, Z2) and the module, characterised in that it comprises the implementation: - of a means for isolating and/or maintaining (35, 35a, 35b, 38) the compressed state of said material, said isolating and/or maintaining means overlapping the cavity, the module and the supporting body. - a cavity opening onto at least one of the main faces of the supporting body, - at least one interconnection zone (Z1, Z2) in said cavity for the interconnection of an electrical circuit, borne by the supporting body, - an electronic module placed in said cavity and connected to said interconnection zone (Z1, Z2) by an anisotropic connection material, said material being compressed between said zone (Z1, Z2) and the module, - of a means for isolating and/or maintaining (35, 35a, 35b, 38) the compressed state of said material, said isolating and/or maintaining means overlapping the cavity, the module and the supporting body.
A zinc phosphating substitute process which comprises: a. alkaline degreasing of the article to be phosphate; b. first wash with tap water; c. second wash with demineralised water; d. conversion treatment in a bath comprising zirconium salts, phosphates, fluoride complexes, ammonia, at least one corrosion inhibitor, at least one process accelerating agent, at least one sequestering agent, a reaction sludge thickening system, and vanadium and, optionally, titanium compounds; e. final wash before treating the article in the oven; in which the corrosion inhibitor is a branched amine or an alkyne derivative, a thiourea derivative or vanadium, molybdenum or antimony salts; in which the reaction sludge thickening system consists of a suitably balanced combination of a polysaccharide and a glycol. a. alkaline degreasing of the article to be phosphate; b. first wash with tap water; c. second wash with demineralised water; d. conversion treatment in a bath comprising zirconium salts, phosphates, fluoride complexes, ammonia, at least one corrosion inhibitor, at least one process accelerating agent, at least one sequestering agent, a reaction sludge thickening system, and vanadium and, optionally, titanium compounds; e. final wash before treating the article in the oven; in which the corrosion inhibitor is a branched amine or an alkyne derivative, a thiourea derivative or vanadium, molybdenum or antimony salts; in which the reaction sludge thickening system consists of a suitably balanced combination of a polysaccharide and a glycol.
A downhole expandable metal tubular to be expanded in a well downhole from a first outer diameter (D 1) to a second outer diameter (D 2) to abut against an inner face of a casing or borehole, the downhole expandable metal tubular having an outer tubular face and a longitudinal extension and comprising: - a first circumferential edge and a second circumferential edge provided in the outer tubular face and having a distance (d) along the longitudinal extension, the first circumferential edge and the second circumferential edge are part of a groove provided in the outer tubular face of the downhole expandable metal tubular, and - a circumferential sealing element arranged between the circumferential edges, characterized in that: the downhole expandable metal tubular further comprises: - a circumferential resilient element having an outer face part facing away from the outer tubular face and having an extension (E 1, E 2) along the longitudinal extension, the extension of the circumferential resilient element being smaller than the distance, - a space arranged adjacent to the circumferential resilient element in the longitudinal extension, and - a first portion (14, 14A) of the circumferential sealing element at least partly overlapping the outer face part of the circumferential resilient element, the circumferential resilient element being arranged between the portion of the circumferential sealing element and the outer tubular face, and wherein the circumferential sealing element has one or more recess(es) in which the circumferential resilient element is arranged. - a first circumferential edge and a second circumferential edge provided in the outer tubular face and having a distance (d) along the longitudinal extension, the first circumferential edge and the second circumferential edge are part of a groove provided in the outer tubular face of the downhole expandable metal tubular, and - a circumferential sealing element arranged between the circumferential edges, - a circumferential resilient element having an outer face part facing away from the outer tubular face and having an extension (E 1, E 2) along the longitudinal extension, the extension of the circumferential resilient element being smaller than the distance, - a space arranged adjacent to the circumferential resilient element in the longitudinal extension, and - a first portion (14, 14A) of the circumferential sealing element at least partly overlapping the outer face part of the circumferential resilient element, the circumferential resilient element being arranged between the portion of the circumferential sealing element and the outer tubular face, and wherein the circumferential sealing element has one or more recess(es) in which the circumferential resilient element is arranged.
A method of producing a sheet having a density of 0.6-1.3 g/cm 3 measured according to ISO 534:2011, the sheet comprising chemically modified cellulose fibres, wherein the method comprises: a. providing chemically modified cellulose fibres, wherein charge density measured according to SCAN-CM 65:02 of the chemically modified cellulose fibres is 1200-2400 μeq/g; b. forming a fibre web by dewatering a slurry comprising the chemically modified cellulose fibres on a forming wire; and c. drying the fibre web to obtain the sheet, with the proviso that no carboxymethyl cellulose is added to the chemically modified cellulose fibres during or prior to step b, wherein the chemically modified cellulose fibres have undergone oxidation, alkoxylation, phosphorylation, sulfoethylation or sulfonation to introduce the chargeable moiety or a reaction introducing at least one quaternary amine, wherein the chemically modified cellulose fibres constitutes at least 80 wt.% (dry) of the sheet. a. providing chemically modified cellulose fibres, wherein charge density measured according to SCAN-CM 65:02 of the chemically modified cellulose fibres is 1200-2400 μeq/g; b. forming a fibre web by dewatering a slurry comprising the chemically modified cellulose fibres on a forming wire; and c. drying the fibre web to obtain the sheet, with the proviso that no carboxymethyl cellulose is added to the chemically modified cellulose fibres during or prior to step b, wherein the chemically modified cellulose fibres have undergone oxidation, alkoxylation, phosphorylation, sulfoethylation or sulfonation to introduce the chargeable moiety or a reaction introducing at least one quaternary amine, wherein the chemically modified cellulose fibres constitutes at least 80 wt.% (dry) of the sheet.
Sound-absorbing arrangement for an engine nacelle, having - a first damping structure that comprises a sound-damping honeycomb structure between a perforated inner layer and an outer layer, wherein the first damping structure has a first section and a second section which are arranged one behind the other in the axial direction, and - a second damping structure that is annularly designed and adjoins the first damping structure in the second section of the same externally in the radial direction, wherein - the second damping structure is formed by several hollow chambers adjacent to one another in the circumferential direction, wherein the hollow chambers are formed without a honeycomb structure, - the honeycomb structure of the first damping structure has a different design in the second section, which is adjoined by the second damping structure, than in the first section, wherein in the first section between the inner layer and the outer layer, the honeycomb structure of the first damping structure has at least two layers (13, 14) in honeycomb shape that are separated from one another by a perforated septum, characterized in that the hollow chambers are separated from one another in the circumferential direction by separation walls extending radially and in the axial direction. - a first damping structure that comprises a sound-damping honeycomb structure between a perforated inner layer and an outer layer, wherein the first damping structure has a first section and a second section which are arranged one behind the other in the axial direction, and - a second damping structure that is annularly designed and adjoins the first damping structure in the second section of the same externally in the radial direction, - the second damping structure is formed by several hollow chambers adjacent to one another in the circumferential direction, wherein the hollow chambers are formed without a honeycomb structure, - the honeycomb structure of the first damping structure has a different design in the second section, which is adjoined by the second damping structure, than in the first section, wherein in the first section between the inner layer and the outer layer, the honeycomb structure of the first damping structure has at least two layers (13, 14) in honeycomb shape that are separated from one another by a perforated septum,