mhurhangee/patent-ind-claim-en huggingface dataset:
Thermal Storage System (TSS) by Phase Change Material (PCM) comprising: - a tank intended to contain a solid/liquid PCM and an ullage space , - an injection module configured to inject a two-phase solvent, in the liquid or gaseous state, into the PCM in the tank , - an exhaust module configured to exhaust the two-phase solvent in the gaseous state from the upper part of the tank , opposite the lower part, - a circulation system immersed in the tank , intended to circulate a heat transfer fluid from an external heat transfer fluid circulation network characterised in that the circulation system comprises: - a condenser arranged in the ullage space of the tank intended to condense the solvent in the gaseous state by the circulation of the heat transfer fluid, and - an evaporator arranged in the tank at the free surface of the solid PCM in contact with the two-phase solvent in the liquid state and intended to evaporate the solvent in the liquid state by the circulation of the heat transfer fluid. - a tank intended to contain a solid/liquid PCM and an ullage space , - an injection module configured to inject a two-phase solvent, in the liquid or gaseous state, into the PCM in the tank , - an exhaust module configured to exhaust the two-phase solvent in the gaseous state from the upper part of the tank , opposite the lower part, - a circulation system immersed in the tank , intended to circulate a heat transfer fluid from an external heat transfer fluid circulation network - a condenser arranged in the ullage space of the tank intended to condense the solvent in the gaseous state by the circulation of the heat transfer fluid, and - an evaporator arranged in the tank at the free surface of the solid PCM in contact with the two-phase solvent in the liquid state and intended to evaporate the solvent in the liquid state by the circulation of the heat transfer fluid.
A composition for improving the stability of endothelial glycocalyx, comprising: one or more molecular precursor of endothelial glycocalyx, comprising glucosamine, or a suitable salt thereof; one or more antioxidant that associates with endothelial glycocalyx, comprising superoxide dismutase; two or more glycocalyx mimetics comprising hyaluronan, or a suitable salt thereof, and fucoidan, or a suitable salt thereof; and two or more additional antioxidants comprising catalase and polyphenols. one or more molecular precursor of endothelial glycocalyx, comprising glucosamine, or a suitable salt thereof; one or more antioxidant that associates with endothelial glycocalyx, comprising superoxide dismutase; two or more glycocalyx mimetics comprising hyaluronan, or a suitable salt thereof, and fucoidan, or a suitable salt thereof; and two or more additional antioxidants comprising catalase and polyphenols.
A mounting and securing structure for the damper unit of a steering wheel , designed to incorporate a damper unit that dampens the vibrations of the steering wheel between the steering wheel and the airbag module as the damper mass, by mounting and securing a mounting pin member for the damper unit to a supporting part of either the steering wheel or the airbag module , comprising: a collar member that is formed in a hollow cylindrical shape with an opening for inserting the mounting pin member on one end in the length direction, a positioning groove part positioned on the collar member formed so as to intersect the length direction, a locking groove part formed on the mounting pin member and positioned on the positioning groove part , and a spring member provided on the supporting part inserted through the positioning groove part , characterized in that a seat part where the insertion side tip of the mounting pin member is seated is provided on the other end in the length direction of the collar member , the positioning groove part is positioned between the seat part and the opening , and the locking groove part is positioned on the positioning groove part and the spring member is elastically locked by the locking groove part and retains the mounting pin member when the insertion side tip is seated in the seat part . a collar member that is formed in a hollow cylindrical shape with an opening for inserting the mounting pin member on one end in the length direction, a positioning groove part positioned on the collar member formed so as to intersect the length direction, a locking groove part formed on the mounting pin member and positioned on the positioning groove part , and a spring member provided on the supporting part inserted through the positioning groove part , characterized in that a seat part where the insertion side tip of the mounting pin member is seated is provided on the other end in the length direction of the collar member , the positioning groove part is positioned between the seat part and the opening , and the locking groove part is positioned on the positioning groove part and the spring member is elastically locked by the locking groove part and retains the mounting pin member when the insertion side tip is seated in the seat part .
A separator for a non-aqueous secondary battery, comprising: a porous substrate; and an adhesive porous layer that is provided on one side or both sides of the porous substrate, and that contains a polyvinylidene fluoride type resin, wherein the polyvinylidene fluoride type resin contains, as monomer components, vinylidene fluoride, a fluorine-containing monomer other than vinylidene fluoride, and a monomer represented by the following Formula : wherein, in Formula , each of R 1 , R 2 , and R 3 independently represents a hydrogen atom, a halogen atom, a carboxyl group or a derivative thereof, or a C 1-5 alkyl group; X represents a single bond, a C 1-5 alkylene group, or a substituted C 1-5 alkylene group; and Y represents a hydrogen atom, a C 1-5 alkyl group, or a C 1-5 alkyl group that contains at least one hydroxy group, and wherein the polyvinylidene fluoride type resin has a molecular weight distribution that is a ratio of a weight average molecular weight to a number average molecular weight of from 3.5 to 10, and that has a weight average molecular weight of from 500,000 to 3,000,000; wherein the weight average molecular weight and the number average molecular weight of the polyvinylidene fluoride type resin are measured using the method described in the description; and wherein the fluorine-containing monomer other than vinylidene fluoride is selected from the group consisting of hexafluoropropylene, tetrafluoroethylene, trifluoroethylene, chlorotrifluoroethylene, vinyl fluoride, perfluoroalkylvinylether, and any combination of one or more thereof. a porous substrate; and an adhesive porous layer that is provided on one side or both sides of the porous substrate, and that contains a polyvinylidene fluoride type resin, wherein the polyvinylidene fluoride type resin contains, as monomer components, vinylidene fluoride, a fluorine-containing monomer other than vinylidene fluoride, and a monomer represented by the following Formula : wherein, in Formula , each of R 1 , R 2 , and R 3 independently represents a hydrogen atom, a halogen atom, a carboxyl group or a derivative thereof, or a C 1-5 alkyl group; X represents a single bond, a C 1-5 alkylene group, or a substituted C 1-5 alkylene group; and Y represents a hydrogen atom, a C 1-5 alkyl group, or a C 1-5 alkyl group that contains at least one hydroxy group, and wherein the polyvinylidene fluoride type resin has a molecular weight distribution that is a ratio of a weight average molecular weight to a number average molecular weight of from 3.5 to 10, and that has a weight average molecular weight of from 500,000 to 3,000,000; wherein the weight average molecular weight and the number average molecular weight of the polyvinylidene fluoride type resin are measured using the method described in the description; and wherein the fluorine-containing monomer other than vinylidene fluoride is selected from the group consisting of hexafluoropropylene, tetrafluoroethylene, trifluoroethylene, chlorotrifluoroethylene, vinyl fluoride, perfluoroalkylvinylether, and any combination of one or more thereof.
A preparation method of a super absorbent polymer, comprising 1) a step of forming a hydrogel polymer by cross-linking polymerization of a water-soluble ethylene-based unsaturated monomer having at least partially neutralized acidic groups in the presence of an internal cross-linking agent and a polymerization initiator (Step 1); 2) a step of mixing the hydrogel polymer with a carboxylic acid-based additive, wherein the carboxylic acid-based additive is used in an amount of 0.01 to 1 parts by weight based on 100 parts by weight of the hydrogel polymer, followed by pulverization to prepare a pulverized product containing hydrous super absorbent polymer particles (Step 2); 3) a step of drying the pulverized product with a paddle-type dryer to prepare super absorbent polymer particles (Step 3); and 4) a step of fine-pulverizing particles having a particle diameter of more than 850 μ m among the super absorbent polymer particles, wherein the particle diameter is measured in accordance with EDANA WSP 220.3 (Step 4), wherein the carboxylic acid-based additive is at least one selected from the group consisting of a carboxylic acid represented by the following Chemical Formula 1 and a salt thereof: in Chemical Formula 1, A is alkyl having 5 to 21 carbon atoms, B 1 is -OCO-, -COO-, or -COOCH(R 1 )COO-, B 2 is -CH 2 -, -CH 2 CH 2 -, -CH(R 2 )-, -CH=CH-, or -C ≡ C-, wherein, R 1 and R 2 are each independently alkyl having 1 to 4 carbon atoms, n is an integer of 1 to 3, and C is a carboxyl group. 1) a step of forming a hydrogel polymer by cross-linking polymerization of a water-soluble ethylene-based unsaturated monomer having at least partially neutralized acidic groups in the presence of an internal cross-linking agent and a polymerization initiator (Step 1); 2) a step of mixing the hydrogel polymer with a carboxylic acid-based additive, wherein the carboxylic acid-based additive is used in an amount of 0.01 to 1 parts by weight based on 100 parts by weight of the hydrogel polymer, followed by pulverization to prepare a pulverized product containing hydrous super absorbent polymer particles (Step 2); 3) a step of drying the pulverized product with a paddle-type dryer to prepare super absorbent polymer particles (Step 3); and 4) a step of fine-pulverizing particles having a particle diameter of more than 850 μ m among the super absorbent polymer particles, wherein the particle diameter is measured in accordance with EDANA WSP 220.3 (Step 4), wherein the carboxylic acid-based additive is at least one selected from the group consisting of a carboxylic acid represented by the following Chemical Formula 1 and a salt thereof: in Chemical Formula 1, A is alkyl having 5 to 21 carbon atoms, B 1 is -OCO-, -COO-, or -COOCH(R 1 )COO-, B 2 is -CH 2 -, -CH 2 CH 2 -, -CH(R 2 )-, -CH=CH-, or -C ≡ C-, wherein, R 1 and R 2 are each independently alkyl having 1 to 4 carbon atoms, n is an integer of 1 to 3, and C is a carboxyl group.
A fast-dissolving oral solid vaccine dosage form comprising: (a) an immunogenic amount of an antigenic preparation; (b) at least one immune response potentiating matrix forming agent; wherein the at least one immune response potentiating matrix forming agent is a starch; and (c) an adjuvant; wherein the dosage form facilitates oral cavity uptake of an antigen within said antigenic preparation. (a) an immunogenic amount of an antigenic preparation; (b) at least one immune response potentiating matrix forming agent; wherein the at least one immune response potentiating matrix forming agent is a starch; and (c) an adjuvant;
A curved cross-section wind turbine tower , comprising: - a wall , featuring a curvature, as well as having an orifice for accessing inside the tower , and an outer surface defined by generatrices, the orifice being limited by a perimeter which comprises two longitudinal zones oriented along the direction of said generatrices of the tower and two transverse zones connecting the two longitudinal zones one to each other, and - a reinforcing frame , disposed internally to and along the perimeter of the orifice and joined to the tower in the orifice zone, wherein the reinforcing frame comprises at least two parts joined together, wherein the at least two parts are adjacent and joined together at least in one of the transverse zones, wherein each of the parts has a mid-plane which is parallel to at least one generatrix of the tower and which occupies a central position with respect to the thickness of its corresponding part , characterized in that the mid-planes of at least two adjacent parts form an angle other than 180o with respect to each other, so as to adapt the reinforcing frame to the curvature of the wall in the transverse zones of the orifice . - a wall , featuring a curvature, as well as having an orifice for accessing inside the tower , and an outer surface defined by generatrices, the orifice being limited by a perimeter which comprises two longitudinal zones oriented along the direction of said generatrices of the tower and two transverse zones connecting the two longitudinal zones one to each other, and - a reinforcing frame , disposed internally to and along the perimeter of the orifice and joined to the tower in the orifice zone, wherein the reinforcing frame comprises at least two parts joined together, wherein the at least two parts are adjacent and joined together at least in one of the transverse zones, wherein each of the parts has a mid-plane which is parallel to at least one generatrix of the tower and which occupies a central position with respect to the thickness of its corresponding part , characterized in that the mid-planes of at least two adjacent parts form an angle other than 180o with respect to each other, so as to adapt the reinforcing frame to the curvature of the wall in the transverse zones of the orifice .
A peptide comprising SEQ ID NO: 1 (Xaa1-Tyr-Phe-Ala-Tyr-His-Pro-Asn-Ile-Pro-Gly-Leu-Xaa2-Tyr-Phe), wherein Xaa1 is any one selected from the group consisting of tyrosine, tryptophan, phenylalanine and non-natural amino acids having characteristics identical to tyrosine, tryptophan or phenylalanine; and Xaa2 is any one selected from the group consisting of tyrosine, tryptophan, phenylalanine, and non-natural amino acids having the characteristics identical to tyrosine, tryptophan or phenylalanine.
An electrostatic coater that charges an atomized paint to cause a paint to attach to a workpiece (W), the electrostatic coater comprising: a high-voltage generator for generating a high voltage for charging the paint during operation in which the workpiece (W) is coated by using the electrostatic coater ; an ion generator for generating ions of reverse polarity to polarity of the high voltage generated by the operation high-voltage generator , wherein the ion generator is arranged in an air passage that supplies air to the electrostatic coater ; and a passage switching valve configured to divert air from an air source to the ion generator ; wherein air ionized by the ion generator is supplied to the electrostatic coater through an ionized air pipe to neutralize a charged state of the electrostatic coater immediately after power supplied to the high-voltage generator is stopped in response to detection of an abnormality. a high-voltage generator for generating a high voltage for charging the paint during operation in which the workpiece (W) is coated by using the electrostatic coater ; an ion generator for generating ions of reverse polarity to polarity of the high voltage generated by the operation high-voltage generator , wherein the ion generator is arranged in an air passage that supplies air to the electrostatic coater ; and a passage switching valve configured to divert air from an air source to the ion generator ; wherein air ionized by the ion generator is supplied to the electrostatic coater through an ionized air pipe to neutralize a charged state of the electrostatic coater immediately after power supplied to the high-voltage generator is stopped in response to detection of an abnormality.
A method for cooking and curing a food item , comprising the steps of: sealing a food item in an airless mode with a flavoring sheet ; applying pressure and heat on said food item for a time period; wherein said step of applying includes: controlling said pressure according to a pressure setting corresponding to a nature of said flavoring sheet . sealing a food item in an airless mode with a flavoring sheet ; applying pressure and heat on said food item for a time period; wherein said step of applying includes: controlling said pressure according to a pressure setting corresponding to a nature of said flavoring sheet .
A system, comprising: at least one processing device ; and a storage device configured to store instructions that, when executed by the at least one processing device , cause the at least one processing device to: execute, on an edge server , a first instance of an application ; generate, on an edge server , a first instance first frame and a first instance second frame corresponding to the first instance of the application , the first instance first frame and the first instance second frame each comprising a first level quality attribute; receive, at an edge server , from a remote server, a resolution delta frame identifying a difference between a second instance first quality first frame and a second instance second quality first frame corresponding to a second instance of the application executing on the remote server , the second instance first quality first frame comprising the first level quality attribute and the second instance second quality first frame comprising a second level quality attribute; generate a motion delta frame configured to identify a difference between the first instance first frame and the first instance second frame , the motion delta frame comprising motion compensation information; transform, at an edge server , the first instance second frame into a transformed frame based at least in part on applying the resolution delta frame received from the remote server to the first instance second frame and based at least in part on the motion delta frame, the transformed frame comprising the second quality level attribute; and transmit, from an edge server , the transformed frame to a client. execute, on an edge server , a first instance of an application ; generate, on an edge server , a first instance first frame and a first instance second frame corresponding to the first instance of the application , the first instance first frame and the first instance second frame each comprising a first level quality attribute; receive, at an edge server , from a remote server, a resolution delta frame identifying a difference between a second instance first quality first frame and a second instance second quality first frame corresponding to a second instance of the application executing on the remote server , the second instance first quality first frame comprising the first level quality attribute and the second instance second quality first frame comprising a second level quality attribute; generate a motion delta frame configured to identify a difference between the first instance first frame and the first instance second frame , the motion delta frame comprising motion compensation information; transform, at an edge server , the first instance second frame into a transformed frame based at least in part on applying the resolution delta frame received from the remote server to the first instance second frame and based at least in part on the motion delta frame, the transformed frame comprising the second quality level attribute; and transmit, from an edge server , the transformed frame to a client.
A composition comprising kasugamycin for use in treating fibrosis in a subject having a fibrotic disease.
A method of reworking a component, comprising: removing a casting defect (D) from a component manufactured of a non-fusion weldable base alloy (B) to form a cavity (C); and being characterised by the following steps : at least partially filling the cavity (C) with a multiple of layers of a multiple of laser powder deposition spots (S), each of the multiple of laser powder deposition spots (S) formed of a filler alloy (F), wherein the filler alloy (F) is a fusion weldable powder material, wherein each laser powder deposition spot (S) overlays the adjacent laser powder deposition spot (S) by 50%, as the multiple of laser powder deposition spots (S) in each layer form a matrix of overlapping laser powder deposition spots (S), wherein the cavity (C) has inclined walls (W), and the outermost laser powder deposition spots (S) are located at least partially on the wall (W) of the cavity (C), as the inclined angle of the wall (W) permits each layer to at least partially overlap the wall (W) as well as permit the laser from the laser powder deposition system direct access into the cavity (C). removing a casting defect (D) from a component manufactured of a non-fusion weldable base alloy (B) to form a cavity (C); and being characterised by the following steps : at least partially filling the cavity (C) with a multiple of layers of a multiple of laser powder deposition spots (S), each of the multiple of laser powder deposition spots (S) formed of a filler alloy (F), wherein the filler alloy (F) is a fusion weldable powder material, wherein each laser powder deposition spot (S) overlays the adjacent laser powder deposition spot (S) by 50%, as the multiple of laser powder deposition spots (S) in each layer form a matrix of overlapping laser powder deposition spots (S), wherein the cavity (C) has inclined walls (W), and the outermost laser powder deposition spots (S) are located at least partially on the wall (W) of the cavity (C), as the inclined angle of the wall (W) permits each layer to at least partially overlap the wall (W) as well as permit the laser from the laser powder deposition system direct access into the cavity (C). at least partially filling the cavity (C) with a multiple of layers of a multiple of laser powder deposition spots (S), each of the multiple of laser powder deposition spots (S) formed of a filler alloy (F), wherein the filler alloy (F) is a fusion weldable powder material, wherein each laser powder deposition spot (S) overlays the adjacent laser powder deposition spot (S) by 50%, as the multiple of laser powder deposition spots (S) in each layer form a matrix of overlapping laser powder deposition spots (S), wherein the cavity (C) has inclined walls (W), and the outermost laser powder deposition spots (S) are located at least partially on the wall (W) of the cavity (C), as the inclined angle of the wall (W) permits each layer to at least partially overlap the wall (W) as well as permit the laser from the laser powder deposition system direct access into the cavity (C).