mhurhangee/patent-ind-claim-en huggingface dataset:
A thermal transfer printer comprising: a first supply unit configured to supply an intermediate transfer medium in which, on one of surfaces of a first base , a transfer layer including a receiving layer is disposed; a second supply unit configured to supply a thermal transfer sheet in which, on one of surfaces of a second base , a colorant layer and a particle layer are disposed; a printing unit configured to heat the thermal transfer sheet , to transfer a colorant from the colorant layer to the receiving layer to form an image , and to transfer the particle layer onto the receiving layer ; a third supply unit configured to supply a transfer-receiving body ; and a transfer unit configured to place the intermediate transfer medium and the transfer-receiving body on top of each other such that the transfer-receiving body faces the particle layer on the receiving layer , and to heat the intermediate transfer medium to transfer the transfer layer onto the transfer-receiving body such that the particle layer is placed in at least a portion of a peripheral area of the transfer-receiving body , to produce a printed product. a first supply unit configured to supply an intermediate transfer medium in which, on one of surfaces of a first base , a transfer layer including a receiving layer is disposed; a second supply unit configured to supply a thermal transfer sheet in which, on one of surfaces of a second base , a colorant layer and a particle layer are disposed; a printing unit configured to heat the thermal transfer sheet , to transfer a colorant from the colorant layer to the receiving layer to form an image , and to transfer the particle layer onto the receiving layer ; a third supply unit configured to supply a transfer-receiving body ; and a transfer unit configured to place the intermediate transfer medium and the transfer-receiving body on top of each other such that the transfer-receiving body faces the particle layer on the receiving layer , and to heat the intermediate transfer medium to transfer the transfer layer onto the transfer-receiving body such that the particle layer is placed in at least a portion of a peripheral area of the transfer-receiving body , to produce a printed product.
A loop-type heat pipe comprising: an evaporator configured to vaporize an operating fluid; a first condenser and a second condenser configured to condense the operating fluid; a liquid pipe connecting the evaporator and the first condenser and second condenser ; wherein the liquid pipe comprises: a first liquid pipe having a first flow path and connected to the first condenser , a second liquid pipe having a second flow path and connected to the second condenser , and a third liquid pipe having a third flow path connecting to the first flow path and the second flow path and connected to the evaporator , characterised by : a first vapor pipe connecting the evaporator and the first condenser ; a second vapor pipe connecting the evaporator and the second condenser , wherein the evaporator , the first vapor pipe , the first condenser , the first liquid pipe and the third liquid pipe are forming a loop-shaped flow path , and wherein the evaporator , the second vapor pipe , the second condenser , the second liquid pipe and the third liquid pipe are forming a loop-shaped flow path . an evaporator configured to vaporize an operating fluid; a first condenser and a second condenser configured to condense the operating fluid; a liquid pipe connecting the evaporator and the first condenser and second condenser ; wherein the liquid pipe comprises: a first liquid pipe having a first flow path and connected to the first condenser , a second liquid pipe having a second flow path and connected to the second condenser , and a third liquid pipe having a third flow path connecting to the first flow path and the second flow path and connected to the evaporator , characterised by : a first vapor pipe connecting the evaporator and the first condenser ; a second vapor pipe connecting the evaporator and the second condenser , wherein the evaporator , the first vapor pipe , the first condenser , the first liquid pipe and the third liquid pipe are forming a loop-shaped flow path , and wherein the evaporator , the second vapor pipe , the second condenser , the second liquid pipe and the third liquid pipe are forming a loop-shaped flow path . a first liquid pipe having a first flow path and connected to the first condenser , a second liquid pipe having a second flow path and connected to the second condenser , and a third liquid pipe having a third flow path connecting to the first flow path and the second flow path and connected to the evaporator , characterised by : a first vapor pipe connecting the evaporator and the first condenser ; a second vapor pipe connecting the evaporator and the second condenser , a first vapor pipe connecting the evaporator and the first condenser ; a second vapor pipe connecting the evaporator and the second condenser , wherein the evaporator , the first vapor pipe , the first condenser , the first liquid pipe and the third liquid pipe are forming a loop-shaped flow path , and wherein the evaporator , the second vapor pipe , the second condenser , the second liquid pipe and the third liquid pipe are forming a loop-shaped flow path .
A shoe , comprising a vamp , a sole , and at least one insole interposed between said vamp and said sole , said insole having a multilayer structure and comprising a first insole and a second insole , superposed, and at least one shank associated to the lower face, in use, of said second insole , characterised in that said shank comprises a first portion provided at the heel area, and a second portion provided at the front area of the shoe , said first portion in turn comprising a first layer and a second layer superimposed one over the other and attached to the lower face, in use, of said second insole , at least one stiffener being interposed between said first layer and said second layer .
A method of use and renovation for using and renovating a first brake disk , the first disk having an initial thickness at the beginning of a first life and being of the rotor type or of the stator type, the method comprising the steps of using the first disk during a first life in a first stack of brake disks and using the first disk during two other lives while compensating for a reduction in the thickness of the first disk after each life in application of the following provisions: • after the first life, surfacing the first disk and associating the first disk with a second disk in a second stack of brake disks , the second disk having thickness lying in the range 60% to 140% of the initial thickness and being a disk of type different from the first disk; • after a second life at the end of which the first disk has thickness lying in the range 50% of the initial thickness to 50% of the thickness of the first disk at the end of its first life, surfacing the first disk and assembling it with a complementary portion of substantially the same thickness in order to form a complemented disk that is used in a third stack of brake disks and that is of the same type as the first disk; • after a third life, discarding the first disk. • after the first life, surfacing the first disk and associating the first disk with a second disk in a second stack of brake disks , the second disk having thickness lying in the range 60% to 140% of the initial thickness and being a disk of type different from the first disk; • after a second life at the end of which the first disk has thickness lying in the range 50% of the initial thickness to 50% of the thickness of the first disk at the end of its first life, surfacing the first disk and assembling it with a complementary portion of substantially the same thickness in order to form a complemented disk that is used in a third stack of brake disks and that is of the same type as the first disk; • after a third life, discarding the first disk.
A vehicle control system for energy efficient driving, the vehicle control system comprises: a processing circuitry configured to cause the vehicle control system to: determine that the vehicle is approaching a stop point; determine if the vehicle needs to stop at the stop point; determine the presence of at least a first other vehicle within a predefined distance behind the vehicle ; characterized in that the processing circuitry is configured to determine the intended route of the at least first other vehicle for determining if the vehicle is going to prepare at least a first energy saving action or not.
A method of making an article resistant to oxygen and moisture vapor transmission comprising the steps of (A) providing a pre-existing metalized polymer film having a metal layer in direct contact with a polymer layer, (B) shredding the pre-existing metalized polymer film to a particulate form, (C) forming the shredded pre-existing metalized polymer film into pellets, (D) crystallising the pellets of pre-existing metalized polymer film, (E) blending the pellets of the crystallised pre-existing metalized polymer film with particles of a virgin polymer to form a mixture comprising 0.1 wt% to 95 wt% of the pre-existing metalized polymer and a complementary amount of virgin polymer, (F) melt processing the mixture to form a reclaimed composition comprising metal particles uniformly dispersed in a polymeric matrix, and (G) forming the reclaimed composition into an article resistant to oxygen and moisture vapor transmission. (A) providing a pre-existing metalized polymer film having a metal layer in direct contact with a polymer layer, (B) shredding the pre-existing metalized polymer film to a particulate form, (C) forming the shredded pre-existing metalized polymer film into pellets, (D) crystallising the pellets of pre-existing metalized polymer film, (E) blending the pellets of the crystallised pre-existing metalized polymer film with particles of a virgin polymer to form a mixture comprising 0.1 wt% to 95 wt% of the pre-existing metalized polymer and a complementary amount of virgin polymer, (F) melt processing the mixture to form a reclaimed composition comprising metal particles uniformly dispersed in a polymeric matrix, and (G) forming the reclaimed composition into an article resistant to oxygen and moisture vapor transmission.
A connection cable, comprising: a cable comprising a plurality of electric wires each comprising a covering portion covering a core and a core-exposing portion exposing the core at an end of the covering portion ; and a spacer that is interposed in a space surrounded by the covering portions of the electric wires and holds end portions of the covering portions in such a manner that the end portions are spaced from each other, characterized in that the spacer has an outer circumferential surface on which a plurality of holding recesses are provided, and in that each electric wire is fixed to the outer circumferential surface of the spacer by press-fitting. a cable comprising a plurality of electric wires each comprising a covering portion covering a core and a core-exposing portion exposing the core at an end of the covering portion ; and a spacer that is interposed in a space surrounded by the covering portions of the electric wires and holds end portions of the covering portions in such a manner that the end portions are spaced from each other, characterized in that the spacer has an outer circumferential surface on which a plurality of holding recesses are provided, and in that each electric wire is fixed to the outer circumferential surface of the spacer by press-fitting.
3-bromopyruvate for use in a method of reducing serum levels of a cytokine in a subject with liver fibrosis, the method comprising administering to the subject a therapeutically effective amount of the 3-bromopyruvate, wherein the serum cytokine is: i) an interleukin selected from IL-1, IL-3, IL-5, IL-9, IL-10 and IL-13, ii) an enhancer of HSC-activation selected from CD40 antigen and IGBP-3, or iii) a pro-fibrotic cytokine selected from CRG-2, CTACK, VEGF, CXCL 16, CXCL1, TNF-α and eotaxin-2, and wherein the 3-bromopyruvate is microencapsulated in a beta-cyclodextrin, and wherein the subject does not have hepatocellular carcinoma or cirrhosis. i) an interleukin selected from IL-1, IL-3, IL-5, IL-9, IL-10 and IL-13, ii) an enhancer of HSC-activation selected from CD40 antigen and IGBP-3, or iii) a pro-fibrotic cytokine selected from CRG-2, CTACK, VEGF, CXCL 16, CXCL1, TNF-α and eotaxin-2, and wherein the 3-bromopyruvate is microencapsulated in a beta-cyclodextrin, and wherein the subject does not have hepatocellular carcinoma or cirrhosis.
A battery module , comprising: a battery stack including cells that are tabular and laminated on one another; and a module reinforcement plate that is metallic and disposed in at least a position that substantially covers an entirety of a second outer surface having a maximum area, the position being included in positions that cover a plurality of outer surfaces excluding a pair of first outer surfaces at both outer sides along a lamination direction of the battery stack , wherein the module reinforcement plate includes a protrusion that engages with an opening formed on a module fixing plate for fixing the battery module in a predetermined position on a placement surface on which the battery module is placed. a battery stack including cells that are tabular and laminated on one another; and a module reinforcement plate that is metallic and disposed in at least a position that substantially covers an entirety of a second outer surface having a maximum area, the position being included in positions that cover a plurality of outer surfaces excluding a pair of first outer surfaces at both outer sides along a lamination direction of the battery stack , wherein the module reinforcement plate includes a protrusion that engages with an opening formed on a module fixing plate for fixing the battery module in a predetermined position on a placement surface on which the battery module is placed.
An ultrasound transducer attachment system , comprising: a substrate layer , having a first face and a second face , wherein the second face is on an opposite side to the first face , the first face comprising a first adhesive surface for bonding to skin on the neck of a human or animal patient; an ultrasound transducer , fastened to the first face of the substrate layer , for placement adjacent a carotid artery of the patient; and characterised by further comprising a removable alignment layer , removably bonded to the second face of the substrate layer and extending beyond the substrate layer in at least a first direction , along a first dimension, so as to aid alignment of the ultrasound transducer adjacent the carotid artery of the patient. a substrate layer , having a first face and a second face , wherein the second face is on an opposite side to the first face , the first face comprising a first adhesive surface for bonding to skin on the neck of a human or animal patient; an ultrasound transducer , fastened to the first face of the substrate layer , for placement adjacent a carotid artery of the patient; and characterised by further comprising a removable alignment layer , removably bonded to the second face of the substrate layer and extending beyond the substrate layer in at least a first direction , along a first dimension, so as to aid alignment of the ultrasound transducer adjacent the carotid artery of the patient.
A liquid electrolyte for a lithium-sulfur battery comprising: a lithium salt; and a non-aqueous solvent, wherein the non-aqueous solvent includes linear ether and cyclic ether including one oxygen in a ring structure; and, in the linear ether, bond dissociation energy of a C-O bond when receiving one electron is greater than -19.9 kcal/mol when calculating using a DFT M06-2X method; wherein the linear ether is one or more types selected from the group consisting of dimethyl ether, diethyl ether, dipropyl ether, diisopropyl ether, dibutyl ether, diisobutyl ether, dipentyl ether, dihexyl ether, ethylmethyl ether, methylpropyl ether, butylmethyl ether, ethylpropyl ether, butylpropyl ether, phenylmethyl ether, diphenyl ether, dibenzyl ether, bis(fluoromethyl)ether, 2-fluoromethyl ether, 1,1,2,2-tetrafluoroethyl-2,2,3,3-tetrafluoropropyl ether, bis(2,2,2-trifluoroethyl)ether, propyl-1,1,2,2-tetrafluoroethyl ether, isopropyl-1,1,2,2-tetrafluoroethyl ether, 1,1,2,2-tetrafluoroethylisobutyl ether, 1,1,2,3,3,3-hexafluoropropylethyl ether, 1H,1H,2'H,3H-decafluorodipropyl ether and 1H,1H,2'H-perfluorodipropyl ether; and wherein the cyclic ether is tetrahydrofuran or tetrahydropyran unsubstituted or substituted with a C1 to C4 alkyl group or alkoxy group. a lithium salt; and a non-aqueous solvent, wherein the non-aqueous solvent includes linear ether and cyclic ether including one oxygen in a ring structure; and, in the linear ether, bond dissociation energy of a C-O bond when receiving one electron is greater than -19.9 kcal/mol when calculating using a DFT M06-2X method; wherein the linear ether is one or more types selected from the group consisting of dimethyl ether, diethyl ether, dipropyl ether, diisopropyl ether, dibutyl ether, diisobutyl ether, dipentyl ether, dihexyl ether, ethylmethyl ether, methylpropyl ether, butylmethyl ether, ethylpropyl ether, butylpropyl ether, phenylmethyl ether, diphenyl ether, dibenzyl ether, bis(fluoromethyl)ether, 2-fluoromethyl ether, 1,1,2,2-tetrafluoroethyl-2,2,3,3-tetrafluoropropyl ether, bis(2,2,2-trifluoroethyl)ether, propyl-1,1,2,2-tetrafluoroethyl ether, isopropyl-1,1,2,2-tetrafluoroethyl ether, 1,1,2,2-tetrafluoroethylisobutyl ether, 1,1,2,3,3,3-hexafluoropropylethyl ether, 1H,1H,2'H,3H-decafluorodipropyl ether and 1H,1H,2'H-perfluorodipropyl ether; and wherein the cyclic ether is tetrahydrofuran or tetrahydropyran unsubstituted or substituted with a C1 to C4 alkyl group or alkoxy group.
A buoy comprising: a core component ; and two or more detachable flotation components that surround and support the core component , wherein the detachable flotation components and the core component further include respective engagement formations to engage with each other, characterized in that the core component is a buoyant core component; and the engagement formation on the core component includes a downward lip projection , around a periphery of the core component, and the detachable flotation components each include an upward lip projection , whereby the respective lip projections may engage in recesses behind the other lip projection . a core component ; and two or more detachable flotation components that surround and support the core component , wherein the detachable flotation components and the core component further include respective engagement formations to engage with each other, characterized in that the core component is a buoyant core component; and the engagement formation on the core component includes a downward lip projection , around a periphery of the core component, and the detachable flotation components each include an upward lip projection , whereby the respective lip projections may engage in recesses behind the other lip projection .
A method for spatially tagging target nucleic acids of a biological specimen, comprising: (a) providing a solid support comprising a population of nucleic acids randomly located across a population of features of said solid support, wherein the nucleic acids comprise a barcode sequence, and wherein the barcode sequence differs from barcode sequences of other nucleic acids in the population; (b) performing a sequencing reaction to determine the barcode sequences, or complements thereof, of the nucleic acids randomly located across the population of features on the solid support, thereby determining the position of the barcode sequences on the solid support; (c) contacting a biological specimen with the solid support that comprises the nucleic acids; (d) hybridizing a target nucleic acid from the biological specimen to a capture sequence on a nucleic acid that is proximal to the target nucleic acid; and (e) extending the nucleic acid to produce an extended probe that comprises the barcode sequence, or a complement thereof, and all or a portion of the target nucleic acid, or a complement thereof, thereby spatially tagging the target nucleic acid from the biological specimen. (a) providing a solid support comprising a population of nucleic acids randomly located across a population of features of said solid support, wherein the nucleic acids comprise a barcode sequence, and wherein the barcode sequence differs from barcode sequences of other nucleic acids in the population; (b) performing a sequencing reaction to determine the barcode sequences, or complements thereof, of the nucleic acids randomly located across the population of features on the solid support, thereby determining the position of the barcode sequences on the solid support; (c) contacting a biological specimen with the solid support that comprises the nucleic acids; (d) hybridizing a target nucleic acid from the biological specimen to a capture sequence on a nucleic acid that is proximal to the target nucleic acid; and (e) extending the nucleic acid to produce an extended probe that comprises the barcode sequence, or a complement thereof, and all or a portion of the target nucleic acid, or a complement thereof, thereby spatially tagging the target nucleic acid from the biological specimen.
Composite construction, consisting - of a glazing unit , - a post-and-beam structure, - a coupling component , which is mounted on the post-and-beam structure, and at least one fixing element , which is mounted between the coupling component and the glazing unit , - wherein the glazing unit is introduced into a region between two posts and at least one beam , characterized in that the fixing element has a basic body and an adjusting element (41; 42) and the position of the adjusting element (41; 42) is adjustable in relation to the basic body and is able to be fixed in a plurality of positions in relation to the basic body , wherein the fixing element is clamped in between the coupling component and the glazing unit by means of a movement of the adjusting element (41; 42) away from the basic body . - of a glazing unit , - a post-and-beam structure, - a coupling component , which is mounted on the post-and-beam structure, and at least one fixing element , which is mounted between the coupling component and the glazing unit , - wherein the glazing unit is introduced into a region between two posts and at least one beam ,