mhurhangee/patent-ind-claim-en huggingface dataset:
Reusable light-activated sterilization system comprising: - a material having layers of graphene and/or graphene oxide, - a light emitting source of near infrared (NIR) radiation, and - a waveguide, wherein the light emitting source emits radiation in the range of 650 - 950 nm with an intensity of 1 - 330 mW/cm 2 , and wherein said waveguide is coated with the material having layers of graphene and/or graphene oxide. - a material having layers of graphene and/or graphene oxide, - a light emitting source of near infrared (NIR) radiation, and - a waveguide,
A vehicle seat , comprising: a seatback frame including a pair of side members extending vertically along either side thereof and providing a structural framework of a seatback; a plate member positioned behind the seatback frame and including an extension extending in an outboard direction from the side member located on an outboard side of the seatback frame; a mounting member connected to the outboard side member; and an airbag module positioned on a front side of the extension and connected to the outboard side member via the mounting member; characterised in that a clearance (S) is defined between the airbag module and the extension; and in that the mounting member includes a first mounting member directly connected to the outboard side member, and a second mounting member directly connected to the airbag module, and the second mounting member is connected to the first mounting member via a fastener , the plate member being provided with a through hole passed along an axial line (X) of the fastener. a seatback frame including a pair of side members extending vertically along either side thereof and providing a structural framework of a seatback; a plate member positioned behind the seatback frame and including an extension extending in an outboard direction from the side member located on an outboard side of the seatback frame; a mounting member connected to the outboard side member; and an airbag module positioned on a front side of the extension and connected to the outboard side member via the mounting member; characterised in that a clearance (S) is defined between the airbag module and the extension; and in that the mounting member includes a first mounting member directly connected to the outboard side member, and a second mounting member directly connected to the airbag module, and the second mounting member is connected to the first mounting member via a fastener , the plate member being provided with a through hole passed along an axial line (X) of the fastener.
Glazing comprising a transparent substrate coated with a stack of thin layers successively comprising, from the substrate, an alternation of two functional metallic layers based on silver and of three antireflection coatings , each antireflection coating comprising at least one dielectric layer, so that each functional metallic layer is positioned between two antireflection coatings , characterized in that : - the two functional metallic layers correspond to the first 40 and to the second functional metallic layer 80 defined from the substrate, the thickness of the second functional metallic layer 80 is higher than that of the first functional metallic layer 40, - the first functional metallic layer is in contact with a blocking underlayer, known as first blocking underlayer, - the first blocking underlayer is an absorbent layer exhibiting a thickness of greater than 1 nm, - the first blocking underlayer is located in contact with a dielectric layer based on a nonoxidized nitride of one or more elements chosen from silicon and aluminium, - the first blocking underlayer and, if present, the first blocking overlayer, the second blocking underlayer and/or the second blocking overlayer have respectively thickness UB1, OB1, UB2, OB2 satisfying the following relation: UB1> 1.1* MAX(OB1, UB2, OB2). - the two functional metallic layers correspond to the first 40 and to the second functional metallic layer 80 defined from the substrate, the thickness of the second functional metallic layer 80 is higher than that of the first functional metallic layer 40, - the first functional metallic layer is in contact with a blocking underlayer, known as first blocking underlayer, - the first blocking underlayer is an absorbent layer exhibiting a thickness of greater than 1 nm, - the first blocking underlayer is located in contact with a dielectric layer based on a nonoxidized nitride of one or more elements chosen from silicon and aluminium, - the first blocking underlayer and, if present, the first blocking overlayer, the second blocking underlayer and/or the second blocking overlayer have respectively thickness UB1, OB1, UB2, OB2 satisfying the following relation: UB1> 1.1* MAX(OB1, UB2, OB2). UB1> 1.1* MAX(OB1, UB2, OB2).
A polypeptide dimer comprising two monomers, each monomer having at least 90% sequence identity to SEQ ID NO: 1, wherein the monomers comprise the gp130 D6 domain corresponding to the amino acids at positions 585-595 of SEQ ID NO:1, an Fc domain hinge region comprising the amino acids at positions 609-612 of SEQ ID NO:1, and the monomers do not comprise a linker between the gp130 portion and the Fc domain, for use in the treatment of an inflammatory disease or an IL-6-mediated condition in a human, wherein the polypeptide dimer is administered in a dose of 60 mg to 1 g.
A polymeric material comprising: a polyisobutylene-polyurethane block copolymer including: soft segments including a polyisobutylene diol residue; hard segments including a diisocyanate residue; and end groups bonded by urea bonds to a portion of the diisocyanate residue, the end groups including a residue of a mono-functional amine, wherein the mono-functional amine is butylamine. soft segments including a polyisobutylene diol residue; hard segments including a diisocyanate residue; and end groups bonded by urea bonds to a portion of the diisocyanate residue, the end groups including a residue of a mono-functional amine, wherein the mono-functional amine is butylamine.
Gas analyser with at least two different light sources , a detector and a Herriott cell containing a measurement gas with two mirrors , wherein the radiation sources are arranged and aligned in relation to the Herriott cell in such a manner that beams which are coupled by them into the Herriott cell and reflected between the mirrors strike the mirrors in point patterns (20, 21, 22; 20', 21', 22') which run along ellipses (17, 18, 19; 17', 18', 19'), wherein - the ellipses (17, 18, 19; 17', 18', 19') have two shared vertices which lie inside one another on a shared axis of symmetry and various vertices apart from these, - the beams of at least two of the different radiation sources - enter the Herriott cell at differing points of the associated point pattern (20, 21, 22; 20', 21', 22') and/or - enter the Herriott cell in such a manner that they pass through the associated point patterns (20, 21, 22; 20', 21', 22') along the ellipses (17, 18, 19; 17', 18', 19') in opposite directions, - all beams exit the Herriott cell at the point of one of the shared vertices (24, 25; 24') and strike the detector , and wherein - the beams of the at least two of the different radiation sources pass through differing path lengths in the Herriott cell . - the ellipses (17, 18, 19; 17', 18', 19') have two shared vertices which lie inside one another on a shared axis of symmetry and various vertices apart from these, - the beams of at least two of the different radiation sources - enter the Herriott cell at differing points of the associated point pattern (20, 21, 22; 20', 21', 22') and/or - enter the Herriott cell in such a manner that they pass through the associated point patterns (20, 21, 22; 20', 21', 22') along the ellipses (17, 18, 19; 17', 18', 19') in opposite directions, - enter the Herriott cell at differing points of the associated point pattern (20, 21, 22; 20', 21', 22') and/or - enter the Herriott cell in such a manner that they pass through the associated point patterns (20, 21, 22; 20', 21', 22') along the ellipses (17, 18, 19; 17', 18', 19') in opposite directions, - all beams exit the Herriott cell at the point of one of the shared vertices (24, 25; 24') and strike the detector , and wherein - the beams of the at least two of the different radiation sources pass through differing path lengths in the Herriott cell .
A method for producing a pseudopolyrotaxane, which has a linear molecule and a cyclic molecule(s) in which the linear molecule is included in a cavity (cavities) of the cyclic molecule(s) in a skewered manner, the method comprising the steps of: (A) preparing a linear molecule having acidic or basic functional groups at both ends, wherein the acidic functional group is selected from a carboxylic acid group, a sulfonic acid group, and a phosphoric acid group, and the basic functional group is selected from a primary amine group, a secondary amine residue, a tertiary amine residue, an aniline residue, and a pyridine residue; and (B) mixing the linear molecule, a cyclic molecule(s), and a first acid addition salt of an amine or a first base addition salt of a carboxylic acid, wherein the first acid addition salt is used in a case of the linear molecule having the acidic functional group, and the first base addition salt is used in a case of the linear molecule having the basic functional group, wherein in a case where the terminal functional group of the linear molecule is an acidic group, an amine addition salt is used and in a case where the terminal functional group of the linear molecule is a basic group, a carboxylic acid additional salt is used, wherein the step (B) is carried out in the presence of an aqueous solvent; to form the pseudopolyrotaxane. (A) preparing a linear molecule having acidic or basic functional groups at both ends, wherein the acidic functional group is selected from a carboxylic acid group, a sulfonic acid group, and a phosphoric acid group, and the basic functional group is selected from a primary amine group, a secondary amine residue, a tertiary amine residue, an aniline residue, and a pyridine residue; and (B) mixing the linear molecule, a cyclic molecule(s), and a first acid addition salt of an amine or a first base addition salt of a carboxylic acid, wherein the first acid addition salt is used in a case of the linear molecule having the acidic functional group, and the first base addition salt is used in a case of the linear molecule having the basic functional group, wherein in a case where the terminal functional group of the linear molecule is an acidic group, an amine addition salt is used and in a case where the terminal functional group of the linear molecule is a basic group, a carboxylic acid additional salt is used, wherein the step (B) is carried out in the presence of an aqueous solvent; to form the pseudopolyrotaxane. wherein the first acid addition salt is used in a case of the linear molecule having the acidic functional group, and the first base addition salt is used in a case of the linear molecule having the basic functional group, wherein in a case where the terminal functional group of the linear molecule is an acidic group, an amine addition salt is used and in a case where the terminal functional group of the linear molecule is a basic group, a carboxylic acid additional salt is used, wherein the step (B) is carried out in the presence of an aqueous solvent; to form the pseudopolyrotaxane.
A rotating component comprising: a hinge bracket ; one movable strip disposed on the hinge bracket , the movable strip comprising a first meshing portion facing toward the hinge bracket and a second meshing portion facing away from the hinge bracket ; and two rotating structures comprising a first rotating structure (A) and a second rotating structure (B), the first rotating structure (A) being disposed on a first side of the movable strip and meshed with the first meshing portion , and the second rotating structure (B) being disposed on a second side of the movable strip and meshed with the second meshing portion , wherein the movable strip is configured to drive the two rotating structures to rotate synchronously in opposite rotation directions when the movable strip moves. a hinge bracket ; one movable strip disposed on the hinge bracket , the movable strip comprising a first meshing portion facing toward the hinge bracket and a second meshing portion facing away from the hinge bracket ; and two rotating structures comprising a first rotating structure (A) and a second rotating structure (B), the first rotating structure (A) being disposed on a first side of the movable strip and meshed with the first meshing portion , and the second rotating structure (B) being disposed on a second side of the movable strip and meshed with the second meshing portion , wherein the movable strip is configured to drive the two rotating structures to rotate synchronously in opposite rotation directions when the movable strip moves.
An implantable device, comprising: a substrate; an integrated circuit attached to the substrate; and an ultrasonic transducer configured to receive ultrasonic waves that power the integrated circuit, wherein the ultrasonic transducer is attached to the substrate, characterised in that the ultrasonic transducer is attached to the substrate via one or more electrodes, and wherein the total electrode surface area in contact with the ultrasonic transducer is smaller than the surface area of a face of the ultrasonic transducer to which the one or more electrodes are attached. a substrate; an integrated circuit attached to the substrate; and an ultrasonic transducer configured to receive ultrasonic waves that power the integrated circuit, wherein the ultrasonic transducer is attached to the substrate, characterised in that the ultrasonic transducer is attached to the substrate via one or more electrodes, and wherein the total electrode surface area in contact with the ultrasonic transducer is smaller than the surface area of a face of the ultrasonic transducer to which the one or more electrodes are attached.
A distribution valve having a flow meter for a liquid medium which is connected to a distribution bar by an outer body via a thread and which has at least one inlet opening , an inner body which is alterable in its axial position in the outer body by means of a rotatable adjusting nut and is able, with its at least one inflow channel , to be brought into a corresponding position relative to the inlet opening of the outer body such that the liquid medium flows into the inner body via windows , wherein the inner body has an outflow channel inside expanding conically outwards in which a piston is arranged such that it is axially movable and guided by a piston rod axially penetrating the inner body , wherein the piston rod is combined with a display element which displays the movement of the piston depending on the flow of the medium flowing through the outflow channel , characterized in that the inner body is arranged in the outer body such that it is exclusively axially displaceable, wherein the at least one inlet opening of the outer body is closable by the inner body and the inflow channel is connected to the outflow channel via windows , wherein the inflow channel includes radii arranged such that the inflowing medium flows upwards in the direction of the adjusting nut and that a direction reversal occurs after flowing through the windows .
A method, in an analytics controller in a service based architecture communications network, the method comprising; obtaining an indication of an analytics policy rule, APR, wherein the APR indicates analytics to be carried out by a user plane function node; translating the APR into at least one rule setting a condition for reporting analytics to a network data analytics function, NWDAF, or for forwarding packets to an analytics engine, wherein the rule applies to one of: a particular user and particular traffic type; a particular user for all traffic types; and a particular user plane function node; and transmitting the at least one rule to the user plane function node. obtaining an indication of an analytics policy rule, APR, wherein the APR indicates analytics to be carried out by a user plane function node; translating the APR into at least one rule setting a condition for reporting analytics to a network data analytics function, NWDAF, or for forwarding packets to an analytics engine, wherein the rule applies to one of: a particular user and particular traffic type; a particular user for all traffic types; and a particular user plane function node; and transmitting the at least one rule to the user plane function node.
A station, STA, comprising: an antenna ; and a processor operatively coupled to the antenna, the processor and the antenna configured to: receive, from an access point, AP, an association response frame or a reassociation response frame, wherein the association response frame or reassociation response frame includes a first channel bitmap and an indication that subchannel selective transmission operation is currently being used; receive, from the AP , a short beacon frame, wherein the short beacon frame includes a second channel bitmap and an indication that a channel within one or more of the first channel bitmap and the second channel bitmap is available for use by the STA during a subchannel selective transmission period following the short beacon frame; and transmit on the channel during the subchannel selective transmission period. an antenna ; and a processor operatively coupled to the antenna, the processor and the antenna configured to: receive, from an access point, AP, an association response frame or a reassociation response frame, wherein the association response frame or reassociation response frame includes a first channel bitmap and an indication that subchannel selective transmission operation is currently being used; receive, from the AP , a short beacon frame, wherein the short beacon frame includes a second channel bitmap and an indication that a channel within one or more of the first channel bitmap and the second channel bitmap is available for use by the STA during a subchannel selective transmission period following the short beacon frame; and transmit on the channel during the subchannel selective transmission period. receive, from an access point, AP, an association response frame or a reassociation response frame, wherein the association response frame or reassociation response frame includes a first channel bitmap and an indication that subchannel selective transmission operation is currently being used; receive, from the AP , a short beacon frame, wherein the short beacon frame includes a second channel bitmap and an indication that a channel within one or more of the first channel bitmap and the second channel bitmap is available for use by the STA during a subchannel selective transmission period following the short beacon frame; and transmit on the channel during the subchannel selective transmission period.
A salt which is a 4-methylbenzenesulfonic acid salt of 1-((4-(methoxymethyl)-4-(( -2-phenylcyclopropylamino)methyl)piperidin-1-yl)methyl)cyclobutanecarboxylic acid or a hydrate or solvate thereof.
A porous material for polishing comprising: an elastic foam having anisotropy; a polymer; and abrasive grains ; characterized in that the polymer is a crosslinked polyrotaxane ; and the porous material for polishing is obtained by impregnating the elastic foam with a dispersion liquid comprising the abrasive grains , polyrotaxane and a crosslinking agent and then crosslinking the polyrotaxane. an elastic foam having anisotropy; a polymer; and abrasive grains ; characterized in that the polymer is a crosslinked polyrotaxane ; and the porous material for polishing is obtained by impregnating the elastic foam with a dispersion liquid comprising the abrasive grains , polyrotaxane and a crosslinking agent and then crosslinking the polyrotaxane.
Heat sink , intended to be integrated into a power electronics unit, the heat sink comprising a cooling system having: a first portion having at least two parallel surfaces defining a first cooling channel of the cooling system, and a second portion defining a second cooling channel of the cooling system having at least two parallel surfaces , wherein each surface comprising a receiving area configured to receive an electronic component , and the at least two parallel surfaces of the first portion being transverse to the at least two parallel surfaces of the second portion . a first portion having at least two parallel surfaces defining a first cooling channel of the cooling system, and a second portion defining a second cooling channel of the cooling system having at least two parallel surfaces , wherein each surface comprising a receiving area configured to receive an electronic component , and the at least two parallel surfaces of the first portion being transverse to the at least two parallel surfaces of the second portion .
A taste and flavor modifying composition comprising major steviol glycosides comprising Reb A, Reb C, Reb D and Stevioside, and glycosylated diterpene derivative plant molecules, derived from a Stevia rebaudiana plant, wherein the content of each of the four major steviol glycosides varies between 1% to 25% of the composition.
A brazing sheet used for brazing under an atmosphere of an inert gas without flux, comprising at least three layers and being cladded by an outermost layer of a brazing material layer via an intermediate layer on at least one face of a core material, wherein: the core material is composed of an aluminum alloy containing at least one element from among at least 0.20 weight% and no more than 1.0 weight% of Cu, at least 0.8 weight% and no more than 1.8 weight% of Mn, and at least 0.25 weight% and no more than 1.5 weight% of Mg; the intermediate layer is composed of an aluminum alloy prepared such that Si and Fe are respectively no more than 0.20 weight% and Cu, Mn, and Cr are respectively no more than 0.10 weight%; the brazing material layer is composed of an aluminum alloy containing at least 10 weight% and no more than 15 weight% of Si and at least 0.25 weight% and no more than 1.5 weight% of Mg, and has a melting point no more than 575 °C according to a DSC method; at least one layer among the intermediate layer and the brazing material layer contain at least 0.02 weight% and no more than 0.25 weight% of Bi; and a fluid coefficient of the brazing material layer on the side whereon the intermediate layer is disposed is, according to a drop type flow test, in a range of 0.40 to 0.60. the core material is composed of an aluminum alloy containing at least one element from among at least 0.20 weight% and no more than 1.0 weight% of Cu, at least 0.8 weight% and no more than 1.8 weight% of Mn, and at least 0.25 weight% and no more than 1.5 weight% of Mg; the intermediate layer is composed of an aluminum alloy prepared such that Si and Fe are respectively no more than 0.20 weight% and Cu, Mn, and Cr are respectively no more than 0.10 weight%; the brazing material layer is composed of an aluminum alloy containing at least 10 weight% and no more than 15 weight% of Si and at least 0.25 weight% and no more than 1.5 weight% of Mg, and has a melting point no more than 575 °C according to a DSC method; at least one layer among the intermediate layer and the brazing material layer contain at least 0.02 weight% and no more than 0.25 weight% of Bi; and a fluid coefficient of the brazing material layer on the side whereon the intermediate layer is disposed is, according to a drop type flow test, in a range of 0.40 to 0.60.