mhurhangee/patent-ind-claim-en huggingface dataset:
Semiconductor component with: a front side and an opposite back side as well as side faces, as well as at least one emitter and at least one base , wherein a pn junction is formed between the emitter and base and the emitter extends parallel to the front side and/or back side, wherein the pn junction is adjacent to the separating surface (T) and the semiconductor component is formed as a photovoltaic solar cell, characterized in that at least one side face is a passivated separating surface (T) on which a separating surface passivation layer is arranged which has fixed charges with a surface charge density at the separating surface (T) which is greater than or equal to 10 12 cm -2 , the pn junction being adjacent to the passivated separating surface (T). a front side and an opposite back side as well as side faces, as well as at least one emitter and at least one base , wherein a pn junction is formed between the emitter and base and the emitter extends parallel to the front side and/or back side, wherein the pn junction is adjacent to the separating surface (T) and the semiconductor component is formed as a photovoltaic solar cell, characterized in that at least one side face is a passivated separating surface (T) on which a separating surface passivation layer is arranged which has fixed charges with a surface charge density at the separating surface (T) which is greater than or equal to 10 12 cm -2 , the pn junction being adjacent to the passivated separating surface (T).
Method for generating a payment token having issuer-specified domain controls, comprising: using an information processing apparatus comprising at least one computer processor: receiving , from an issuer of a financial instrument , an identification of an issuer-specified domain control or restriction on a device-specific payment token for the financial instrument that is provisioned to an electronic wallet on an electronic device, the issuer-specified domain control or restriction to be applied by the issuer and the device-specific payment token is restricted to transactions from only the electronic device; requesting , by the issuer of a financial instrument and from a third-party token service provider , generation of the device-specific payment token with a pass-through indicator from the third-party token service provider , receiving , from the third-party token service provider , the device-specific payment token; and storing an association of the issuer-specified domain control or restriction and the device-specific payment token; wherein a payment network receives a transaction request involving the device-specific payment token and passes the transaction request through without applying any domain control or restriction to the transaction due to the pass-through indicator; and the issuer of the financial instrument applies the issuer-specified domain control or restriction. receiving , from an issuer of a financial instrument , an identification of an issuer-specified domain control or restriction on a device-specific payment token for the financial instrument that is provisioned to an electronic wallet on an electronic device, the issuer-specified domain control or restriction to be applied by the issuer and the device-specific payment token is restricted to transactions from only the electronic device; requesting , by the issuer of a financial instrument and from a third-party token service provider , generation of the device-specific payment token with a pass-through indicator from the third-party token service provider , receiving , from the third-party token service provider , the device-specific payment token; and storing an association of the issuer-specified domain control or restriction and the device-specific payment token; wherein a payment network receives a transaction request involving the device-specific payment token and passes the transaction request through without applying any domain control or restriction to the transaction due to the pass-through indicator; and the issuer of the financial instrument applies the issuer-specified domain control or restriction.
A consumable cartridge frame for a liquid-cooled plasma arc torch, the consumable cartridge frame comprising: an insulator body configured to be disposed between a torch head and a cartridge tip; a first cooling channel, disposed in the body, configured to conduct a first fluid flow received from the torch head to contact a component of the cartridge tip connected to the cartridge frame; and a first return channel, disposed in the body, configured to conduct at least a portion of the first fluid flow from the component to the torch head, wherein a longitudinal axis of the first cooling channel and a longitudinal axis of the first return channel are offset from a central longitudinal axis of the body, and characterised in that an interior surface of the insulator body has at least one inner retaining feature configured to matingly engage at least one outer retaining feature of a nozzle of the cartridge tip. an insulator body configured to be disposed between a torch head and a cartridge tip; a first cooling channel, disposed in the body, configured to conduct a first fluid flow received from the torch head to contact a component of the cartridge tip connected to the cartridge frame; and a first return channel, disposed in the body, configured to conduct at least a portion of the first fluid flow from the component to the torch head, wherein a longitudinal axis of the first cooling channel and a longitudinal axis of the first return channel are offset from a central longitudinal axis of the body, and characterised in that an interior surface of the insulator body has at least one inner retaining feature configured to matingly engage at least one outer retaining feature of a nozzle of the cartridge tip.
A composition comprising an agent that mediates upregulation of Transcription Factor EB for use in the treatment of a lysosomal storage disorder, wherein (i) the agent is cinnamic acid; or (ii) the agent is sodium benzoate. (i) the agent is cinnamic acid; or (ii) the agent is sodium benzoate.
Eraser for removal of smears of writing, painting and/or drawing instruments at least consisting of at least one binder and at least one softener, characterised in that the at least one softener is formed as polyolester, the eraser comprises, as fillers, organic fillers and the organic fillers are wood flour, kernel flour and/or products derived therefrom.
A production process for a liquid discharge head, comprising: providing a dry film of a first photosensitive resin composition ; applying the dry film on to a substrate in which a hole opening to a surface thereof is formed so as to cover the hole; laminating a second photosensitive resin composition on the first photosensitive resin composition in a form of a dry film; and performing pattern exposure of the applied dry film of the first photosensitive resin composition and of the laminated dry film of the second photosensitive resin composition to form a liquid discharge head, wherein a discharge energy generating element and, as the hole opening , a liquid supply path for liquid are formed in the substrate , characterized in that the first photosensitive resin composition contains a photoacid generator, a tri- or higher functional epoxy resin, and a bifunctional epoxy resin, the bifunctional epoxy resin has a weight-average molecular weight (Mw) of 5,500 to 60,000, the first photosensitive resin composition has a weight-average molecular weight (Mw) ranging from 4,500 to 11,000, and a mixing ratio by mass between the tri- or higher functional epoxy resin and the bifunctional epoxy resin satisfies (b)/(a) ≤ 1.5, where (a) is a mass of the tri- or higher functional epoxy resin, and (b) is a mass of the bifunctional epoxy resin. providing a dry film of a first photosensitive resin composition ; applying the dry film on to a substrate in which a hole opening to a surface thereof is formed so as to cover the hole; laminating a second photosensitive resin composition on the first photosensitive resin composition in a form of a dry film; and performing pattern exposure of the applied dry film of the first photosensitive resin composition and of the laminated dry film of the second photosensitive resin composition to form a liquid discharge head, wherein a discharge energy generating element and, as the hole opening , a liquid supply path for liquid are formed in the substrate , characterized in that the first photosensitive resin composition contains a photoacid generator, a tri- or higher functional epoxy resin, and a bifunctional epoxy resin, the bifunctional epoxy resin has a weight-average molecular weight (Mw) of 5,500 to 60,000, the first photosensitive resin composition has a weight-average molecular weight (Mw) ranging from 4,500 to 11,000, and a mixing ratio by mass between the tri- or higher functional epoxy resin and the bifunctional epoxy resin satisfies (b)/(a) ≤ 1.5, where (a) is a mass of the tri- or higher functional epoxy resin, and (b) is a mass of the bifunctional epoxy resin.
A process for making a hydrophilic material comprising, combining at least one water soluble polymer and a solvent to provide a polymeric mixture; heating the polymeric mixture to a temperature above the melting point of the at least one polymer in the polymeric mixture without boiling the polymeric mixture; extruding the polymeric mixture comprising passage through a die; and passing the formed mixture into a solvent-removing environment; cooling the extruded material in a solvent-removing environment at a temperature from -50 to 30°C, whereby freezing temperatures are excluded, to form a nanoporous solid being a hydrophilic nanoporous solid with interconnected pores having a pore size of 100 nm or less in diameter, wherein the process is performed without covalent crosslinking of the at least one polymer. combining at least one water soluble polymer and a solvent to provide a polymeric mixture; heating the polymeric mixture to a temperature above the melting point of the at least one polymer in the polymeric mixture without boiling the polymeric mixture; extruding the polymeric mixture comprising passage through a die; and passing the formed mixture into a solvent-removing environment; cooling the extruded material in a solvent-removing environment at a temperature from -50 to 30°C, whereby freezing temperatures are excluded, to form a nanoporous solid being a hydrophilic nanoporous solid with interconnected pores having a pore size of 100 nm or less in diameter, wherein the process is performed without covalent crosslinking of the at least one polymer.
Hydrogenated nitrile-butadiene-PEG acrylate copolymers containing a) 25% to 38% by weight, preferably 27% to 37% by weight and more preferably 29% to 36% by weight of at least one α,β-ethylenically unsaturated nitrile unit, b) 40% to 60% by weight, preferably 42% to 58% by weight and more preferably 44% to 59% by weight of at least one conjugated diene unit and c) 10% to 25% by weight, preferably 11% to 22% by weight and more preferably 12% to 20% by weight of at least one PEG acrylate unit derived from a PEG acrylate of the general formula (I) where R is hydrogen or branched or unbranched C 1 -C 20 -alkyl, preferably methyl, ethyl, butyl or ethylhexyl, n is 1 to 8, preferably 2 to 8, more preferably 2 to 5 and most preferably 3 and R 1 is hydrogen or CH 3 -, where the hydrogenated nitrile-butadiene-PEG acrylate copolymer, if n is 1, does not contain any further copolymerizable monomer unit having a free carboxylic acid group. a) 25% to 38% by weight, preferably 27% to 37% by weight and more preferably 29% to 36% by weight of at least one α,β-ethylenically unsaturated nitrile unit, b) 40% to 60% by weight, preferably 42% to 58% by weight and more preferably 44% to 59% by weight of at least one conjugated diene unit and c) 10% to 25% by weight, preferably 11% to 22% by weight and more preferably 12% to 20% by weight of at least one PEG acrylate unit derived from a PEG acrylate of the general formula (I) where R is hydrogen or branched or unbranched C 1 -C 20 -alkyl, preferably methyl, ethyl, butyl or ethylhexyl, n is 1 to 8, preferably 2 to 8, more preferably 2 to 5 and most preferably 3 and R 1 is hydrogen or CH 3 -, where the hydrogenated nitrile-butadiene-PEG acrylate copolymer, if n is 1, does not contain any further copolymerizable monomer unit having a free carboxylic acid group. R is hydrogen or branched or unbranched C 1 -C 20 -alkyl, preferably methyl, ethyl, butyl or ethylhexyl, n is 1 to 8, preferably 2 to 8, more preferably 2 to 5 and most preferably 3 and R 1 is hydrogen or CH 3 -,
A method implemented on at least one machine each of which has at least one processor and storage, the method comprising: acquiring emission tomography list mode data relating to a subject; dividing the list mode data into a plurality of time intervals; establishing a relationship between data-space and reconstruction space; determining, for each time interval, based on the divided list mode data and the relationship, an x-axis mathematical expectation of a translation of the subject's center of mass, a y-axis mathematical expectation of the translation of the subject's center of mass, and a z-axis mathematical expectation of the translation of the subject's center of mass; determining, for each time interval, based on the x-axis mathematical expectation information, the y-axis mathematical expectation information and the z-axis mathematical expectation information of the translation of the subject's center of mass, translation information relating to a rigid motion of the subject; determining for each time interval, the covariance matrix of the x-axis mathematical expectation, the y-axis mathematical expectation, and the z-axis mathematical expectation of the translation of the subject's center of mass; and determining, for each time interval, rotational information relating to the rigid motion of the subject based on the eigen-vector matrix of the covariance matrix. acquiring emission tomography list mode data relating to a subject; dividing the list mode data into a plurality of time intervals; establishing a relationship between data-space and reconstruction space; determining, for each time interval, based on the divided list mode data and the relationship, an x-axis mathematical expectation of a translation of the subject's center of mass, a y-axis mathematical expectation of the translation of the subject's center of mass, and a z-axis mathematical expectation of the translation of the subject's center of mass; determining, for each time interval, based on the x-axis mathematical expectation information, the y-axis mathematical expectation information and the z-axis mathematical expectation information of the translation of the subject's center of mass, translation information relating to a rigid motion of the subject; determining for each time interval, the covariance matrix of the x-axis mathematical expectation, the y-axis mathematical expectation, and the z-axis mathematical expectation of the translation of the subject's center of mass; and determining, for each time interval, rotational information relating to the rigid motion of the subject based on the eigen-vector matrix of the covariance matrix.
A lead-free solder alloy comprising: 2% by weight or more and 4% by weight or less of Ag; 0.5% by weight or more and 0.7% by weight or less of Cu; 3% by weight or more and 5% by weight or less of Sb; and 0.03% by weight of Ni, the remainder being Sn; optionally further comprising: 0.001% by weight or more and 0.25% by weight or less of Co; optionally further comprising: 6% by weight or less of In; optionally further comprising: at least one of P, Ga, and Ge in a total amount of 0.001% by weight or more and 0.05% by weight or less; and optionally further comprising: at least one of Fe, Mn, Cr, and Mo in a total amount of 0.001% by weight or more and 0.05% by weight or less. 2% by weight or more and 4% by weight or less of Ag; 0.5% by weight or more and 0.7% by weight or less of Cu; 3% by weight or more and 5% by weight or less of Sb; and 0.03% by weight of Ni, the remainder being Sn; optionally further comprising: 0.001% by weight or more and 0.25% by weight or less of Co; optionally further comprising: 6% by weight or less of In; optionally further comprising: at least one of P, Ga, and Ge in a total amount of 0.001% by weight or more and 0.05% by weight or less; and optionally further comprising: at least one of Fe, Mn, Cr, and Mo in a total amount of 0.001% by weight or more and 0.05% by weight or less.
A treatment planning device comprising: a spot determination unit that is configured to classify an irradiation region to be irradiated with a charged particle beam into a plurality of layers in an irradiation direction of the charged particle beam, and that is configured to arrange a plurality of irradiation spots which serve as irradiation positions of the charged particle beam, in the layers ; a group classification unit that is configured to classify the irradiation spots into groups in accordance with a target irradiation dose of each irradiation spot ; and a planning unit that is configured to prepare a treatment plan so as to continuously emit the charged particle beam while the irradiation position is changed from an irradiation spot to a subsequent irradiation spot belonging to a certain group, and so as to stop emitting the charged particle beam while the irradiation position is changed from an irradiation spot belonging to the certain group to an irradiation spot belonging to another group located in the same layer as that of the certain group; and wherein the planning unit is configured to determine beam intensity for each of the groups classified by the group classification unit . a spot determination unit that is configured to classify an irradiation region to be irradiated with a charged particle beam into a plurality of layers in an irradiation direction of the charged particle beam, and that is configured to arrange a plurality of irradiation spots which serve as irradiation positions of the charged particle beam, in the layers ; a group classification unit that is configured to classify the irradiation spots into groups in accordance with a target irradiation dose of each irradiation spot ; and a planning unit that is configured to prepare a treatment plan so as to continuously emit the charged particle beam while the irradiation position is changed from an irradiation spot to a subsequent irradiation spot belonging to a certain group, and so as to stop emitting the charged particle beam while the irradiation position is changed from an irradiation spot belonging to the certain group to an irradiation spot belonging to another group located in the same layer as that of the certain group; and wherein the planning unit is configured to determine beam intensity for each of the groups classified by the group classification unit .
A method for manufacturing a reinforced fiber substrate having a thermally fusible binder disposed on a surface thereof in a predetermined pattern, the method comprising: a step of disposing a binder permeable sheet via a frame body on a reinforced fiber substrate ; wherein the binder permeable sheet is a mesh fabric woven by using a monofilament or spun yarn made of a synthetic resin; wherein the binder permeable sheet has a permeable pattern of binder permeable holes in a dot shape; wherein the permeable pattern is formed by coating a coating agent on the entire surface of the mesh fabric excluding the dot-shaped binder permeable hole forming part and removing a part of the coating agent to form the binder permeable holes; and wherein the frame body is composed of frame members (13a to 13d); and a step of coating a powdery binder on the surface of the reinforced fiber substrate by placing the powder binder as one lump in a partial region of the binder permeable sheet in the vicinity of a first frame member of the frame body , and the moving a spatula along the frame body while pressing the spatula against the binder permeable sheet so as to permeate the powdery binder through the permeable pattern. a step of disposing a binder permeable sheet via a frame body on a reinforced fiber substrate ; wherein the binder permeable sheet is a mesh fabric woven by using a monofilament or spun yarn made of a synthetic resin; wherein the binder permeable sheet has a permeable pattern of binder permeable holes in a dot shape; wherein the permeable pattern is formed by coating a coating agent on the entire surface of the mesh fabric excluding the dot-shaped binder permeable hole forming part and removing a part of the coating agent to form the binder permeable holes; and wherein the frame body is composed of frame members (13a to 13d); and a step of coating a powdery binder on the surface of the reinforced fiber substrate by placing the powder binder as one lump in a partial region of the binder permeable sheet in the vicinity of a first frame member of the frame body , and the moving a spatula along the frame body while pressing the spatula against the binder permeable sheet so as to permeate the powdery binder through the permeable pattern.
A method for waterproofing blanks of shoes, gloves, items of clothing and other clothing accessories, comprising the gluing and pressing on the surface of said blank , on the side intended to remain hidden after its application, of a waterproof and breathable assembly , characterized in that said assembly is provided by associating a waterproof and breathable functional element in the form of a flexible sheet with at least two meshes that close it in a sandwich-like manner, at least one of said meshes being interposed between said functional element and said blank .
A computer-implemented method for generating images of a subsurface region, the method comprising: obtaining seismic data and an earth model related to the subsurface region; forward propagating , via a computer, a source wavefield through the earth model for a limited time range dependent on a first travel time and a second travel time; backward propagating , via a computer, a receiver wavefield through the earth model for the limited time range dependent on the first travel time and the second travel time; and applying , via a computer, an imaging condition to the forward propagated source wavefield and backward propagated receiver wavefield to generate images related to the subsurface region, wherein the first travel time is a length of time taken by seismic energy to travel from a seismic source to an image point in the subsurface region and the second travel time is a length of time taken by seismic energy to travel from a seismic receiver to the image point in the subsurface region, and wherein said limited time range is between the first travel time and the second travel time subtracted from a maximum travel time recorded at the seismic receiver. obtaining seismic data and an earth model related to the subsurface region; forward propagating , via a computer, a source wavefield through the earth model for a limited time range dependent on a first travel time and a second travel time; backward propagating , via a computer, a receiver wavefield through the earth model for the limited time range dependent on the first travel time and the second travel time; and applying , via a computer, an imaging condition to the forward propagated source wavefield and backward propagated receiver wavefield to generate images related to the subsurface region, wherein the first travel time is a length of time taken by seismic energy to travel from a seismic source to an image point in the subsurface region and the second travel time is a length of time taken by seismic energy to travel from a seismic receiver to the image point in the subsurface region, and wherein said limited time range is between the first travel time and the second travel time subtracted from a maximum travel time recorded at the seismic receiver.