mhurhangee/ep-ind-claims huggingface dataset:
A lamination machine, wherein the lamination machine has at least one material source designed as a sheet feeder for material to be laminated and wherein the lamination machine has at least one lamination unit and wherein the lamination machine has at least one first lamination source for lamination material and wherein the lamination machine has at least one second lamination source for lamination material and wherein the lamination machine has at least one separation device for separating portions of a laminated material web, characterized in that the lamination machine has at least one separating device (200; 202) for the spatial separation of unlaminated sheets from one another and at least one imbricating device (200; 206; 207; 208) arranged downstream of the separating device (200, 202) for overlapping arrangement of unlaminated sheets to one another and that the separation device has at least one front clamping device with at least one front clamping point and at least one rear clamping device with at least one rear clamping point and at least one first stretching element and that the separation device can be switched between at least one traversing mode and at least one separation mode by movement of the at least one first stretching element between at least one first traversing position and at least one first separation position and that a transport line is the shortest connection between at least one front clamping point on the one hand and the at least one rear clamping point on the other hand, said connection lying completely on a vertical reference plane and traversing or running at a tangent to any component of the separation device on the respective same side as a transport path provided for the material web and/or the portions and that the transport line in the at least one separation mode is 2mm longer than in the at least one traversing mode and that the transport line has the smallest radius of curvature in the at least one separation mode of at least 0.05 mm and that the at least one first lamination source is designed as a first roll changer and has at least two first roll holding locations and that the at least one second lamination source is designed as a second roll changer and has at least two second roll holding locations.
A method of stratifying a male subject for immunotherapy, said method comprising: (a) determining in a sample obtained from the male subject a fraction of leucocytes that have lost chromosome Y; (b) comparing said fraction to a predefined threshold; and (c) based on said comparison between said fraction and said predefined threshold, assigning the male subject to either a LOY+ or LOY- sub-group, and stratifying the subject for said immunotherapy based on said sub-group. (a) determining in a sample obtained from the male subject a fraction of leucocytes that have lost chromosome Y; (b) comparing said fraction to a predefined threshold; and (c) based on said comparison between said fraction and said predefined threshold, assigning the male subject to either a LOY+ or LOY- sub-group, and stratifying the subject for said immunotherapy based on said sub-group.
Process for transvinylation of a reactant carboxylic acid with a reactant vinyl ester to give a product vinyl ester and the corresponding acid of the reactant vinyl ester in the presence of one or more catalysts, in a reactor at a temperature of 100°C to 170°C and a pressure of 2 bar abs. to 15 bar abs., wherein the reactant vinyl ester, the reactant carboxylic acid and the catalyst are supplied to a reactor and the transvinylation reaction is conducted and, on completion of the transvinylation reaction, the product vinyl ester is separated from the reaction mixture by distillation, characterized in that the reaction mixture is decompressed in a decompression vessel, the gaseous phase obtained is then condensed and recycled into the reactor without further purification, and the liquid phase obtained is freed of reactant vinyl ester and corresponding acid in a first distillation, and the product vinyl ester is separated from the reaction mixture in a further distillation step.
A dispersion of anti-corrosive particles comprising: (a) fluid, and (b) anti-corrosive particles comprising inorganic oxides comprising silica or alumina modified with polyvalent metal cations having mesoporosity and/or macroporosity such that the average pore size is between 3 nm and 80 nm and an average pore volume of at least 0.2 ml/g. (a) fluid, and (b) anti-corrosive particles comprising inorganic oxides comprising silica or alumina modified with polyvalent metal cations having mesoporosity and/or macroporosity such that the average pore size is between 3 nm and 80 nm and an average pore volume of at least 0.2 ml/g.
Sterile individual set intended for use in the process of manufacturing a biopharmaceutical product, comprising a sterile flexible bag provided with a peripheral wall defining a sterile internal space and a fluidic-type functional member arranged at least partially within said sterile internal space; wherein the functional member comprises one or more communication conduit(s) arranged within the sterile internal space, adapted to ensure the sterile fluid transfer of fluid components and having an external surface (22 EXT) with higher static and dynamic friction coefficients; the sterile individual set also comprising structural association means arranged within the sterile internal space and adapted to hold a plurality of portions to be bundled of the communication conduits(s) close to one another so as to constitute a bundle of communication conduits forming a structural unit that can be manipulated as such; characterized in that the structural association means arranged about and along the bundle of communication conduits have an external surface (30 EXT) with lower static and dynamic friction coefficients, relative to the peripheral wall of the flexible bag, than the external surface (22 EXT) of the one or more communication conduit(s) of the functional member, so as to facilitate manipulation of the functional member by sliding said bundle of communication conduits on the peripheral wall.
Silencer having a silencing medium according to the silencing principle for firearms, in particular pistols, having a housing consisting at least substantially of non-metallic material, and having an attachment device (4; 11, 13) for the attachment to the firearm, wherein the housing has a tight enclosure for the silencing medium which is introduced during production, the silencing medium, preferably water or an aqueous solution, is contained within the enclosure, and the attachment device (4; 11, 13) is arranged outside the enclosure such that the tight enclosure remains tight until the first shot is fired.
An air drying and heating system with a solid desiccant, which is developed for the demister systems of the vehicles, and which provides comfort for the driver in the vehicle cabin, essentially comprising: - at least one cylindrical shaped desiccant rotor which has dehumidifying feature, enables air flow by circularly moving around its own axis, and which is designed in form of a fan, the at least one cylindrical shaped desiccant rotor having a first and a second flat surfaces, - at least one HVAC air duct which is located in front of the first flat surface of the cylindrical shaped desiccant rotor, and through which the air coming from the HVAC module passes, - at least one cabin air duct which is located in front of the other flat surface of the cylindrical shaped desiccant rotor, and through which the air going to the cabin passes, - at least one defroster air duct which is positioned next to cabin air duct in front of the other flat surface of the cylindrical shaped desiccant rotor, and through which the dry and hot air passes, and characterised in that, - the at least one cylindrical shaped desiccant rotor moves circularly around its own axis by means of the hot air coming from the HVAC air duct. - at least one cylindrical shaped desiccant rotor which has dehumidifying feature, enables air flow by circularly moving around its own axis, and which is designed in form of a fan, the at least one cylindrical shaped desiccant rotor having a first and a second flat surfaces, - at least one HVAC air duct which is located in front of the first flat surface of the cylindrical shaped desiccant rotor, and through which the air coming from the HVAC module passes, - at least one cabin air duct which is located in front of the other flat surface of the cylindrical shaped desiccant rotor, and through which the air going to the cabin passes, - at least one defroster air duct which is positioned next to cabin air duct in front of the other flat surface of the cylindrical shaped desiccant rotor, and through which the dry and hot air passes, and characterised in that, - the at least one cylindrical shaped desiccant rotor moves circularly around its own axis by means of the hot air coming from the HVAC air duct.
A process for producing an acrylate product, the process comprising the step of: contacting an alkanoic acid and an alkylenating agent over a catalyst composition under conditions effective to produce the acrylate product, wherein the catalyst composition comprises an active phase comprising a metal phosphate matrix containing from 0.3 to 40 wt% vanadium and from 0.1 wt% to 75 wt% bismuth.
A system for the large-scale production of hydrogen from solar energy through photocatalytic-photoelectrocatalytic decomposition of water, comprising a photocatalytic system and a photoelectrocatalytic system, wherein the photoelectrocatalytic system is composed of a photoelectrocatalytic anode pool and a photoelectrocatalytic cathode pool which are separated by a photoelectrocatalytic ion exchange membrane; the photocatalytic system is a photocatalytic pool; an electrolyte solution containing an electron carrier is loaded in the photocatalytic pool; a powdery photocatalyst is placed or dispersed in the electrolyte solution; the powdery photocatalyst, when irradiated by sunlight, is capable of converting a soluble high-valence electron carrier into a low-valence electron carrier to realize large area storage of solar energy, to emit oxygen and produce protons; the system being configured such that the electrolyte solution that stores the low-valence electron carrier and the protons can be collected, and then delivered into the photoelectrocatalytic anode pool; an anode of the photoelectrocatalytic anode pool comprises a photocarrier which is used to oxidize the low-valence electron carrier into high-valence electron carrier; hydrogen can be produced by the protons on a cathode of the photoelectrocatalytic cathode pool; the system being configured such that after the hydrogen is collected, the electrolyte solution can be returned to the photocatalytic system for recycle; characterized in that the photocatalyst comprises a monocrystalline semiconductor photocatalyst, has a regular shape feature, good crystallinity and different exposed crystal surfaces; wherein an oxidation reduction reaction is generated in different sites, and a reverse reaction is effectively inhibited. the powdery photocatalyst, when irradiated by sunlight, is capable of converting a soluble high-valence electron carrier into a low-valence electron carrier to realize large area storage of solar energy, to emit oxygen and produce protons; the system being configured such that the electrolyte solution that stores the low-valence electron carrier and the protons can be collected, and then delivered into the photoelectrocatalytic anode pool; an anode of the photoelectrocatalytic anode pool comprises a photocarrier which is used to oxidize the low-valence electron carrier into high-valence electron carrier; hydrogen can be produced by the protons on a cathode of the photoelectrocatalytic cathode pool; the system being configured such that after the hydrogen is collected, the electrolyte solution can be returned to the photocatalytic system for recycle; characterized in that the photocatalyst comprises a monocrystalline semiconductor photocatalyst, has a regular shape feature, good crystallinity and different exposed crystal surfaces; wherein an oxidation reduction reaction is generated in different sites, and a reverse reaction is effectively inhibited.
Method for tagging round bales during wrapping in plastic foil, the round bales having a generally cylindrical shape with generally circular end surfaces, - using a wrapper selected among an independent bale wrapper, a stationary baler-wrapper combination, a compactor and a mobile baler-wrapper combination, - orienting each round bale with the circular end surfaces mainly vertically oriented, - wrapping layers of plastic foil around the round bale by moveable foil wrapping arms characterized in - arranging a main arm which carries an ID tag magazine, at a distance sufficiently far away from the bale to allow the foil wrapping arms to rotate unobstructed, - at a point in time where at least one layer of plastic film remains to be wrapped, tagging the round bale at the center of one of the circular surfaces with an ID tag having an adhesive back-side surface, using a time controlled, pivotal tagging arm hinged to the main arm said tagging arm being provided at its free end with a tag transferring member, the movement of said tagging arm being controlled by a computer unit which synchronizes the movement of the tagging arm with the movement of the foil supplying arms, - after which at least one additional layer of plastic is wrapped around each round bale to protect the ID tag. - using a wrapper selected among an independent bale wrapper, a stationary baler-wrapper combination, a compactor and a mobile baler-wrapper combination, - orienting each round bale with the circular end surfaces mainly vertically oriented, - wrapping layers of plastic foil around the round bale by moveable foil wrapping arms characterized in - arranging a main arm which carries an ID tag magazine, at a distance sufficiently far away from the bale to allow the foil wrapping arms to rotate unobstructed, - at a point in time where at least one layer of plastic film remains to be wrapped, tagging the round bale at the center of one of the circular surfaces with an ID tag having an adhesive back-side surface, using a time controlled, pivotal tagging arm hinged to the main arm said tagging arm being provided at its free end with a tag transferring member, the movement of said tagging arm being controlled by a computer unit which synchronizes the movement of the tagging arm with the movement of the foil supplying arms, - after which at least one additional layer of plastic is wrapped around each round bale to protect the ID tag.
A method for controlling power generation from a power plant which comprises a plurality of power generating units including at least one wind turbine generator, where the power generation system is connected to an electrical power grid for supplying power from the power generating units to the electrical power grid, and where the power generating units are controllable to produce power dependent on individual power set-points (Pset), the method comprises: - obtaining desired target power set-points (Ptar) for one or more prioritized power generating units, wherein the target power set-points (Ptar) are associated with specific prioritized power generating units and sets a desired power, - determining final target power set-points (Ptar_set) for the one or more prioritized power generating units based on the target power set-points (Ptar) and an available power adjustment margin (Pcomp) of the power plant which is available for adjustment of the power set-points (Pset) of the one or more prioritized power generating units, wherein determining the final target power set-points for the one or more prioritized power generating units is subject to a constraint of a power plant reference, - dispatching the final target power set-points to the prioritized power generating units the method further comprising obtaining priority levels (prl) associated with the desired target power set-points (Ptar), wherein the determining of the final target power set-points (Ptar_set) is determined sequentially in descending order of the prioritization levels. - obtaining desired target power set-points (Ptar) for one or more prioritized power generating units, wherein the target power set-points (Ptar) are associated with specific prioritized power generating units and sets a desired power, - determining final target power set-points (Ptar_set) for the one or more prioritized power generating units based on the target power set-points (Ptar) and an available power adjustment margin (Pcomp) of the power plant which is available for adjustment of the power set-points (Pset) of the one or more prioritized power generating units, wherein determining the final target power set-points for the one or more prioritized power generating units is subject to a constraint of a power plant reference, - dispatching the final target power set-points to the prioritized power generating units the method further comprising obtaining priority levels (prl) associated with the desired target power set-points (Ptar), wherein the determining of the final target power set-points (Ptar_set) is determined sequentially in descending order of the prioritization levels.
A method comprising: providing, by a cloud infrastructure system, an application programming interface, API, to a data model used by a cloud-based application; receiving, by the cloud infrastructure system, a request for configuration data of the data model through the API, wherein the request is generated by a data security provider; generating, by the cloud infrastructure system, a response that includes the configuration data, wherein the configuration data includes a set of protectable attributes of an entity modeled using the data model, wherein an entity represents a corresponding row in a database table and the protectable attributes are shared between entities in the cloud infrastructure system, and returning the response to the data security provider; receiving, by the cloud infrastructure system, an indication of an attribute from the set of protectable attributes that is to be protected, wherein the indication is received from the data security provider; and marking, by the cloud infrastructure system, the indicated attribute from the set of protectable attributes as protected for all entities in the cloud infrastructure system that share the indicated attribute. providing, by a cloud infrastructure system, an application programming interface, API, to a data model used by a cloud-based application; receiving, by the cloud infrastructure system, a request for configuration data of the data model through the API, wherein the request is generated by a data security provider; generating, by the cloud infrastructure system, a response that includes the configuration data, wherein the configuration data includes a set of protectable attributes of an entity modeled using the data model, wherein an entity represents a corresponding row in a database table and the protectable attributes are shared between entities in the cloud infrastructure system, and returning the response to the data security provider; receiving, by the cloud infrastructure system, an indication of an attribute from the set of protectable attributes that is to be protected, wherein the indication is received from the data security provider; and marking, by the cloud infrastructure system, the indicated attribute from the set of protectable attributes as protected for all entities in the cloud infrastructure system that share the indicated attribute.
A process for manufacturing a micromirror device in MEMS technology, comprising the steps of: forming a buried cavity in a monolithic body of semiconductor material having a first and a second main surfaces (104A, 104B), the buried cavity delimiting at the bottom a suspended membrane arranged between the buried cavity and the first main surface; defining the suspended membrane to form a supporting frame and a mobile mass carried by the supporting frame and rotatable about an axis parallel to the first main surface; forming an electrical insulating region extending peripherally around the membrane, along a line electrically separating the supporting frame from a fixed supporting region, from the first main surface of the monolithic body up to the cavity, wherein forming an electrical insulating region comprises: forming a plurality of holes in the membrane, the holes extending from the first main surface to the buried cavity and spaced from each other by suspension bridges; and completely thermally oxidizing the suspension bridges; and forming a reflecting region on top of the mobile mass. forming a buried cavity in a monolithic body of semiconductor material having a first and a second main surfaces (104A, 104B), the buried cavity delimiting at the bottom a suspended membrane arranged between the buried cavity and the first main surface; defining the suspended membrane to form a supporting frame and a mobile mass carried by the supporting frame and rotatable about an axis parallel to the first main surface; forming an electrical insulating region extending peripherally around the membrane, along a line electrically separating the supporting frame from a fixed supporting region, from the first main surface of the monolithic body up to the cavity, wherein forming an electrical insulating region comprises: forming a plurality of holes in the membrane, the holes extending from the first main surface to the buried cavity and spaced from each other by suspension bridges; and completely thermally oxidizing the suspension bridges; and forming a reflecting region on top of the mobile mass. forming a plurality of holes in the membrane, the holes extending from the first main surface to the buried cavity and spaced from each other by suspension bridges; and completely thermally oxidizing the suspension bridges; and forming a reflecting region on top of the mobile mass.