mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for extinguishing fires installable on heavy goods industrial vehicles, in particular trucks, comprising a device for the formation of extinguishing liquid, at least two hose reels for the delivering of said extinguishing liquid, each placed in a case provided with means for the activation of said device, characterized in that the device for the formation of the extinguishing liquid is a compact, modular, standardizable device equipped with: - at least one substantially toroidal-shaped tank containing a solution of water and foaming agent and delimiting a compartment; - at least one pressurization box containing pressurization means; - at least one mixing chamber in which a solution composed by water and foaming agent, coming from the tank, and nitrogen/air, coming from the pressurization box, is formed, said compartment being bounded by the tank which hosts at least one pressurization box containing said pressurization means and at least one mixing chamber and said components being operatively interconnected by connecting means between the pressurization box and the mixing chamber, connecting means between the mixing chamber and the tank and connecting means between the mixing chamber and at least two hose reels. - at least one substantially toroidal-shaped tank containing a solution of water and foaming agent and delimiting a compartment; - at least one pressurization box containing pressurization means; - at least one mixing chamber in which a solution composed by water and foaming agent, coming from the tank, and nitrogen/air, coming from the pressurization box, is formed,
An integrated process for producing hydrocarbons and/or converting hydrocarbons having carbon number from 1 to 5 to hydrogen, said process comprising the steps of subjecting feedstock originating from renewable sources to catalytic hydroprocessing in a hydroprocessing system in the presence of hydrogen under hydrogen partial pressure in the range from 25 to 250 bar, followed by separation of an aqueous component, a heavy component comprising hydrocarbons having carbon number more than 5, and a light component comprising gases and hydrocarbons having carbon number from 1 to 5, directing said light component to separation for removal of carbon dioxide and hydrogen sulfide to obtain a recycle stream comprising hydrogen and hydrocarbons having carbon number from 1 to 5, followed by dividing the recycle stream to a first recycle stream and a second recycle stream, directing the first recycle stream to the hydroprocessing system, and the second recycle stream to a hydrogen plant comprising a steam reformer unit, a desulfurization unit upstream the steam reformer unit, and water gas shift unit, converting said hydrocarbons having carbon number from 1 to 5 in said hydrogen plant to hydrogen, and directing a hydrogen stream comprising said hydrogen to the hydroprocessing system.
An electrochemical measurement device for electrochemically measuring a chemical substance generated or consumed in a biological sample in a solution, wherein the biological sample, which has diameter dimension between 100 μm, inclusive, and 600 μm, inclusive, comprises cells, cell aggregates, pieces of tissue, or non-biological samples containing biologically-relevant substances, by comprising a working electrode that includes an electrode surface supplying or receiving electrons to or from the chemical substance to cause an oxidation-reduction reaction, provided that the biological sample excludes human embryos and fertilized human egg cells, wherein the electrode surface has a diameter dimension d el less than or equal to 80 μm; and a spacer is present in a solution well containing the solution and the biological sample, the spacer having an inverse-cone-shaped profile surface at a distance h 2 in the direction perpendicular to the electrode surface, the distance h 2 being dependent on a distance m from a center of the electrode surface in the direction parallel to the electrode surface and satisfying h 2 = √ 1.05 d el + 6.89 m − 0.48 d el − 2.38 ± 5 μm, the spacer preventing the biological sample from entering a region on the electrode surface side of the profile surface and allowing a dissolved substance to diffuse in the solution to the working electrode. wherein the electrode surface has a diameter dimension d el less than or equal to 80 μm; and a spacer is present in a solution well containing the solution and the biological sample, the spacer having an inverse-cone-shaped profile surface at a distance h 2 in the direction perpendicular to the electrode surface, the distance h 2 being dependent on a distance m from a center of the electrode surface in the direction parallel to the electrode surface and satisfying h 2 = √ 1.05 d el + 6.89 m − 0.48 d el − 2.38 ± 5 μm,
A method for retrieving data indicative of a graphical user interface configuration of a target universal remote controlling device, characterised by comprising: receiving at a centralized server device from a configuration editing system in communication with the centralized server device via a network an upload request for retrieving the graphical user interface configuration of the target universal remote controlling device, wherein the upload request specifies an address associated with the target universal remote controlling device; and causing the centralized server device to instruct the target universal remote controlling device to upload to the centralized server device the data indicative of the graphical user interface configuration of the target universal remote controlling device in response to the target universal remote controlling device establishing contact with the centralized server device via the network at a time subsequent to the centralized server device receiving the upload request. receiving at a centralized server device from a configuration editing system in communication with the centralized server device via a network an upload request for retrieving the graphical user interface configuration of the target universal remote controlling device, wherein the upload request specifies an address associated with the target universal remote controlling device; and causing the centralized server device to instruct the target universal remote controlling device to upload to the centralized server device the data indicative of the graphical user interface configuration of the target universal remote controlling device in response to the target universal remote controlling device establishing contact with the centralized server device via the network at a time subsequent to the centralized server device receiving the upload request.
A medical system comprising: one or more medical body area network, MBAN, systems, each MBAN system including: one or more MBAN devices (12, 14) adapted to acquire and communicate patient data via a hub device via a short-range wireless communication channel, the communication of the patient data via the short-range wireless communication channel being within predefined spectra, one of the spectra being a spectrum belonging to a third party primary user; the hub device adapted to receive patient data communicated from the one or more MBAN devices (12, 14) and communicate with a central monitoring station via a longer range communication; wherein in response to the third party primary user requesting the third party primary user spectrum, the MBAN system being reallocated to other spectra based on a priority of an acuity level of services communicated by each MBAN system. one or more medical body area network, MBAN, systems, each MBAN system including: one or more MBAN devices (12, 14) adapted to acquire and communicate patient data via a hub device via a short-range wireless communication channel, the communication of the patient data via the short-range wireless communication channel being within predefined spectra, one of the spectra being a spectrum belonging to a third party primary user; the hub device adapted to receive patient data communicated from the one or more MBAN devices (12, 14) and communicate with a central monitoring station via a longer range communication; one or more MBAN devices (12, 14) adapted to acquire and communicate patient data via a hub device via a short-range wireless communication channel, the communication of the patient data via the short-range wireless communication channel being within predefined spectra, one of the spectra being a spectrum belonging to a third party primary user; the hub device adapted to receive patient data communicated from the one or more MBAN devices (12, 14) and communicate with a central monitoring station via a longer range communication; wherein in response to the third party primary user requesting the third party primary user spectrum, the MBAN system being reallocated to other spectra based on a priority of an acuity level of services communicated by each MBAN system.
A brake unit, in particular for use in a drum brake, comprising a carrier unit and a jaw unit, wherein the carrier unit can be secured to the fixed portion of a utility vehicle chassis and has a first guiding member and a second guiding member, wherein the first guiding member and the second guiding member are spaced apart from each other, wherein the jaw unit is secured by the guiding members (21, 22) against displacement in a guiding direction, wherein the jaw unit is secured by means of a securing element (51, 52) which can be secured to one of the guiding members (21, 22) against displacement along an axial line, wherein the jaw unit can be displaced in an actuation direction relative to the carrier unit, characterized in that the guiding members (21, 22) are two cast or forged portions of the carrier unit which extend inside a brake drum, after mounting.
A method of forming a variable width clevis in a woven preform (100,200), the method comprising the steps of: (a) providing a plurality of adjacent layers, each layer having a plurality of warp fibers (116,216), the warp fibers being parallel to each other and forming vertical columns; (b) weaving a plurality of fill fibers with the layers of warp fibers to form a base (120,220) and two or more legs (125,135,225,235) extending from the base (120,220), wherein the fill fibers interlock the layers of the base (120,220), the layers of each leg (125,135,225,235), and the warp fibers (116,216) within each layer; and (c) selectively dropping one or more warp fibers (116,216) out of a first portion of the preform that form the extending legs (125,135,225,235) while simultaneously adding warp fibers in other areas; (d) wherein said clevis is widened by dropping warp fibers out of the base of the extending legs (125,135,225,235) and adding said warp at the tip of the leg (125,135,225,235); and (e) wherein said clevis is narrowed by adding warp fibers at the base of the extending legs and dropping said warp fibers out at the tip of the leg (125,135,225,235). (a) providing a plurality of adjacent layers, each layer having a plurality of warp fibers (116,216), the warp fibers being parallel to each other and forming vertical columns; (b) weaving a plurality of fill fibers with the layers of warp fibers to form a base (120,220) and two or more legs (125,135,225,235) extending from the base (120,220), wherein the fill fibers interlock the layers of the base (120,220), the layers of each leg (125,135,225,235), and the warp fibers (116,216) within each layer; and (c) selectively dropping one or more warp fibers (116,216) out of a first portion of the preform that form the extending legs (125,135,225,235) while simultaneously adding warp fibers in other areas; (d) wherein said clevis is widened by dropping warp fibers out of the base of the extending legs (125,135,225,235) and adding said warp at the tip of the leg (125,135,225,235); and (e) wherein said clevis is narrowed by adding warp fibers at the base of the extending legs and dropping said warp fibers out at the tip of the leg (125,135,225,235).
A semiconductor wafer having a diameter of at least 15.24 cm (6 inches), comprising: a substrate layer consisting of silicon and unavoidable impurities; a first GaN layer having one or more SiN x interlayers therein; an AIGaN buffer layer consisting of two or more AIGaN layers between the substrate layer and the first GaN layer, wherein each layer has the formula Al x Ga 1-x N and the value of x in each layer is a value from 0.01 to less than 1 and the values of x in the two or more AIGaN layers differ by from 0.5 to 0.1, wherein the layers are arranged so that the values of x across the buffer layer and hence the concentration of aluminium decreases across the thickness of the buffer layer away from the silicon substrate; and an AIN layer between the substrate layer and the AIGaN layers; wherein in the first GaN layer at least one SiN x interlayer has GaN penetrated through one or more portions of said SiN x interlayer and has a thickness of from 2 to 8nm; wherein the thickness of the substrate layer is from 275 to 1000μm, the thickness of the AIN layer is from 10 to 300nm, the thickness of the first GaN layer is from 600 to 1200nm, including the thickness of the one or more SiN x interlayers, and the thickness of the AIGaN buffer layer is from 200 to 800nm. a substrate layer consisting of silicon and unavoidable impurities; a first GaN layer having one or more SiN x interlayers therein; an AIGaN buffer layer consisting of two or more AIGaN layers between the substrate layer and the first GaN layer, wherein each layer has the formula Al x Ga 1-x N and the value of x in each layer is a value from 0.01 to less than 1 and the values of x in the two or more AIGaN layers differ by from 0.5 to 0.1, wherein the layers are arranged so that the values of x across the buffer layer and hence the concentration of aluminium decreases across the thickness of the buffer layer away from the silicon substrate; and an AIN layer between the substrate layer and the AIGaN layers; wherein in the first GaN layer at least one SiN x interlayer has GaN penetrated through one or more portions of said SiN x interlayer and has a thickness of from 2 to 8nm; wherein the thickness of the substrate layer is from 275 to 1000μm, the thickness of the AIN layer is from 10 to 300nm, the thickness of the first GaN layer is from 600 to 1200nm, including the thickness of the one or more SiN x interlayers, and the thickness of the AIGaN buffer layer is from 200 to 800nm.
A method of forming an interior panel structure of a transportation vehicle, comprising: providing a first panel formed at least partially of a plastic material; providing a second panel, and providing a honeycomb support structure; providing a first layer of thermally activatable epoxy-based resin having foamable characteristics and including an elastomer, an acetate or an acrylate or combinations thereof, compounded with a blowing agent and a curing agent between the first panel and a first side of the honeycomb support structure and a second layer of thermally activatable epoxy-based resin having foamable characteristics and including an elastomer, an acetate or an acrylate or combinations thereof, compounded with a blowing agent and a curing agent between the second panel and a second side of the honeycomb support structure, exposing the structure to a temperature in the range of 65.5°C to 287.7°C (150 °F to 550 °F) to cause the thermally activatable epoxy based resin layers to foam and cure and bond to the first and second panels and to the honeycomb support structure, wherein the activatable epoxy based resin having foamable characteristics is initially processed as a thermoplastic material and after curing becomes a thermoset material and the second panel being an outer panel that is closer to the body of the transportation vehicle than the first panel while the first panel is closer to an interior cabin of the transportation vehicle.
An airfoil journal bearing having an improved top foil, comprising: a bearing housing including a hollow portion which is formed therein and in which a rotor is disposed and having width-direction opposite sides that are formed to be open; a bump foil disposed inside the bearing housing, formed in a circumferential direction, and fixedly coupled to the bearing housing; and a top foil disposed inside the bump foil, formed in a circumferential direction, and having one side fixedly coupled to the bearing housing, wherein the top foil includes: an external top foil closely mounted to the bump foil and having both end portions disposed above the rotor; an internal top foil disposed inside the external top foil to contact the rotor and having both end portions disposed above the rotor; and an intermediate top foil interposed between the external top foil and the internal top foil and formed with a smaller length than the external top foil and the internal top foil in such a way that one end portion of the intermediate top foil is disposed above the rotor and the other end portion is disposed below the rotor. a bearing housing including a hollow portion which is formed therein and in which a rotor is disposed and having width-direction opposite sides that are formed to be open; a bump foil disposed inside the bearing housing, formed in a circumferential direction, and fixedly coupled to the bearing housing; and a top foil disposed inside the bump foil, formed in a circumferential direction, and having one side fixedly coupled to the bearing housing, wherein the top foil includes: an external top foil closely mounted to the bump foil and having both end portions disposed above the rotor; an internal top foil disposed inside the external top foil to contact the rotor and having both end portions disposed above the rotor; and an intermediate top foil interposed between the external top foil and the internal top foil and formed with a smaller length than the external top foil and the internal top foil in such a way that one end portion of the intermediate top foil is disposed above the rotor and the other end portion is disposed below the rotor. an external top foil closely mounted to the bump foil and having both end portions disposed above the rotor; an internal top foil disposed inside the external top foil to contact the rotor and having both end portions disposed above the rotor; and an intermediate top foil interposed between the external top foil and the internal top foil and formed with a smaller length than the external top foil and the internal top foil in such a way that one end portion of the intermediate top foil is disposed above the rotor and the other end portion is disposed below the rotor.
Medical instrument comprising at least two arms, at least one first arm and at least one second arm which are suitable for passing from a position of minimum mutual distance to a position of maximum mutual distance between each other (11, 12), said mutual distance being measured along a horizontal axis, each arm of said at least two arms extends longitudinally along a direction of a longitudinal axis being perpendicular with respect to said horizontal axis, each arm comprises at least one prehensile portion comprising a wall pending downwardly along a direction of a vertical axis, said vertical axis is perpendicular both to the horizontal axis and to the longitudinal axis, at least one arm of said at least two arms mounts a lighting apparatus which comprises a multiplicity of lighting sources disposed along said wall, characterized in that at least one first lighting source of said multiplicity of lighting sources is disposed at a height which is more elevated with respect to at least one second lighting source of said multiplicity of lighting sources, said height is measurable along the vertical axis, said multiplicity of lighting sources emit a multiplicity of light beams whose maximum intensities are directed along a multiplicity of axes (H, M, L) diverging each other and disposed on a geometrical plane (Σ) identified by the horizontal axis and by the vertical axis.
A method for preparing a positive electrode active material, the method comprising steps of: adding a reaction mixture containing a lithium-raw material and a nickel-manganese-cobalt precursor into a first crucible and performing a first heat treatment at a temperature of 500-800°C to form a pre-calcinated mixture; extracting the pre-calcinated mixture from the first crucible and pulverizing or classifying the pre-calcinated mixture; and adding the pulverized or classified pre-calcinated mixture into a second crucible and performing a second heat treatment at a temperature of 700-1000°C under an atmosphere in which an oxygen partial pressure is 20% or less to form a lithium nickel-manganese-cobalt-based positive electrode active material, wherein a volume of the pre-calcinated mixture formed after the first heat treatment is 20-50% with respect to a volume of the reaction mixture added into the first crucible; and wherein the lithium nickel-manganese-cobalt-based positive electrode active material is represented by Formula 1 below: [Formula 1] Li 1+x [Ni a Mn b Co c M 1 1-a-b-c] 1-x O 2 in Formula 1, -0.2≤x≤0.2, 0.6≤a≤0.98, 0.01<b<0.39, and 0.01≤c≤0.39, and M 1 is at least one selected from the group consisting of W, Cu, Fe, V, Cr, Ti, Zr, Zn, Al, In, Ta, Y, In, La, Sr, Ga, Sc, Gd, Sm, Ca, Ce, Nb, Mg, B, and Mo. adding a reaction mixture containing a lithium-raw material and a nickel-manganese-cobalt precursor into a first crucible and performing a first heat treatment at a temperature of 500-800°C to form a pre-calcinated mixture; extracting the pre-calcinated mixture from the first crucible and pulverizing or classifying the pre-calcinated mixture; and adding the pulverized or classified pre-calcinated mixture into a second crucible and performing a second heat treatment at a temperature of 700-1000°C under an atmosphere in which an oxygen partial pressure is 20% or less to form a lithium nickel-manganese-cobalt-based positive electrode active material, wherein a volume of the pre-calcinated mixture formed after the first heat treatment is 20-50% with respect to a volume of the reaction mixture added into the first crucible; and wherein the lithium nickel-manganese-cobalt-based positive electrode active material is represented by Formula 1 below: [Formula 1] Li 1+x [Ni a Mn b Co c M 1 1-a-b-c] 1-x O 2 in Formula 1, -0.2≤x≤0.2, 0.6≤a≤0.98, 0.01<b<0.39, and 0.01≤c≤0.39, and M 1 is at least one selected from the group consisting of W, Cu, Fe, V, Cr, Ti, Zr, Zn, Al, In, Ta, Y, In, La, Sr, Ga, Sc, Gd, Sm, Ca, Ce, Nb, Mg, B, and Mo. -0.2≤x≤0.2, 0.6≤a≤0.98, 0.01<b<0.39, and 0.01≤c≤0.39, and M 1 is at least one selected from the group consisting of W, Cu, Fe, V, Cr, Ti, Zr, Zn, Al, In, Ta, Y, In, La, Sr, Ga, Sc, Gd, Sm, Ca, Ce, Nb, Mg, B, and Mo.
A composition comprising a modified polymerase having at least 80% identity to SEQ ID NO: 1 or a biologically active fragment thereof, wherein the modified polymerase or the biologically active fragment thereof exhibits polymerase activity and an improvement relative to a reference polymerase of SEQ ID NO: 1 and/or SEQ ID NO:34 in one or more properties selected from increased thermostability and/or a sequencing property selected from increased AQ17 mean, increased AQ20 mean, increased percentage of amplicons with no strand bias, increased percentage of uniformity of amplicon coverage, increased percentage of uniformity of base coverage, and increased percentage of amplicons reading end-to-end when the polypeptide is used in an emulsion PCR template amplification step of a sequencing workflow, and wherein the modified polymerase includes one or more amino acid substitutions selected from the group consisting of L763F, L763F + E805I, or L763F + E397V + E745T.