mhurhangee/ep-ind-claims huggingface dataset:
Method for test-fireing a firearm, in particular a rifle, having a targeting device which enables an acquisition of a thermal image, wherein a target simulation to be hit is arranged at a distance to the firearm, wherein a heat-emitting target body is adhered to the target simulation, which target body has maximum edge lengths or a maximum diameter equal to or less than 40 millimeters, characterized in that the heat-emitting target body is provided with or filled with a substance which reacts exothermically with air.
An ink jet recording apparatus comprising: an image forming unit that forms a first image containing a first liquid and a coloring material on an ink receiving medium; and a liquid absorbing member that includes a porous body which is configured to be brought into contact with the first image so as to absorb at least a portion of the first liquid from the first image, wherein the porous body is a porous sheet in which a first layer which is configured to be brought into contact with the first image, a second layer (41, 41a, 41b) including a second fiber (44, 44a, 44b) and a third layer including a third fiber are laminated in this order, and the first layer, the second layer (41, 41a, 41b) and the third layer are all porous layers, wherein an average fiber diameter of the second fiber (44, 44a, 44b) is larger than an average fiber diameter of the third fiber, characterized in that the second fiber (44, 44a, 44b) has a core-in-sheath structure including a core structure (42, 42a, 42b) forming a central axis and a sheath structure (43, 43a, 43b) surrounding the core structure (42, 42a, 42b), wherein a softening temperature of a material for forming the sheath structure (43, 43a, 43b) is lower than any of a softening temperature of a material for forming the core structure (42, 42a, 42b), a softening temperature of a material for forming the first layer and a softening temperature of a material for forming the third fiber, and wherein an average thickness of the sheath structure (43, 43a, 43b) is smaller than a thickness of the first layer. an image forming unit that forms a first image containing a first liquid and a coloring material on an ink receiving medium; and a liquid absorbing member that includes a porous body which is configured to be brought into contact with the first image so as to absorb at least a portion of the first liquid from the first image, wherein the porous body is a porous sheet in which a first layer which is configured to be brought into contact with the first image, a second layer (41, 41a, 41b) including a second fiber (44, 44a, 44b) and a third layer including a third fiber are laminated in this order, and the first layer, the second layer (41, 41a, 41b) and the third layer are all porous layers, wherein an average fiber diameter of the second fiber (44, 44a, 44b) is larger than an average fiber diameter of the third fiber, characterized in that the second fiber (44, 44a, 44b) has a core-in-sheath structure including a core structure (42, 42a, 42b) forming a central axis and a sheath structure (43, 43a, 43b) surrounding the core structure (42, 42a, 42b), wherein a softening temperature of a material for forming the sheath structure (43, 43a, 43b) is lower than any of a softening temperature of a material for forming the core structure (42, 42a, 42b), a softening temperature of a material for forming the first layer and a softening temperature of a material for forming the third fiber, and wherein an average thickness of the sheath structure (43, 43a, 43b) is smaller than a thickness of the first layer.
An isolated polypeptide conjugate having factor VIII procoagulant activity comprising a functional factor VIII polypeptide having a heavy and a light chain, the functional factor VIII polypeptide being covalently attached at one or more predefined sites on the polypeptide exclusively at the heavy chain to one or more biocompatible polymers, and wherein the biocompatible polymer is not covalently attached to an N-terminal amine of the functional factor VIII polypeptide.
An isolated, synthetic or recombinant nucleic acid comprising (a) a nucleic acid sequence comprising at least 70%, 71%, 72%, 73%, 74%, 75%, 76%, 77%, 78%, 79%, 80%, 81%, 82%, 83%, 84%, 85%, 86%, 87%, 88%, 89%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98%, 99%, or more, or 100% sequence identity to SEQ ID NO:189 and encoding a polypeptide having nitrilase activity, wherein the nucleic acid encodes at least one polypeptide having a nitrilase activity; or (b) a nucleic acid sequence completely complementary to (a). (a) a nucleic acid sequence comprising at least 70%, 71%, 72%, 73%, 74%, 75%, 76%, 77%, 78%, 79%, 80%, 81%, 82%, 83%, 84%, 85%, 86%, 87%, 88%, 89%, 90%, 91%, 92%, 93%, 94%, 95%, 96%, 97%, 98%, 99%, or more, or 100% sequence identity to SEQ ID NO:189 and encoding a polypeptide having nitrilase activity, wherein the nucleic acid encodes at least one polypeptide having a nitrilase activity; or (b) a nucleic acid sequence completely complementary to (a).
Heating container for foods, constituted by a box of shape and size suitable for housing bakery products, formed by a base (1.a), a cover (1.b) and a plurality of lateral edges (1.c), adapted to be mutually fit in a reversible manner in order to avoid the content outflow, the heating container being provided with an internal support layer (1.d), adapted to support a plate suitable to be heated and to maintain it at a predetermined distance from said base (1.a.) of said box; an air space, placed between said base (1.a) of said box and said internal support layer (1.d), adapted to allow the circulation of air and adapted to maintain said base (1.a) and said support layer (1.d) distant from each other, even under the effect of the pressure generated by the user while cutting the foods present on the plate; a ventilation system, constituted by a plurality of holes on the cover (3.a) and by a plurality of holes on the base (3.b) of said box, adapted to prevent the formation of condensation inside the box itself, when the cover (1.b) is closed; the heating container being characterised in that it is provided with a plate suitable to be heated, adapted to act as a support surface for the foods to be maintained hot, as a support for the cutting of said foods and as a heat source for keeping said foods hot or terminating the cooking thereof; said support layer (1.d) for the plate being provided with a groove (1.z.) at the abutment surface between said support layer (1.d.) and said plate, adapted to be engaged with the edge of said plate in order to maintain it in a fixed position.
A method for indicating energy efficiency of an electric drive, comprising the steps of: - collecting data relevant to the energy efficiency of the electric drive, - user selecting the way to address the energy efficiency of the said electric drive and selecting the applicable standard values for energy efficiency, - determining the energy efficiency of the electric drive by analysing the collected energy efficiency data together with the said user selected way to address the energy efficiency of the said electric drive and the said user selected applicable standard values set for energy efficiency, and - indicating the energy efficiency to the user with the help of light in a specific indication light area,,, of the cabinet of the electric drive apparatus,,,, so that LED lights of the same colour, e.g. green, are used with different light intensities for indicating specific energy efficiency values or energy efficiency grades. - collecting data relevant to the energy efficiency of the electric drive, - user selecting the way to address the energy efficiency of the said electric drive and selecting the applicable standard values for energy efficiency, - determining the energy efficiency of the electric drive by analysing the collected energy efficiency data together with the said user selected way to address the energy efficiency of the said electric drive and the said user selected applicable standard values set for energy efficiency, and - indicating the energy efficiency to the user with the help of light in a specific indication light area,,, of the cabinet of the electric drive apparatus,,,, so that LED lights of the same colour, e.g. green, are used with different light intensities for indicating specific energy efficiency values or energy efficiency grades.
A steam turbine comprising a turbine main body configured to be supplied with steam from a steam supply unit and a steam valve (100, 300) for controlling an amount of steam to be supplied from the steam supply unit to the turbine main body, wherein the turbine main body comprises: a first connection unit; and a plurality of guide rods extending from the first connection unit in a first direction, wherein the guide rods are fixedly coupled to an end surface of the first connection unit; and wherein the steam valve (100, 300) comprises: a second connection unit configured to be coupled to the first connection unit; and a flange disposed around the second connection unit and configured to receive the guide rods through a plurality of first through-holes respectively formed in the flange; wherein the guide rods are configured to guide the second connection unit when the second connection unit is moved towards the first connection unit for being coupled to the first connection unit. wherein the turbine main body comprises: a first connection unit; and a plurality of guide rods extending from the first connection unit in a first direction, wherein the guide rods are fixedly coupled to an end surface of the first connection unit; and a first connection unit; and a plurality of guide rods extending from the first connection unit in a first direction, wherein the guide rods are fixedly coupled to an end surface of the first connection unit; and wherein the steam valve (100, 300) comprises: a second connection unit configured to be coupled to the first connection unit; and a flange disposed around the second connection unit and configured to receive the guide rods through a plurality of first through-holes respectively formed in the flange; a second connection unit configured to be coupled to the first connection unit; and a flange disposed around the second connection unit and configured to receive the guide rods through a plurality of first through-holes respectively formed in the flange; wherein the guide rods are configured to guide the second connection unit when the second connection unit is moved towards the first connection unit for being coupled to the first connection unit.
Metallic flat gasket for installation in a sealing gap between sealing surfaces (12, 12'), which face each other, of components (10, 10') conducting hot gas, which are connected to one another, wherein the flat gasket comprises a gasket plate which is compressed when the gasket is installed and which has at least two metallic gasket layers (50, 52) arranged one above the other and several hot gas through-openings (56, 58) for adjacent flows of hot gas, and the gasket plate has between at least two adjacent hot gas through-openings a gasket plate web which is compressed when the gasket is installed and which separates the hot gas through-openings from one another, characterized in that the sum of the metal thicknesses of the gasket layers (50, 52) in the region of a gasket plate web, serving for the separation with respect to gas of adjacent flows of hot gas in the sealing gap flowing through the hot gas through-openings (56, 58), is less than in other gasket plate regions bordering on the hot gas through-openings, and in that the gasket plate also has in the region of this gasket plate web at least one gasket layer.
An antireflective film comprising a low refractive index layer comprising the reaction product of a polymerizable organic composition comprising: A) a free-radically polymerizable fluorinated polymeric intermediate comprising the reaction product of i) at least one multi-functional free-radically polymerizable material having a fluorine content of at least 25 wt-%, and ii) optionally at least one multi-functional free-radically polymerizable material having a fluorine content ranging from 0 to less than 25 wt-%, wherein the total amount of multi-functional materials is at least 25 wt-% based on wt-% solids of the polymerizable organic composition; and B) at least one fluorinated free-radically polymerizable material; and a high refractive index layer coupled to the low refractive index layer. A) a free-radically polymerizable fluorinated polymeric intermediate comprising the reaction product of i) at least one multi-functional free-radically polymerizable material having a fluorine content of at least 25 wt-%, and ii) optionally at least one multi-functional free-radically polymerizable material having a fluorine content ranging from 0 to less than 25 wt-%, wherein the total amount of multi-functional materials is at least 25 wt-% based on wt-% solids of the polymerizable organic composition; and i) at least one multi-functional free-radically polymerizable material having a fluorine content of at least 25 wt-%, and ii) optionally at least one multi-functional free-radically polymerizable material having a fluorine content ranging from 0 to less than 25 wt-%, B) at least one fluorinated free-radically polymerizable material; and
A laser source configured for providing collimated laser beams arranged in a ring-shape manner for exiting a phosphor, the laser source comprising laser diodes arranged in a ring-shaped manner and such that each can irradiate a laser beam directed towards a symmetry axis (z) of a ring defined by the laser diodes, the laser source further comprising at least one reflecting element arranged with respect to the laser diodes such that the reflecting element reflects the laser beams parallel to the symmetry axis (z), characterized in that the reflecting element is a hollow circular cone segment arranged symmetrically with respect to the symmetry axis (z) and the laser diodes facing a reflective outer facet of the cone segment.
A method for assembling a stator stage of a gas turbine engine, comprising at least one vane segment and at least a central section, wherein the vane segment comprises at least one wall segment and a gap, wherein the at least one wall segment restricts the gap in at least one direction, wherein the central section comprises at least one circumferential slot and an axial through hole passing in a direction basically perpendicular to a circumferential direction of the slot through the slot, wherein the method comprises the steps of: - Inserting an adjustment pin (30, 30a, 30b, 30c, 30d) into the through hole, wherein the adjustment pin (30, 30a, 30b, 30c, 30d) comprises two end sections (32, 32d; 34, 34d) and a middle portion extending between the end sections (32, 34) and having at least one action device, - Inserting the at least one wall segment of the vane segment in the slot of the central section so that the gap is circumferentially aligned with the through hole of central section, - Rotating the adjustment pin (30, 30a, 30b, 30c, 30d) in its circumferential direction so that the central section is correctly positioned in the stator stage through interaction of the at least one wall segment with the at least one action device of the adjustment pin (30, 30a, 30b, 30c, 30d), characterised by the further steps of: - Deforming a deformable part of the adjustment pin (30, 30a, 30b, 30c, 30d) so that the now deformed part establishes a force fit with at least one segment of a corresponding structure of the central section and thereby - Locking the adjustment pin (30, 30a, 30b, 30c, 30d) and thus the central section in a fixed position in the stator stage. - Inserting an adjustment pin (30, 30a, 30b, 30c, 30d) into the through hole, wherein the adjustment pin (30, 30a, 30b, 30c, 30d) comprises two end sections (32, 32d; 34, 34d) and a middle portion extending between the end sections (32, 34) and having at least one action device, - Inserting the at least one wall segment of the vane segment in the slot of the central section so that the gap is circumferentially aligned with the through hole of central section, - Rotating the adjustment pin (30, 30a, 30b, 30c, 30d) in its circumferential direction so that the central section is correctly positioned in the stator stage through interaction of the at least one wall segment with the at least one action device of the adjustment pin (30, 30a, 30b, 30c, 30d), - Deforming a deformable part of the adjustment pin (30, 30a, 30b, 30c, 30d) so that the now deformed part establishes a force fit with at least one segment of a corresponding structure of the central section and thereby - Locking the adjustment pin (30, 30a, 30b, 30c, 30d) and thus the central section in a fixed position in the stator stage. - Locking the adjustment pin (30, 30a, 30b, 30c, 30d) and thus the central section in a fixed position in the stator stage.
A waveguide structure, the structure comprising: a waveguiding layer comprising a plurality of fluid channels; at least one waveguide that intersects the plurality of fluid channels; an optically opaque first aperture layer comprising a first array of optically transmissive apertures, wherein the first array of apertures comprises a plurality of respective one-dimensional aperture patterns, wherein each of the plurality of one-dimensional aperture patterns is located adjacent to a respective one of the plurality of fluid channels to allow light to the respective channels, wherein each of the plurality of one-dimensional aperture patterns comprises a different linear pattern; and a cover layer affixed to the waveguiding layer to enclose the plurality of fluid channels, the first aperture layer being disposed above or below the waveguiding layer. a waveguiding layer comprising a plurality of fluid channels; at least one waveguide that intersects the plurality of fluid channels; an optically opaque first aperture layer comprising a first array of optically transmissive apertures, wherein the first array of apertures comprises a plurality of respective one-dimensional aperture patterns, wherein each of the plurality of one-dimensional aperture patterns is located adjacent to a respective one of the plurality of fluid channels to allow light to the respective channels, wherein each of the plurality of one-dimensional aperture patterns comprises a different linear pattern; and a cover layer affixed to the waveguiding layer to enclose the plurality of fluid channels, the first aperture layer being disposed above or below the waveguiding layer.
Aerosol generating device having - a membrane for nebulising a liquid, - an actuating device which is coupled to the membrane in such a way that it sets the membrane in vibration upon activation by electrical signals, and - a flexible substrate - which carries electrical wires for delivering electrical signals to the actuating device, - which is designed for the attachment of the aerosol generating device to an attachment area of an inhalation therapy device, and - on which are supported the membrane and the actuating device, wherein apart from an annular strip conductor for contacting the actuating device the flexible substrate has at least one further strip conductor with a contact surface for the connection of an electrical component. - a membrane for nebulising a liquid, - an actuating device which is coupled to the membrane in such a way that it sets the membrane in vibration upon activation by electrical signals, and - a flexible substrate - which carries electrical wires for delivering electrical signals to the actuating device, - which is designed for the attachment of the aerosol generating device to an attachment area of an inhalation therapy device, and - which carries electrical wires for delivering electrical signals to the actuating device, - which is designed for the attachment of the aerosol generating device to an attachment area of an inhalation therapy device, and - on which are supported the membrane and the actuating device,
A process for preparing purified ansamitocins comprising the steps of: 1) culturing an ansamitocin-producing microorganism in a liquid culture medium; 2) solid phase extraction of ansamitocins from the culture medium onto a resin; 3) isocratic or gradient elution of ansamitocins from the resin using an organic solvent or an organic solvent combined with water; 4) concentrating the extracted ansamitocins; and 5) optionally purifying the ansamitocins by any one of a), b), c) and d): a) adsorption chromatography over silica gel or alumina, b) crystallization, c) adsorption chromatography over silica gel or alumina followed by crystallization, and d) crystallization followed by adsorption chromatography over silica gel or alumina; and wherein said ansamitocins comprise a mixture of compounds of the following structure: wherein R is COCH 3, COCH 2 CH 3, COCH(CH 3) 2, COCH 2 CH 2 CH 3, COCH 2 CH(CH 3) 2 or COCH 2 CH 2 CH 2 CH 3. 1) culturing an ansamitocin-producing microorganism in a liquid culture medium; 2) solid phase extraction of ansamitocins from the culture medium onto a resin; 3) isocratic or gradient elution of ansamitocins from the resin using an organic solvent or an organic solvent combined with water; 4) concentrating the extracted ansamitocins; and 5) optionally purifying the ansamitocins by any one of a), b), c) and d): a) adsorption chromatography over silica gel or alumina, b) crystallization, c) adsorption chromatography over silica gel or alumina followed by crystallization, and d) crystallization followed by adsorption chromatography over silica gel or alumina; and wherein said ansamitocins comprise a mixture of compounds of the following structure: wherein R is COCH 3, COCH 2 CH 3, COCH(CH 3) 2, COCH 2 CH 2 CH 3, COCH 2 CH(CH 3) 2 or COCH 2 CH 2 CH 2 CH 3. a) adsorption chromatography over silica gel or alumina, b) crystallization, c) adsorption chromatography over silica gel or alumina followed by crystallization, and d) crystallization followed by adsorption chromatography over silica gel or alumina;
Dyclonine or a pharmaceutically acceptable salt thereof in combination with an anti-microbial agent selected from mupirocin, 4-methyl-1-(2-phenylethyl)-8-phenoxy-2,3-dihydro-1H-pyrrolo[3,2-c]-quinoline, 4-(3-benzylpyrrolidin-1-yl)-2-methyl-6-phenoxyquinoline, and N-[4-(3-benzylpyrrolidin-1-yl)-2-methylquinolin-6-yl]benzamide or pharmaceutically acceptable salts thereof for use in killing clinically latent microorganisms associated with a microbial infection.