mhurhangee/ep-ind-claims huggingface dataset:
A light-emitting element comprising: a first electrode comprising a first conductive layer, a second conductive layer over the first conductive layer, and a third conductive layer over the second conductive layer; an electroluminescent layer over the first electrode; and a second electrode over the electroluminescent layer; wherein the first conductive layer is a metal layer comprising aluminum, wherein the second conductive layer comprises titanium, wherein the third conductive layer is capable of transmitting light, wherein the second electrode is capable of transmitting light, and wherein part of the second conductive layer is oxidized, characterized in that the third conductive layer is formed of any of indium oxide, tin oxide, zinc oxide, indium oxide-tin oxide, indium oxide-zinc oxide, the aforementioned metal oxides including silicon or silicon oxide. a first electrode comprising a first conductive layer, a second conductive layer over the first conductive layer, and a third conductive layer over the second conductive layer; an electroluminescent layer over the first electrode; and a second electrode over the electroluminescent layer; wherein the first conductive layer is a metal layer comprising aluminum, wherein the second conductive layer comprises titanium, wherein the third conductive layer is capable of transmitting light, wherein the second electrode is capable of transmitting light, and wherein part of the second conductive layer is oxidized, characterized in that the third conductive layer is formed of any of indium oxide, tin oxide, zinc oxide, indium oxide-tin oxide, indium oxide-zinc oxide, the aforementioned metal oxides including silicon or silicon oxide.
Drive train for muscle-powered single- or multi-track vehicles with a crank-driven bottom bracket gearbox, which is coupled on the output side to a chain or belt drive, from which a chain or belt leads directly or shiftably to a respective pinion of a rear wheel hub, wherein, in the drive train, apart from the bottom bracket gearbox, which is designed as a primary gearbox with n gears or with variable transmission, a secondary gearbox is arranged as a shiftable rear wheel hub gearbox with m = two or m = three gears, wherein n and m are natural numbers, wherein the drive train comprises up to n times m gears, wherein n gears are arranged in the bottom bracket gearbox and m gears are arranged in the secondary gearbox, characterized in that the drive train comprises a single rotary or shift lever, and the bottom bracket gearbox and the rear wheel hub gearbox each comprise shift means which are to be shifted continuously from the single rotary or shift lever.
A resin composition for semiconductor encapsulation, comprising an epoxy resin, a phenolic resin-based curing agent, an inorganic filler, and amorphous carbon, wherein the amorphous carbon of the component contains 30 atomic% or more of an SP 3 structure and 55 atomic% or less of an SP 2 structure.
Output element (15; 151) for a motorisation device for driving at least one windscreen wiper arm of a motor vehicle, comprising an output shaft (17; 171) and a toothed wheel integral to and coaxial with the output shaft (17; 171), the output shaft (17; 171) being made of plastic material and the output element (15; 151) comprising a metallic insert (16; 161; 162; 163), characterized in that the plastic material of the output shaft (17; 171) is moulded partially over the metallic insert (16; 161; 162; 163), revealing an insert head (25; 251) protruding from the end of the output shaft (17; 171) and intended to connect to a windscreen wiper element in order to drive this in rotation.
A method for producing cores for casting purposes, in which casting compound or sand and at least one binder, which is at least predominantly inorganic, water-soluble and/or hygroscopic, are mixed using a mixing device, and in which said mixture is fed to at least one sand storage unit of a core production device with the aid of a feed device, characterised in that a mixture-free region of the mixing device and a mixture-free region of the feed device, said region being situated between the mixing device and the core production device, and a mixture-free region of the sand storage unit downstream of the feed device and upstream of the core production device are moistened or kept moist at least temporarily at least during the mixing process, wherein the moisture amounts for the individual regions are measured and supplied individually.
Heat exchanger element comprising a plurality of components (2-8, 10, 11, 13, 14) which are welded together, a) wherein two of the components (13, 14) form a corner joint, b) wherein a root counter weld is formed as a V-seam, c) wherein the V-seam of the root counter weld is located obliquely to a welding seam produced by electron beam welding, characterised in that d) on one component a set-back shoulder is formed as support for the second component so that an L-shaped welding joint is formed, e) wherein adjacent to the shoulder a set-back hollow in the first component and in the second component is arranged as seam preparation for the root counter weld, f) wherein in the hollow the root counter weld is located, by means of which a lower leg of the L-shaped welding joint is melted and the components (13, 14) are joined together, g) wherein from the opposite side in the upper leg of the L-shaped welding joint an I-shaped welding seam produced by electron beam welding is directed to the root counter weld and the welding joint is completely filled from the opposite side, wherein the V-seam of the root counter weld is located obliquely to the lower leg of the L-shaped welding joint. a) wherein two of the components (13, 14) form a corner joint, b) wherein a root counter weld is formed as a V-seam, c) wherein the V-seam of the root counter weld is located obliquely to a welding seam produced by electron beam welding, characterised in that d) on one component a set-back shoulder is formed as support for the second component so that an L-shaped welding joint is formed, e) wherein adjacent to the shoulder a set-back hollow in the first component and in the second component is arranged as seam preparation for the root counter weld, f) wherein in the hollow the root counter weld is located, by means of which a lower leg of the L-shaped welding joint is melted and the components (13, 14) are joined together, g) wherein from the opposite side in the upper leg of the L-shaped welding joint an I-shaped welding seam produced by electron beam welding is directed to the root counter weld and the welding joint is completely filled from the opposite side, wherein the V-seam of the root counter weld is located obliquely to the lower leg of the L-shaped welding joint.
Operating device for a product processing device, wherein the operating device has a terminal housing, a touchscreen and a controller, and with the controller, by means of which a menu having various menu fields (4, 5) for controlling a function of the product processing device is presentable on the touchscreen and inputs made via the touchscreen are processible, wherein the controller can be used, on the basis of a state of the product processing device, to present two spaced-apart menu fields (4, 5) on the touchscreen for safety-relevant two-handed operation, and the simultaneousness and duration of operation of these menu fields (4, 5) is detectable by means of the controller, and the controller takes the simultaneousness and duration of the operation as a basis for controlling a specific safety-relevant function of the product processing device, wherein the controller displays a remaining duration of the operation of the menu fields (4, 5) for controlling a specific safety-relevant function of the product processing device by means of a bar that becomes smaller as the touch goes on or a decreasing number of seconds on the touchscreen, and wherein the touchscreen is in the form of an optical system or in the form of a projected capacitive system having a glass surface that preferably has a thickness of 0.2 - 0.5 mm.
A cargo management system, comprising: an air cushion cargo shuttle; an air blower configured to blow air beneath the air cushion cargo shuttle; and an inductive charging receiver on the air cushion cargo shuttle. an air cushion cargo shuttle; an air blower configured to blow air beneath the air cushion cargo shuttle; and an inductive charging receiver on the air cushion cargo shuttle.
A system comprising: a radiation source capable of emitting first light; a first fluorescent material capable of absorbing the first light and emitting second light having a different wavelength than the first light, wherein said fluorescent material comprises a phosphor having the formula (Lu 1-x-y-a-b Y x Gd y) 3 (Al 1-z Ga z) 5 O 12:Ce a Pr b wherein 0 < x < 1, 0 < y < 1, 0 <z ≤ 0.1, 0 < a ≤ 0.2 and 0 < b ≤ 0.1; and a second fluorescent material capable of emitting third light; wherein the first fluorescent material and the second fluorescent material are disposed over the radiation source as discrete layers. a radiation source capable of emitting first light; a first fluorescent material capable of absorbing the first light and emitting second light having a different wavelength than the first light, wherein said fluorescent material comprises a phosphor having the formula (Lu 1-x-y-a-b Y x Gd y) 3 (Al 1-z Ga z) 5 O 12:Ce a Pr b wherein 0 < x < 1, 0 < y < 1, 0 <z ≤ 0.1, 0 < a ≤ 0.2 and 0 < b ≤ 0.1; and a second fluorescent material capable of emitting third light; wherein the first fluorescent material and the second fluorescent material are disposed over the radiation source as discrete layers.
A method of testing for an abnormal distribution of a specified chromosome portion in a mixed sample of normally and abnormally distributed chromosome portions obtained from a subject, comprising: (a) obtaining a number of sequence tags from multiple chromosome portions of the mixed sample, wherein the sequence tags are of sufficient length of determined sequence to be assigned to a chromosome location within a genome and of sufficient number to reflect the abnormal distribution; (b) assigning the sequence tags to corresponding chromosome portions including at least the specified chromosome portion by comparing the sequence tags to a reference genomic sequence; (c) determining values for numbers of sequence tags mapping to chromosome portions by counting sequence tags within a series of predefined windows of equal lengths within normally and abnormally distributed chromosome portions to obtain a first value and a second value therefrom; and (d) using the values from step (c) to determine a differential, between the first value and the second value, to measure the over-representation or under-representation of the specified chromosome portion in the mixed sample. (a) obtaining a number of sequence tags from multiple chromosome portions of the mixed sample, wherein the sequence tags are of sufficient length of determined sequence to be assigned to a chromosome location within a genome and of sufficient number to reflect the abnormal distribution; (b) assigning the sequence tags to corresponding chromosome portions including at least the specified chromosome portion by comparing the sequence tags to a reference genomic sequence; (c) determining values for numbers of sequence tags mapping to chromosome portions by counting sequence tags within a series of predefined windows of equal lengths within normally and abnormally distributed chromosome portions to obtain a first value and a second value therefrom; and (d) using the values from step (c) to determine a differential, between the first value and the second value, to measure the over-representation or under-representation of the specified chromosome portion in the mixed sample.
Curtain for non-rectangular surfaces, in particular with four or five corners, with an upper moveable rail, a moveable intermediate rail and a fixed lower rail, between each of which is arranged a blind (17, 18), and with a stop device, by which the intermediate rail, in its upper position, is held parallel to the lower rail, characterised in that the stop device is a stop cord with a fixed length and is guided at least from the intermediate rail to the lower rail, wherein a length compensation means is attached to the stop cord and, depending on the position of the intermediate rail, compensates for each of the different distances between the intermediate rail and the lower fixed rail, and the stop cord is threaded from one end of the intermediate rail which faces away from an angled edge of the non-rectangular surface, over a corresponding end of the lower fixed rail and the other end of the lower fixed rail to the lower corner of the angled edge, and from there to the end of the intermediate rail which faces towards the lower corner of the angled edge.
A device for simulation of mechanical functions of a real weapon, wherein the device is adapted to be arranged on the real weapon, the device comprising a weapon bolt simulator for simulating the mechanical movement of the weapon bolt and a reload simulator for simulating the function of a reload handle of the real weapon, wherein the weapon bolt simulator is adapted to be mounted as a bolt inside the real weapon, characterized in that the weapon bolt simulator further comprises a hammer detector for detecting the movement of the hammer and in that the hammer detector is adapted upon firing of a shot for activation of simulated movements and functions performed by a real bolt.
A heat transfer system, comprising an electrocaloric element comprising an electrocaloric film, a first electrical conductor on a first side of the electrocaloric film, and a second electrical conductor on a second side of the electrocaloric film, wherein at least one of the first and second electrical conductors (14, 16) comprises an electrically conductive liquid; an electric power source in electrical contact with the first and second electrical conductors (14, 16), configured to provide an electrical field across the electrocaloric film; and a liquid flow path along the plurality of electrocaloric elements for the electrically conductive liquid; wherein the first electrical conductor comprises a first electrically conductive liquid and the second electrical conductor comprises a second electrically conductive liquid electrically isolated from the first electrically conductive liquid; or wherein the first electrical conductor comprises an electrically conductive liquid and the second electrical conductor comprises a conductive film electrode. an electrocaloric element comprising an electrocaloric film, a first electrical conductor on a first side of the electrocaloric film, and a second electrical conductor on a second side of the electrocaloric film, wherein at least one of the first and second electrical conductors (14, 16) comprises an electrically conductive liquid; an electric power source in electrical contact with the first and second electrical conductors (14, 16), configured to provide an electrical field across the electrocaloric film; and a liquid flow path along the plurality of electrocaloric elements for the electrically conductive liquid; wherein the first electrical conductor comprises a first electrically conductive liquid and the second electrical conductor comprises a second electrically conductive liquid electrically isolated from the first electrically conductive liquid; or wherein the first electrical conductor comprises an electrically conductive liquid and the second electrical conductor comprises a conductive film electrode.
A tissue regeneration promoter comprising any one of the following components (a) to (i) for use in regenerative medicine for epithelial or neurological tissue: (a) an HMGB1 protein; (b) a cell secreting an HMGB1 protein; (c) a vector inserted with a DNA encoding an HMGB1 protein; (d) an HMGB2 protein; (e) a cell secreting an HMGB2 protein; (f) a vector inserted with a DNA encoding an HMGB2 protein; (g) an HMGB3 protein; (h) a cell secreting an HMGB3 protein; and (i) a vector inserted with a DNA encoding an HMGB3 protein. (a) an HMGB1 protein; (b) a cell secreting an HMGB1 protein; (c) a vector inserted with a DNA encoding an HMGB1 protein; (d) an HMGB2 protein; (e) a cell secreting an HMGB2 protein; (f) a vector inserted with a DNA encoding an HMGB2 protein; (g) an HMGB3 protein; (h) a cell secreting an HMGB3 protein; and (i) a vector inserted with a DNA encoding an HMGB3 protein.
A dried spot fluid sampling device comprising a card holding element including at least the following features: - an open cavity located on a face of said card holding element and defined by a bottom surface surrounded by at least one spacer, - a fluid channel defined between an outlet located in said bottom surface and an inlet located on another face of said card holding element, said channel being furthermore designed in a way as to induce a capillary action on a fluid moving within the channel, said spacer being adapted to support and hold a sampling card which, when present, covers said cavity. - an open cavity located on a face of said card holding element and defined by a bottom surface surrounded by at least one spacer, - a fluid channel defined between an outlet located in said bottom surface and an inlet located on another face of said card holding element, said channel being furthermore designed in a way as to induce a capillary action on a fluid moving within the channel,
A method for synthesizing hydrocarbonaceous compounds, the method comprising: introducing a fuel stream comprising a reformable fuel into an anode of a molten carbonate fuel cell, an internal reforming element associated with the anode, or a combination thereof; introducing a cathode inlet stream comprising CO2 and O2 into a cathode of the fuel cell, the cathode inlet stream optionally comprising exhaust from a combustion turbine; generating electricity within the molten carbonate fuel cell; generating an anode exhaust comprising H2, CO, and CO2; separating CO2 from at least a portion of the anode exhaust to produce an anode effluent gas stream; reacting at least a portion of the anode effluent gas stream in the presence of a methanol synthesis catalyst under effective conditions for forming methanol to produce at least one methanol-containing stream and one or more streams comprising gaseous or liquid products; and recycling at least a portion of the one or more streams comprising gaseous or liquid products to form at least a portion of a cathode inlet stream, wherein the CO2 utilization in the cathode is at least 60%. introducing a fuel stream comprising a reformable fuel into an anode of a molten carbonate fuel cell, an internal reforming element associated with the anode, or a combination thereof; introducing a cathode inlet stream comprising CO2 and O2 into a cathode of the fuel cell, the cathode inlet stream optionally comprising exhaust from a combustion turbine; generating electricity within the molten carbonate fuel cell; generating an anode exhaust comprising H2, CO, and CO2; separating CO2 from at least a portion of the anode exhaust to produce an anode effluent gas stream; reacting at least a portion of the anode effluent gas stream in the presence of a methanol synthesis catalyst under effective conditions for forming methanol to produce at least one methanol-containing stream and one or more streams comprising gaseous or liquid products; and recycling at least a portion of the one or more streams comprising gaseous or liquid products to form at least a portion of a cathode inlet stream, wherein the CO2 utilization in the cathode is at least 60%.
A method to manufacture a steel, casting die or tool, wherein the steel has the following composition, all percentages being indicated in weight percent: %C eq = 0.16 - 1.9 %C = 0.16 - 1.9 %N = 0 - 1.0 %B =0 - 0.6 %Cr < 1.8 %Ni =0 - 6 %Si = 0 - 1.4 %Mn = 0 - 3 %Al =0 - 2.5 %Mo =0 - 10 %W =0-10 %Ti =0-2 %Ta = 0 - 3 %Zr = 0 - 3 %Hf = 0 - 3 %V = 0 - 4 %Nb = 0 - 1.5 %Cu = 0 - 2 %Co = 0 - 6 the rest consisting of iron and trace elements wherein, % C eq = % ⁢ C + 0.86 ∗ % ⁢ N + 1.2 ∗ % ⁢ B, and %Mo + 1⁄2 · %W > 2.0, comprising providing a steel with both a bainite and a martensite domain of existence, wherein the steel is subjected to a thermal treatment comprising the following steps: a) Austenitization, b) Cooling while avoiding the formation of more than a 20% stable phases with a transformation temperature higher than bainite, c) Maintaining the temperature to transform at least 60% vol of remaining austenite between Ms+300°C and Ms-50°C, wherein Ms is the martensite start of transformation temperature; wherein more than 80% of the microstructure is bainitic with fine carbide-like constituents with a CVN higher than 8 Joule within at least 20mm from the surface of the thermally treated steel. a) Austenitization, b) Cooling while avoiding the formation of more than a 20% stable phases with a transformation temperature higher than bainite, c) Maintaining the temperature to transform at least 60% vol of remaining austenite between Ms+300°C and Ms-50°C, wherein Ms is the martensite start of transformation temperature;
A particulate, comprising: a plurality of polysaccharide-vitamin conjugates; and an active agent encapsulated in the plurality of polysaccharide-vitamin conjugates; wherein each of the plurality of polysaccharide-vitamin conjugates comprises a polysaccharide molecule and one or more molecules of vitamin covalently conjugated to the polysaccharide molecule through a linker group; the active agent is non-covalently bound to the molecule of vitamin; wherein the polysaccharide molecule is hydrophilic, the one or more molecules of the vitamin is hydrophobic, and the polysaccharide-vitamin conjugates are amphiphilic; wherein the surface comprises the hydrophilic polysaccharide molecule and the active agent is encapsulated inside the particulate and buried underneath the surface; wherein the active agent is hydrophobic; and wherein the active agent is optionally a therapeutic agent or a diagnostic agent. a plurality of polysaccharide-vitamin conjugates; and an active agent encapsulated in the plurality of polysaccharide-vitamin conjugates; wherein each of the plurality of polysaccharide-vitamin conjugates comprises a polysaccharide molecule and one or more molecules of vitamin covalently conjugated to the polysaccharide molecule through a linker group; the active agent is non-covalently bound to the molecule of vitamin; wherein the polysaccharide molecule is hydrophilic, the one or more molecules of the vitamin is hydrophobic, and the polysaccharide-vitamin conjugates are amphiphilic; wherein the surface comprises the hydrophilic polysaccharide molecule and the active agent is encapsulated inside the particulate and buried underneath the surface; wherein the active agent is hydrophobic; and wherein the active agent is optionally a therapeutic agent or a diagnostic agent.