mhurhangee/ep-ind-claims huggingface dataset:
A temperature control device (10, 10A) for controlling a temperature of a resin which flows through a resin flow channel which is formed by a nozzle section and a cylinder section connected to the nozzle section, the temperature control device comprising: a first temperature sensor adapted to detect a nozzle temperature of the resin which flows through the nozzle section; a first temperature control unit adapted to perform a PID control so that the nozzle temperature reaches a first target temperature; a plurality of second temperature sensors adapted to detect a cylinder temperature of the resin which flows through the cylinder section; and a plurality of second temperature control units adapted to perform a PID control so that the cylinder temperature reaches a second target temperature (SP1, SP2, SP3), wherein the second temperature control units are adapted to perform PID control on the cylinder temperature using temperature control information (TD1, TD11, TD12, TD13, TD21, TD22, TD3) from the first temperature control unit, and the first temperature control unit is adapted to feed temperature control information back to the plurality of second temperature control units. a first temperature sensor adapted to detect a nozzle temperature of the resin which flows through the nozzle section; a first temperature control unit adapted to perform a PID control so that the nozzle temperature reaches a first target temperature; a plurality of second temperature sensors adapted to detect a cylinder temperature of the resin which flows through the cylinder section; and a plurality of second temperature control units adapted to perform a PID control so that the cylinder temperature reaches a second target temperature (SP1, SP2, SP3), wherein the second temperature control units are adapted to perform PID control on the cylinder temperature using temperature control information (TD1, TD11, TD12, TD13, TD21, TD22, TD3) from the first temperature control unit, and the first temperature control unit is adapted to feed temperature control information back to the plurality of second temperature control units.
Rail vehicle inner sliding door system, comprising a lower guide rail, an upper guide rail and at least one door leaf supported movably between the guide rails (100, 200), linings which are connected in a detachable manner both to the lower and also to the upper guide rails and which can be fastened between the upper guide rail and the lower guide rail and cover the door leaf if it is in the opened position and an assembling jig, characterised in that the upper guide rail and the lower guide rail each have positioning means for precise positioning of the linings, which are fastened exclusively to the upper and the lower guide rail, and wherein in order to position the guide rails (100, 200) with respect to one another, the assembling jig can be placed on the lower guide rail on adjusting devices, as a result of which the required assembly position of the upper guide rail is predetermined.
A handlebar grip set, comprising: two turn signals, each one of the two turn signals being detachable and having a base; an illumination module assembled to the base; and a housing assembled to the base and covering the illumination module; two operating kits, each one of the two operation kits having a button module electrically connected to the illumination module of a corresponding one of the two turn signals; and two grips, each one of the two grips surrounding the base of a corresponding one of the two turn signals; wherein the base of each one of the two turn signals is configured to be assembled to one of two ends of handlebars, wherein each one of the two turn signals has a sleeve sleeving the base of the turn signal; each one of the two turn signals has a battery; each one of the two turn signals has a charging board electrically connected to the battery of the turn signal; the battery of each one of the two turn signals is a rechargeable battery; the handlebar grip set is characterized by further comprising: a headlight; wherein the battery of one of the two turn signals is electrically connected to the illumination module of each one of the two turn signals, the battery of the other one of the two turn signals is electrically connected to the headlight. two turn signals, each one of the two turn signals being detachable and having a base; an illumination module assembled to the base; and a housing assembled to the base and covering the illumination module; a base; an illumination module assembled to the base; and a housing assembled to the base and covering the illumination module; two operating kits, each one of the two operation kits having a button module electrically connected to the illumination module of a corresponding one of the two turn signals; and two grips, each one of the two grips surrounding the base of a corresponding one of the two turn signals; wherein the base of each one of the two turn signals is configured to be assembled to one of two ends of handlebars, wherein each one of the two turn signals has a sleeve sleeving the base of the turn signal; each one of the two turn signals has a battery; each one of the two turn signals has a charging board electrically connected to the battery of the turn signal; the battery of each one of the two turn signals is a rechargeable battery; the handlebar grip set is characterized by further comprising: a headlight; wherein the battery of one of the two turn signals is electrically connected to the illumination module of each one of the two turn signals, the battery of the other one of the two turn signals is electrically connected to the headlight. a headlight; wherein the battery of one of the two turn signals is electrically connected to the illumination module of each one of the two turn signals, the battery of the other one of the two turn signals is electrically connected to the headlight.
A blade mould for manufacturing a blade shell part (24,26) of a wind turbine blade, the blade shell part extending from a tip end to a root end, wherein the blade mould comprises: a first mould frame; and a mould shell supported by the first mould frame and provided with a moulding surface that defines an outer shape of the blade shell part, wherein the mould shell has a longitudinal direction and comprises a root end mould part at a first end thereof; wherein the blade mould further comprises: a first deformation device for deforming the root end mould part of the mould shell, wherein the mould shell has a first mould edge and a second mould edge, and characterised in that the first deformation device is configured to increase the mould edge distance between the first mould edge and the second mould edge. a first mould frame; and a mould shell supported by the first mould frame and provided with a moulding surface that defines an outer shape of the blade shell part, wherein the mould shell has a longitudinal direction and comprises a root end mould part at a first end thereof; wherein the blade mould further comprises: a first deformation device for deforming the root end mould part of the mould shell, wherein the mould shell has a first mould edge and a second mould edge, and characterised in that the first deformation device is configured to increase the mould edge distance between the first mould edge and the second mould edge.
A wireless communication system, comprising a plurality of radio nodes, each being able to operate at least as a router node or as a non-router node, wherein each of the plurality of radio nodes is configured to: - detect density of the router nodes within its neighbourhood, and - make a decision based on the detected density whether to operate as a router node or as a non-router node, characterized in that the decision is provided by comparing the detected density to a scalable density margin, and wherein the density margin is scaled with one or more hysteresis values to mitigate unnecessary role changes. - detect density of the router nodes within its neighbourhood, and - make a decision based on the detected density whether to operate as a router node or as a non-router node,
A recording method comprising: emitting laser light from an optical fiber array to record an image with moving a recording target and the optical fiber array relatively using a recording device, where the image is formed of writing units and the recording device includes a plurality of laser light-emitting elements and an emitting unit that includes the optical fiber array, in which a plurality of optical fibers (12, 42) configured to guide laser light emitted from the laser light-emitting elements are aligned, characterized in that (A'D/A'C) that is a ratio of a length of a diagonal line A'D to a length of a diagonal line A'C in the image formed in a manner that at least part of the writing units are overlapped one another in a main-scanning direction is 1.05 or greater, where B is a length of 1/2 of a line width of the writing unit in the main-scanning direction, A is a center point of an edge of the writing unit in a sub-scanning direction, A' is a position proceeded inside the writing unit from A by B, a line LL' is drawn to include A' and to be orthogonal to the writing unit, the length of the diagonal line A'C is a length between a line having A' as a starting point and having an angle of 45° with the line LL' and a cross point C of the line with the writing unit, and the length of the diagonal line A'D is a length between a line having A' as a starting point and having an angle of 135° with the line LL' and a cross point D of the line with the writing unit.
A composition comprising a layer formed over a core, the core comprising a bioactive agent, the layer comprising a first polymer consisting of a repeat unit of Formula and at least one additional agent, the repeat unit of Formula having the following structure: wherein, R 2, R 4, and R 5 are independently chosen from hydrogen, hydrocarbyl, and substituted hydrocarbyl; R 6 is chosen from hydrogen, hydrocarbyl, and substituted hydrocarbyl; R 7 is not present; Z is chosen from sulfur, sulfone, sulfoxide, and selenium; n is an integer ≥ 1; and m is an integer > 1; and wherein the at least one additional agent is chosen from polymers, waxes, fatty acids, fatty acid esters, or flow agents. R 2, R 4, and R 5 are independently chosen from hydrogen, hydrocarbyl, and substituted hydrocarbyl; R 6 is chosen from hydrogen, hydrocarbyl, and substituted hydrocarbyl; R 7 is not present; Z is chosen from sulfur, sulfone, sulfoxide, and selenium; n is an integer ≥ 1; and m is an integer > 1; and
A graphics rendering method, applied to a terminal device comprising a shader replacement module and a graphics processing unit, GPU, downstream of the shader replacement module, wherein the shader replacement module comprises a scene identification unit and a shader replacement unit, wherein the method comprises: performing, by the GPU, graphics rendering for an application by using a target shader; determining, by the scene identification unit, whether a quantity of a draw calls in a scene of the application is greater than a first preset threshold, and identifying the scene as a complex scene if so; replacing, by the shader replacement unit, the target shader with a target simplified shader, wherein computing resources of the terminal device that are occupied by the target simplified shader are fewer than computing resources of the terminal device that are occupied by the target shader; compiling and sending, by the shader replacement unit, the target simplified shader to the GPU for rendering; and performing, by the GPU, graphics rendering for the application in the complex scene by using the target simplified shader. performing, by the GPU, graphics rendering for an application by using a target shader; determining, by the scene identification unit, whether a quantity of a draw calls in a scene of the application is greater than a first preset threshold, and identifying the scene as a complex scene if so; replacing, by the shader replacement unit, the target shader with a target simplified shader, wherein computing resources of the terminal device that are occupied by the target simplified shader are fewer than computing resources of the terminal device that are occupied by the target shader; compiling and sending, by the shader replacement unit, the target simplified shader to the GPU for rendering; and performing, by the GPU, graphics rendering for the application in the complex scene by using the target simplified shader.
A method of monitoring an amount of building material in a cartridge supplying the building material to an additive manufacturing system, the method comprising: introducing gas into the cartridge; measuring pressure within the cartridge; and when said pressure reaches a predetermined level, determining the amount of building material in the cartridge, based on a volume of gas introduced into the cartridge or on a proxy of said volume; wherein said introducing said gas is via a manifold into the cartridge and into at least one additional cartridge, and wherein the method comprises measuring said pressure and determining the amount of building material also in said at least one additional cartridge. introducing gas into the cartridge; measuring pressure within the cartridge; and when said pressure reaches a predetermined level, determining the amount of building material in the cartridge, based on a volume of gas introduced into the cartridge or on a proxy of said volume; wherein said introducing said gas is via a manifold into the cartridge and into at least one additional cartridge, and wherein the method comprises measuring said pressure and determining the amount of building material also in said at least one additional cartridge.
Brake disk for a motor vehicle having a friction ring and at least one insert portion which is located in the friction ring, wherein the insert portion is constructed in the form of an annular disk and is arranged coaxially with respect to the friction ring, wherein the insert portion has a plurality of openings (7, 8, 9) which are filled by material of the friction ring, wherein the openings (7, 8, 9) have at least two different sizes and/or at least two different contours and are arranged so as to be distributed uniformly over the periphery of the insert portion so that no imbalances arise in the brake disc.
Diagnostic measurement apparatus for the non-invasive capture of at least one physiological parameter of body tissue, having an optical measurement unit comprising at least one radiation source (4, 702) for irradiating the body tissue to be examined and at least one radiation sensor for detecting the radiation that was scattered and/or transmitted by the body tissue, wherein the at least one radiation source (4, 702) is arranged in a concave reflector, characterized in that the light of the at least one radiation source (4, 702) is emitted in such a way that light rays with different spatial emission characteristics irradiate the examined body tissue, wherein at least two radiation exit openings are provided at the concave reflector and an optical unit for modifying the spatial emission characteristic of the radiation emitted from the concave reflector is attached to at least one of these exit openings.
A resin composition for a printed circuit board, comprising a cyanate ester compound and an epoxy resin, characterized in that the cyanate ester compound has at least one structure selected from the group consisting of structures represented by the following formula, the following formula and the following formula: wherein k represents an integer of 1 or more, and I represents an integer of 0 or more, the cyanate ester compound optionally being a mixture of compounds different in k and I, and arrangement of repeating units being arbitrary, wherein m and n each represent an integer of 0 or more, at least one of m and n being 1 or more, the cyanate ester compound optionally being a mixture of compounds different in m and n, and arrangement of repeating units being arbitrary, and wherein m represents an integer of 0 or more, and the cyanate ester compound being a mixture of compounds different in m.
Method for securing a piece of combustion equipment for industrial power plant or CHP, comprising steps of: - producing a synthesis gas in a gasification chamber, - conveying the synthesis gas produced in a combustion chamber by a connecting line provided with a double block valve, - generating a combustion in the combustion chamber of the equipment with the synthesis gas as fuel, and - subsequently controlling the closing of the double block valve characterised in that the method further comprises the steps of: - detecting a closing error of the double block valve, and if so, - injecting an inert gas pressure into the connecting line. - producing a synthesis gas in a gasification chamber, - conveying the synthesis gas produced in a combustion chamber by a connecting line provided with a double block valve, - generating a combustion in the combustion chamber of the equipment with the synthesis gas as fuel, and - subsequently controlling the closing of the double block valve - detecting a closing error of the double block valve, and if so, - injecting an inert gas pressure into the connecting line.
A rolling die manufacturing method for manufacturing a rolling die including a tool base material that is made of steel and has a molded surface on which a plurality of working teeth is formed, wherein the steel is an alloy tool steel, a high-speed tool steel or a cold work die steel, wherein the working teeth are protruded upward from the rolling die, the working teeth each including a crest and a pair of flanks, the rolling die manufacturing method comprising: a nitriding step of forming a nitride layer by performing a gas nitriding process or a radical nitriding process on the molded surface in such a manner that the surface hardness of the molded surface is at least 1100 HV and that the depth of the nitride layer from the molded surface is 20 to 70 μm; and a shot peening step of imparting compressive residual stress to the molded surface by performing a shot peening process on the molded surface that has been nitrided in the nitriding step; and an oxidation step of forming an oxide film on the molded surface by performing an alkaline blackening process for a time period shorter than 30 minutes after the shot peening step, the oxide film consisting of Fe 3 O 4, so that the depth of the oxide film is 0.5 to 5 μm, the alkaline blackening process oxidizing the tool base material by immersing the tool base material in an alkaline aqueous solution at a temperature of 130 to 160°C. a nitriding step of forming a nitride layer by performing a gas nitriding process or a radical nitriding process on the molded surface in such a manner that the surface hardness of the molded surface is at least 1100 HV and that the depth of the nitride layer from the molded surface is 20 to 70 μm; and a shot peening step of imparting compressive residual stress to the molded surface by performing a shot peening process on the molded surface that has been nitrided in the nitriding step; and an oxidation step of forming an oxide film on the molded surface by performing an alkaline blackening process for a time period shorter than 30 minutes after the shot peening step, the oxide film consisting of Fe 3 O 4, so that the depth of the oxide film is 0.5 to 5 μm, the alkaline blackening process oxidizing the tool base material by immersing the tool base material in an alkaline aqueous solution at a temperature of 130 to 160°C.
A gas turbine engine (100; 140) comprising: a heat exchanger system comprising a plurality of circumferentially spaced heat exchangers (102; 142) formed of elongated members having fins on an outer surface; a compressor section, a combustor section, a turbine section (28; 108); a core housing containing said compressor section, said combustor section and said turbine section (28; 108); and a first conduit (110; 148) for tapping hot compressed air to be cooled and passing said air to the heat exchanger system, said air being cooled in said heat exchanger system and returned to a return conduit (112; 150), said return conduit (112; 150) passing the cooled air to said turbine section (28; 108), characterised in that: said spaced heat exchangers (102; 142) are formed of a nickel alloy material including more than 50-percent by volume gamma-prime intermetallic phase material. a heat exchanger system comprising a plurality of circumferentially spaced heat exchangers (102; 142) formed of elongated members having fins on an outer surface; a compressor section, a combustor section, a turbine section (28; 108); a core housing containing said compressor section, said combustor section and said turbine section (28; 108); and a first conduit (110; 148) for tapping hot compressed air to be cooled and passing said air to the heat exchanger system, said air being cooled in said heat exchanger system and returned to a return conduit (112; 150), said return conduit (112; 150) passing the cooled air to said turbine section (28; 108), characterised in that: said spaced heat exchangers (102; 142) are formed of a nickel alloy material including more than 50-percent by volume gamma-prime intermetallic phase material.
Method for the improvement of the slag quality in grate furnaces, comprising: a) a combustion bed b) with several consecutive fixed-bed burn-out zones (P 1 to P 4) c) on one combustion grate and d) a combustion chamber arranged above that, wherein e) a primary gas containing oxygen permeates the first fixed-bed burn-out zones (P 1 to P 3), and f) the combustion bed, at least at one fixed-bed burn-out zone (P 4) following the first fixed-bed burn-out zones (P 1 to P 3), is permanently or temporally alternating g) permeated by a hot combustion gas, characterised in that h) the following fixed-bed burn-out zone (P 4) is permeated by the hot gas directly out of the combustion chamber and not by primary gas, and i) the combustion gas permeates the combustion bed in the following fixed-bed burn-out zone (P 4) from the top to the bottom. a) a combustion bed b) with several consecutive fixed-bed burn-out zones (P 1 to P 4) c) on one combustion grate and d) a combustion chamber arranged above that, wherein e) a primary gas containing oxygen permeates the first fixed-bed burn-out zones (P 1 to P 3), and f) the combustion bed, at least at one fixed-bed burn-out zone (P 4) following the first fixed-bed burn-out zones (P 1 to P 3), is permanently or temporally alternating g) permeated by a hot combustion gas, characterised in that h) the following fixed-bed burn-out zone (P 4) is permeated by the hot gas directly out of the combustion chamber and not by primary gas, and i) the combustion gas permeates the combustion bed in the following fixed-bed burn-out zone (P 4) from the top to the bottom.
A process for making isoidide, comprising: providing a feed including dextrose; providing hydrogen; providing a catalyst; producing an iditol-enriched mixture of hexitols from the dextrose-containing feed; dehydrating the iditol-enriched mixture of hexitols to provide an isohexides product mixture including isoidide; and recovering isoidide from the isohexides product mixture; characterized in that the iditol-enriched mixture of hexitols is produced from the dextrose-containing feed through reaction of the feed with hydrogen in the presence of the catalyst by contacting the dextrose-containing feed with the catalyst and with the hydrogen; wherein the catalyst is a sulfided ruthenium on carbon catalyst or a sponge nickel catalyst; and wherein hydrogen is provided at from 11.0 to 13.8 MPa, gauge, and the feed is reacted with the hydrogen at a temperature between 130 degrees Celsius and 180 degrees Celsius. providing a feed including dextrose; providing hydrogen; providing a catalyst; producing an iditol-enriched mixture of hexitols from the dextrose-containing feed; dehydrating the iditol-enriched mixture of hexitols to provide an isohexides product mixture including isoidide; and recovering isoidide from the isohexides product mixture;