mhurhangee/ep-ind-claims huggingface dataset:
Glass reduction installation, comprising: - an entrance opening for introducing glass according to a direction of insertion; - a crushing chamber, comprising a rotatable crusher element installed for crushing the supplied glass; - a drive engine for the crusher element, equipped with an engine shaft, wherein the crusher element is installed onto the engine shaft and mainly extends transversally onto the direction of insertion, characterized in that the crusher element comprises a number of projecting crusher points which are removable installed onto the crusher element, and in that the crusher element is bar-shaped and consists of two interconnecting crusher element parts. - an entrance opening for introducing glass according to a direction of insertion; - a crushing chamber, comprising a rotatable crusher element installed for crushing the supplied glass; - a drive engine for the crusher element, equipped with an engine shaft, wherein the crusher element is installed onto the engine shaft and mainly extends transversally onto the direction of insertion, characterized in that the crusher element comprises a number of projecting crusher points which are removable installed onto the crusher element, and in that the crusher element is bar-shaped and consists of two interconnecting crusher element parts.
A computing device for pipeline processing of data, the computing device comprising: a processing system configured to perform one or more operations; and memory configured to maintain instructions that, when executed by the processing system, cause the processing system to: create a buffer in the memory by performing a probe, lock, and map operation to locate a portion of the memory that is suitable for use as a buffer, lock the portion of the memory from other functionality of the computing device and map the portion of the memory as the buffer; cache, in a buffer information cache, a memory descriptor list that describes at least a location of the buffer along with a handle corresponding to the memory descriptor list; receive the handle by at least one stage of a pipeline that is to access data within the buffer; request, by the at least one stage using the received handle, the memory descriptor list; receive, by the at least one stage, the memory descriptor list; and access, by the at least one stage, the data within the buffer using the received memory descriptor list. a processing system configured to perform one or more operations; and memory configured to maintain instructions that, when executed by the processing system, cause the processing system to: create a buffer in the memory by performing a probe, lock, and map operation to locate a portion of the memory that is suitable for use as a buffer, lock the portion of the memory from other functionality of the computing device and map the portion of the memory as the buffer; cache, in a buffer information cache, a memory descriptor list that describes at least a location of the buffer along with a handle corresponding to the memory descriptor list; receive the handle by at least one stage of a pipeline that is to access data within the buffer; request, by the at least one stage using the received handle, the memory descriptor list; receive, by the at least one stage, the memory descriptor list; and access, by the at least one stage, the data within the buffer using the received memory descriptor list. create a buffer in the memory by performing a probe, lock, and map operation to locate a portion of the memory that is suitable for use as a buffer, lock the portion of the memory from other functionality of the computing device and map the portion of the memory as the buffer; cache, in a buffer information cache, a memory descriptor list that describes at least a location of the buffer along with a handle corresponding to the memory descriptor list; receive the handle by at least one stage of a pipeline that is to access data within the buffer; request, by the at least one stage using the received handle, the memory descriptor list; receive, by the at least one stage, the memory descriptor list; and access, by the at least one stage, the data within the buffer using the received memory descriptor list.
A heating element for heaters, of the modular type, comprising: at least one radiating module (11, 111), which is constituted by a metallic plate (12, 112) that has two facing plate-like portions, respectively a first plate-like portion and a second plate-like portion, which are connected by longitudinal partitions which delimit laterally a plurality of parallel ducts (13, 113) that are open at their ends (14, 114) and are formed within and extend along the planar dimension of said metallic plate (12, 112); and at least two manifold modules (15, 115), which are fixed to said plate (12, 112) respectively on opposite sides at the opposite end openings (14, 114) of said ducts (13, 113), said at least two manifold modules, together with said ducts (13, 113), forming a path for a heat transfer liquid, said heating element (10, 100) being composed selectively of a single said plate or of several plates forming the radiating modules (11, 111) that are mutually fixed at their lateral edges so that said ducts of all the radiating modules are parallel, said at least two manifold modules (15, 115) being arranged transversely to all of said ducts (13, 113) at the opposite end openings (14, 114) of said ducts, characterized in that said second plate-like portion, at said end openings (14, 114) of said ducts (13, 113), protrudes beyond said end openings (14, 114), forming respective opposite bands, each of which is oriented transversely to said ducts (13, 113), each one of said manifold modules (15, 115) being formed by a single element which has a substantially L-shaped contour and rests, with a first longitudinal end edge thereof, on the border of said first plate-like portion, which corresponds to the region of said end openings (14, 114), and rests, with its second longitudinal end edge, which is perpendicular to said first longitudinal end edge, against said second plate-like portion.
Door system with at least one movable door leaf, with a locking device for locking the door leaf in its closed position, wherein the locking device has at least one locking element with a bolt which, in its locking position, engages in a bolt receptacle arranged in a positionally fixed manner and in a building floor, and wherein, by introduction of a high force perpendicularly to the door leaf plane, in particular in the event of an attempted break-in, the door leaf is deformable, as a result of which the insertion depth of the bolt in the bolt receptacle can be reduced, characterized in that at least one projection is arranged adjacent to the bolt receptacle, at least on that side of the door system which faces away from the potential break-in side of the door leaf, wherein the projection has at least one bevel (16, 17) and is arranged on a base plate of a reinforcing element.
A method for removing SO x from a gas, which comprises: bringing a polyol complex solution comprising a mixture of a polyol along with an organic acid and/or organic acid salt into contact with the gas containing SO x to absorb the SO x in the gas, wherein x = 2 and/or 3; the polyol refers to an organic compound other than ethylene glycol and polyethylene glycol, which contains simultaneously more than two hydroxyl groups in a same organic molecule; wherein the organic acid includes an organic monoacid and an organic polyacid; the organic acid salt includes an organic monoacid salt and an organic polyacid salt; the organic monoacid is selected from one or more of the following compounds: formic acid, acetic acid, butyric acid and various amino acids; the organic polyacid is selected from one or more of the following compounds: ethanedioic acid, propanedioic acid, butanedioic acid, aminoethanedioic acid, nitrilotriacetic acid, EDTA, tannin acid, and polygallic acid; the organic monoacid salt is selected from one or more of the following compounds: carboxylic acid salts formed by carboxyl group of the organic monoacid bonding to ammonium ions, sodium ions, potassium ions, magnesium ions, calcium ions and/or transition metal ions; the organic polyacid salt is selected from one or more of the following compounds: carboxylic acid salts formed by at least one carboxylic acid group of the organic polyacid bonding to ammonium ions, sodium ions, potassium ions, magnesium ions, calcium ions and/or transition metal ions, the polyol is selected from one or more of the following compounds: glycerol, butanetriol, isobutanetriol, pentanetriol, pentanetetraol, isopentanetriol, and isopentanetetraol, the mixture of the polyol along with the organic acid and/or organic acid salt comprises an ester of the polyol along with the organic acid and/or organic acid salt, and the total mass content of the polyol along with the organic acid and/or organic acid salt in the polyol complex solution is more than or equal to 50%, the mass content of water is less than 50%, and the mass content of the organic acid and/or organic acid salt in the polyol complex solution is less than 30%.
A light assembly comprising: a light source circuit board; a plurality of light sources disposed on the light source circuit board; a housing thermally coupled to the light source circuit board; and a lens cap assembly thermally coupled to the housing comprising a lens cap and a mesh heat dissipation layer, said mesh heat dissipation layer is disposed within the lens cap between an outer surface and an inner surface of the lens cap and is disposed directly adjacent to the light source circuit board so that heat from the light source circuit board travels through the lens cap into the mesh heat dissipations layer where the heat is conducted through the mesh heat dissipation layer throughout the lens cap assembly where the heat dissipates through the lens cap external to the light assembly. a light source circuit board; a plurality of light sources disposed on the light source circuit board; a housing thermally coupled to the light source circuit board; and a lens cap assembly thermally coupled to the housing comprising a lens cap and a mesh heat dissipation layer, said mesh heat dissipation layer is disposed within the lens cap between an outer surface and an inner surface of the lens cap and is disposed directly adjacent to the light source circuit board so that heat from the light source circuit board travels through the lens cap into the mesh heat dissipations layer where the heat is conducted through the mesh heat dissipation layer throughout the lens cap assembly where the heat dissipates through the lens cap external to the light assembly.
Prophylactic article, in particular a glove, with a carrier element, which comprises at least in part a natural or synthetic elastomer, and with a combination of active substances that is contained in microcapsules, and the microcapsules are arranged at least in part in and/or on the carrier element, characterized in that the combination of active substances contains at least one skin care agent, at least one preservative, at least one odor-inhibiting agent and at least one antioxidant, and the at least one skin care agent is selected from a group comprising triglycerides of coconut fatty acids, avocado oil, jojoba oil, olive oil, cyclomethicone, squalane, borage oil, shea butter, macadamia oil, the at least one preservative is selected from a group comprising benzyl alcohol, benzyl benzoate, potassium sorbate, sodium hydroacetate, the at least one odor-inhibiting agent is selected from a group comprising citral, cumarin, citronellol, lilial, linalool, limonene, the at least one antioxidant is selected from a group comprising tocopheryl acetate, ascorbyl palmitate, betacarotene, oil of rosemary, and the groups also comprise at least partially hydrated representatives or extracts of the cited active substances and the combination of active substances has a saponification value according to DIN 53401 of no more than 250.
A method of detecting or determining the presence of prostate cancer cells in a urine sample from a subject comprising: (i) isolating cells from said urine sample to provide a cell sample; (ii) contacting said cell sample with a specific binding member capable of binding a minichromosome maintenance 2 polypeptide; and (iii) determining the binding of said specific binding member to the cell sample. (i) isolating cells from said urine sample to provide a cell sample; (ii) contacting said cell sample with a specific binding member capable of binding a minichromosome maintenance 2 polypeptide; and (iii) determining the binding of said specific binding member to the cell sample.
Cable for laying in the ground, in the air, in pipes or buildings, comprising a cable core and a sleeve which surrounds the cable core, wherein the sleeve has a sheath layer and a flame-retardant and/or fire-retardant fire protection layer and wherein the sheath layer and the fire protection layer are coextruded, characterized in that the wall thickness of the sheath layer, at least in certain portions, is lower than the wall thickness of the fire protection layer which surrounds the sheath layer, wherein a foil is provided so as to lie radially inside and beyond the sheath layer and the fire protection layer, said foil having an overlap region, wherein the sheath layer lies above the foil, or wherein a metal sheath is provided so as to lie radially inside and beyond the sheath layer and the fire protection layer, wherein the sheath layer lies above the metal sheath.
A method for producing micro- and/or nanostructures, with at least the following steps with the following sequence: a) fixing of a substrate (1, 1', 1") with an embossing compound (7, 7', 7") on a substrate mounting arrangement, b) contacting of a structured stamp (2, 2') with the embossing compound (7, 7', 7"), c) at least partial removal of the fixing of the substrate (1, 1', 1"), d) curing of the embossing compound (7, 7', 7"), f) demoulding of the embossing compound (7, 7', 7") from the structured stamp (2, 2'). a) fixing of a substrate (1, 1', 1") with an embossing compound (7, 7', 7") on a substrate mounting arrangement, b) contacting of a structured stamp (2, 2') with the embossing compound (7, 7', 7"), c) at least partial removal of the fixing of the substrate (1, 1', 1"), d) curing of the embossing compound (7, 7', 7"), f) demoulding of the embossing compound (7, 7', 7") from the structured stamp (2, 2').
A wristband assembly for supporting a device over the inner wrist bone of a wearer enabling the wearer to view and access the device without turning their hand through approximately 90 degrees, the wristband assembly comprising: - a wristband; - fastening means to releasably secure the device to the wristband; and - at least one distal forearm engaging portion to mount the fastening means over the inner wrist bone of the wearer, whereby the fastening means is configured to mount the device to the wristband and over the inner wrist bone of the wearer; wherein the at least one distal forearm engaging portion comprises a non-custom, fitted cushion mounting for holding the device in place on the side of the wearer's wrist; and wherein the device is one of a mobile phone, smartphone, Personal Digital Assistant, MP3 player or GPS device; whereby the fastening means comprises an aperture characterised in that an inner peripheral edge of the lower peripheral wall is flexible so that, when the device is inserted between the upper and lower peripheral walls (16, 18), the inner peripheral edge of the lower peripheral wall is deformed to allow passage of the device into a spatial volume defined between the upper and lower peripheral walls. - a wristband; - fastening means to releasably secure the device to the wristband; and - at least one distal forearm engaging portion to mount the fastening means over the inner wrist bone of the wearer,
A method for machining the bearing seats of main and pin bearings of crankshafts as well as the side surfaces adjoining the bearing seats after premachining a crankshaft, wherein, if crankshafts have a direct transition of the bearing seats into the side surfaces, i.e. are without grooves, - the bearing seats and adjoining segments of the side surfaces are hardened, then - the hardened bearing seats are turn-milled, - the hardened adjoining segments of the side surfaces are hard-finished by turn-milling, characterized in that the turn-milled bearing seats are turn-broached on finished dimension. i.e. are without grooves, - the bearing seats and adjoining segments of the side surfaces are hardened, then - the hardened bearing seats are turn-milled, - the hardened adjoining segments of the side surfaces are hard-finished by turn-milling, - the bearing seats and adjoining segments of the side surfaces are hardened, then - the hardened bearing seats are turn-milled, - the hardened adjoining segments of the side surfaces are hard-finished by turn-milling,
An apparatus, comprising: a display comprising a backlight component; and a backlight power management module configured to provide boosted power to the backlight component via a boost circuit, wherein the boost circuit includes a primary boost phase and a flash boost phase, wherein the two boost phases are asymmetric; wherein the backlight power management module is configured to: power the backlight component via the primary boost phase to provide normal backlighting for the display; receive a flash trigger signal; and enable the flash boost phase of the boost circuit in response to the flash trigger signal to provide pulsed power to the backlight component to cause the backlight component to flash. a display comprising a backlight component; and a backlight power management module configured to provide boosted power to the backlight component via a boost circuit, wherein the boost circuit includes a primary boost phase and a flash boost phase, wherein the two boost phases are asymmetric; wherein the backlight power management module is configured to: power the backlight component via the primary boost phase to provide normal backlighting for the display; receive a flash trigger signal; and enable the flash boost phase of the boost circuit in response to the flash trigger signal to provide pulsed power to the backlight component to cause the backlight component to flash. power the backlight component via the primary boost phase to provide normal backlighting for the display; receive a flash trigger signal; and enable the flash boost phase of the boost circuit in response to the flash trigger signal to provide pulsed power to the backlight component to cause the backlight component to flash.
Hydraulic arrangement for distributing a pressurised fluid coming from a source of pressurised fluid among a plurality of hydraulic units (3, 5, 6) of a work vehicle, at least one (5, 6) of said other hydraulic units (3, 5, 6) providing an electronic load sensing signal and at least one of said units (3, 5, 6) providing a hydraulic load sensing signal, said hydraulic arrangement further comprising a priority valve configured to divide the flow of said fluid between said hydraulic units (3, 5, 6), said priority valve and said source being hydraulically controlled by a first hydraulic load sensing signal resulting as the greatest of a plurality of hydraulic load pressure signals (12a, 12b) taken from said units (3, 5, 6), said hydraulic arrangement is characterized in that it comprises a conversion unit configured to transform said electronic load sensing signal of said at least one of said other hydraulic units (5, 6) into an equivalent hydraulic load sensing signal so as to allow the aforementioned comparison among hydraulic load pressure signals (12a, 12b) to define said first hydraulic load sensing signal controlling priority valve and source.
A water dispensing apparatus, comprising: a main body; an infrared sensing device, comprising: a mounting support disposed on an inner side of the main body; and an electric control board disposed on the mounting support, the electric control board comprising an infrared transmitting device, and an infrared receiving device configured to receive an infrared ray transmitted by the infrared transmitting device, wherein the mounting support has a first through hole at a position corresponding to the infrared transmitting device, and a second through hole at a position corresponding to the infrared receiving device; wherein: the mounting support has a support portion provided on a side thereof facing towards the electric control board; the electric control board is supported by the support portion; the mounting support has at least two buckling portions opposite to each other, the at least two buckling portions being buckled on and engaged with two opposite edges of the electric control board. a main body; an infrared sensing device, comprising: a mounting support disposed on an inner side of the main body; and an electric control board disposed on the mounting support, the electric control board comprising an infrared transmitting device, and an infrared receiving device configured to receive an infrared ray transmitted by the infrared transmitting device, wherein the mounting support has a first through hole at a position corresponding to the infrared transmitting device, and a second through hole at a position corresponding to the infrared receiving device; a mounting support disposed on an inner side of the main body; and an electric control board disposed on the mounting support, the electric control board comprising an infrared transmitting device, and an infrared receiving device configured to receive an infrared ray transmitted by the infrared transmitting device, wherein the mounting support has a first through hole at a position corresponding to the infrared transmitting device, and a second through hole at a position corresponding to the infrared receiving device; wherein: the mounting support has a support portion provided on a side thereof facing towards the electric control board; the electric control board is supported by the support portion; the mounting support has at least two buckling portions opposite to each other, the at least two buckling portions being buckled on and engaged with two opposite edges of the electric control board. the mounting support has a support portion provided on a side thereof facing towards the electric control board; the electric control board is supported by the support portion; the mounting support has at least two buckling portions opposite to each other, the at least two buckling portions being buckled on and engaged with two opposite edges of the electric control board.