mhurhangee/ep-ind-claims huggingface dataset:
A lift crane (410, 510) comprising: a) a carbody; b) moveable ground engaging members (14, 414) mounted on the carbody, allowing the crane (410, 510) to move over the ground; c) a rotating bed (420, 520) having a front portion and a rearmost fixed portion, the rotating bed (420, 520) being rotatably connected to the carbody about an axis of rotation that provides a plane of rotation perpendicular to the axis; d) a boom (422, 522) pivotally mounted on the rotating bed (420, 520) and including a load hoist line for handling a load; characterized by: e) the rotating bed (420, 520) including a counterweight support frame (432, 532) including a set of teeth coupled directly to a first lower surface of the counterweight support frame (432, 532); f) a counterweight unit (435, 535) that includes a trolley (470, 570), the counterweight unit (435, 535) being supported on the counterweight support frame (432, 532) in a moveable relationship with respect to the rotating bed (420, 520); and g) a counterweight unit movement device configured to move the counterweight unit (435, 535) toward and away from the boom (422, 522), the counterweight unit movement device including at least one motor (472, 572) driving a gear (474, 574) connected to the trolley (470, 570), and in which the gear (474, 574) engages the set of teeth on the counterweight support frame (432, 532) to move the trolley (470, 570) with respect to the rotating bed (420, 520) as the motor (472, 572) turns the gear (474, 574). a) a carbody; b) moveable ground engaging members (14, 414) mounted on the carbody, allowing the crane (410, 510) to move over the ground; c) a rotating bed (420, 520) having a front portion and a rearmost fixed portion, the rotating bed (420, 520) being rotatably connected to the carbody about an axis of rotation that provides a plane of rotation perpendicular to the axis; d) a boom (422, 522) pivotally mounted on the rotating bed (420, 520) and including a load hoist line for handling a load; characterized by: e) the rotating bed (420, 520) including a counterweight support frame (432, 532) including a set of teeth coupled directly to a first lower surface of the counterweight support frame (432, 532); f) a counterweight unit (435, 535) that includes a trolley (470, 570), the counterweight unit (435, 535) being supported on the counterweight support frame (432, 532) in a moveable relationship with respect to the rotating bed (420, 520); and g) a counterweight unit movement device configured to move the counterweight unit (435, 535) toward and away from the boom (422, 522), the counterweight unit movement device including at least one motor (472, 572) driving a gear (474, 574) connected to the trolley (470, 570), and in which the gear (474, 574) engages the set of teeth on the counterweight support frame (432, 532) to move the trolley (470, 570) with respect to the rotating bed (420, 520) as the motor (472, 572) turns the gear (474, 574).
A method for calculating K-shortest paths, comprising: Step A: calculating a shortest path tree of a whole network topological graph of Traffic Engineering links in current optical network by taking an end node of the optical path to be built as a root; Step B: sorting, on the calculated shortest path tree, necessarily passed links or nodes in an optical path to be built; and Step C: executing segmented calculation according to the sorted necessarily passed links and nodes, and assembling K-shortest paths with paths obtained by the segmented calculation; characterized in that wherein, in Step B, the step of sorting the necessarily passed links or nodes in the optical path to be built is as follows: sorting based on distance between the necessarily passed links or nodes and the end node of the optical path to be built, or sorting base on distance between the necessarily passed nodes and the initial node of the optical path to be built. Step A: calculating a shortest path tree of a whole network topological graph of Traffic Engineering links in current optical network by taking an end node of the optical path to be built as a root; Step B: sorting, on the calculated shortest path tree, necessarily passed links or nodes in an optical path to be built; and Step C: executing segmented calculation according to the sorted necessarily passed links and nodes, and assembling K-shortest paths with paths obtained by the segmented calculation; sorting based on distance between the necessarily passed links or nodes and the end node of the optical path to be built, or sorting base on distance between the necessarily passed nodes and the initial node of the optical path to be built.
A battery separator, having a composite structure comprising a first element and a second element, the battery separator comprising: the first element, made of a modification material provided to improve thermal stability of the battery separator, wherein the first element is a stack of nanowires distributed in one or more layers; and the second element made of a base material provided as a main body of the battery separator, wherein the first element is loaded on the second element and supported by the second element; characterized in that the first element has a thickness of 0.01 to 0.8 μm, the nanowire has a length-to-diameter ratio of greater than 50, the nanowire has a diameter of 1 to 100 nm and a length of 0.1 to 100 μm; the modification material comprises one or more of a carbon nanotube, a silver nanowire, a boron carbide nanowire, nanocellulose, a copper hydroxide nanowire and a silicon monoxide nanowire; and the base material is an organic polymer material, the organic polymer material comprises polyolefin. the first element, made of a modification material provided to improve thermal stability of the battery separator, wherein the first element is a stack of nanowires distributed in one or more layers; and the second element made of a base material provided as a main body of the battery separator, wherein the first element is loaded on the second element and supported by the second element; characterized in that the first element has a thickness of 0.01 to 0.8 μm, the nanowire has a length-to-diameter ratio of greater than 50, the nanowire has a diameter of 1 to 100 nm and a length of 0.1 to 100 μm; the modification material comprises one or more of a carbon nanotube, a silver nanowire, a boron carbide nanowire, nanocellulose, a copper hydroxide nanowire and a silicon monoxide nanowire; and the base material is an organic polymer material, the organic polymer material comprises polyolefin.
A process for recovering condensable products contained within an outlet gas stream from a Fischer-Tropsch reactor, comprising the steps: conveying the reactor gas stream to a condensation and separation unit; subjecting the F-T gases to direct heat exchange in the condensation and separation unit against a stream of evaporable hydrocarbon liquid, thereby cooling the F-T gases; condensing higher boiling components in the F-T gases; separating the condensed higher boiling components from gaseous components; and removing a gaseous fraction and a condensed higher boiling fraction; in which the gaseous fraction obtained from the removing step is subjected to a first separation step in which it is separated into a gas phase, a liquid hydrocarbon phase and an aqueous phase; and in which at least a portion of the liquid hydrocarbon phase from the first separation step constitutes the evaporable hydrocarbon liquid conveyed to the separation unit. conveying the reactor gas stream to a condensation and separation unit; subjecting the F-T gases to direct heat exchange in the condensation and separation unit against a stream of evaporable hydrocarbon liquid, thereby cooling the F-T gases; condensing higher boiling components in the F-T gases; separating the condensed higher boiling components from gaseous components; and removing a gaseous fraction and a condensed higher boiling fraction; in which the gaseous fraction obtained from the removing step is subjected to a first separation step in which it is separated into a gas phase, a liquid hydrocarbon phase and an aqueous phase; and in which at least a portion of the liquid hydrocarbon phase from the first separation step constitutes the evaporable hydrocarbon liquid conveyed to the separation unit.
An exhalation system for a patient interface, comprising at least two walls (301, 302), wherein the walls (301, 302) are arranged next to each other at least in portions, wherein the exhalation system has at least two flow paths (S1, S2) for the flow of respiratory gas from an interior of the patient interface, wherein the first flow path runs at least partially between the first wall and the second wall, and the first flow path is formed to at least temporarily reduce respiratory gas pressure, and wherein the second flow path is at least partially surrounded by the second wall, and the second flow path is formed at least partially for the at least temporary flow of respiratory gas into the interior of the patient interface, characterized in that at least four groove arrangements are arranged in at least one of the walls (301, 302), wherein each groove arrangement comprises at least two grooves and wherein the grooves, together with the other wall (301, 302) form channels, wherein the groove arrangements are always arranged in pairs and the distance between two pairs of groove arrangements is greater than the distance of the two groove arrangements of each pair from one another.
A data center cooling system, comprising: a modular heat sink, comprising: an evaporator configured to thermally contact a heat-generating electronic device to receive heat from the data center heat-generating electronic device; a condenser coupled to the evaporator and configured to transfer the heat from the heat-generating electronic device into a cooling fluid; and a plurality of transport tubes (436; 486; 560; 636) adapted to fluidly couple the evaporator and the condenser, at least one of the plurality of transport tubes (436; 486; 560; 636) comprising an open end (562; 642) positioned in the evaporator and a closed end (564; 640) positioned in the condenser, characterised in that the closed ends (564; 640) of the plurality of transport tubes (436; 486; 560; 636) positioned in respective areas of the condenser that comprise distinct thermal areas of the condenser such that at least a portion of the plurality of transport tubes (436; 486; 560; 636) have different effective lengths measured from the respective open ends (562; 642) of the portion of the plurality of transport tubes (436; 486; 560; 636) to the respective closed ends (564; 640) of the portion of the plurality of transport tubes (436; 486; 560; 636); and a working fluid adapted to vaporize in the evaporator based on receipt of the heat from the heat-generating electronic device, and adapted to circulate, in vapor phase, from the evaporator to the condenser in the transport member, and adapted to circulate, in liquid phase, from the condenser to the evaporator. an evaporator configured to thermally contact a heat-generating electronic device to receive heat from the data center heat-generating electronic device; a condenser coupled to the evaporator and configured to transfer the heat from the heat-generating electronic device into a cooling fluid; and a plurality of transport tubes (436; 486; 560; 636) adapted to fluidly couple the evaporator and the condenser, at least one of the plurality of transport tubes (436; 486; 560; 636) comprising an open end (562; 642) positioned in the evaporator and a closed end (564; 640) positioned in the condenser, characterised in that the closed ends (564; 640) of the plurality of transport tubes (436; 486; 560; 636) positioned in respective areas of the condenser that comprise distinct thermal areas of the condenser such that at least a portion of the plurality of transport tubes (436; 486; 560; 636) have different effective lengths measured from the respective open ends (562; 642) of the portion of the plurality of transport tubes (436; 486; 560; 636) to the respective closed ends (564; 640) of the portion of the plurality of transport tubes (436; 486; 560; 636); and a working fluid adapted to vaporize in the evaporator based on receipt of the heat from the heat-generating electronic device, and adapted to circulate, in vapor phase, from the evaporator to the condenser in the transport member, and adapted to circulate, in liquid phase, from the condenser to the evaporator.
A drop detector, comprising: a light source on a first side of a drop zone for illuminating drops (50B, 50C) passing through the drop zone with a light beam; multiple light detectors (76A, 38B) on the first side of the drop zone near the light source for detecting light scattered off drops passing through the drop zone; and multiple lenses (42A, 42B) each configured to focus light from a space in the drop zone on one of the light detectors. a light source on a first side of a drop zone for illuminating drops (50B, 50C) passing through the drop zone with a light beam; multiple light detectors (76A, 38B) on the first side of the drop zone near the light source for detecting light scattered off drops passing through the drop zone; and multiple lenses (42A, 42B) each configured to focus light from a space in the drop zone on one of the light detectors.
Decorative trim for a motor vehicle including a first part formed of a first material which can be electroplated and an electroplating layer, which at least partially covers a surface of the first part, and a second part adjacent to the first part, which is formed of a second material that cannot be galvanized and is light-permeable, wherein a surface associated with a decorative trim front of the decorative trim of the second part can be illuminated on the back, wherein the decorative trim front has a shoulder in a region, in which the first and the second part are adjacent to each other, characterised in that, the shoulder is a groove, wherein a floor of the groove is formed by the second part and the respective side walls of the groove by the first part.
A recombinant binding protein comprising an ankyrin repeat domain, wherein the ankyrin domain binds VEGF-Axxx with a Kd below 10 7 M, for use in a method of inhibiting binding between VEGF-Axxx and VEGFR-2, wherein said recombinant binding protein is to be administered to a patient in need of such inhibition at a frequency between 8 weeks and 16 weeks, at a dose of 1 mg to 4 mg, wherein the use is for treating age-related macular degeneration, diabetic macular edema, pathological myopia, branch retinal vein occlusion, or central retinal vein occlusion in a patient having that condition, wherein the patient is refractory to ranibizumab, bevacizumab, aflibercept, or pegaptanib therapy.
An optical interconnection device for establishing evanescent optical coupling between an array of optical waveguides and an array of optical fibers, comprising: a planar lightwave circuit having a surface and supporting the array of optical waveguides, wherein the array has first and second sides; an adapter having an interior, spaced apart first and second tabs and spaced apart first and second arms each having a first guide feature, wherein the first and second tabs of the adapter are attached to the surface of the planar lightwave circuit adjacent and outboard of the first and second sides of the array of waveguides; a stop fixture comprising a recess with an inside edge, the stop fixture being attached to the surface of the planar lightwave circuit and within the interior of the adapter and relative to the optical waveguide array, with the recess defining an alignment surface. a planar lightwave circuit having a surface and supporting the array of optical waveguides, wherein the array has first and second sides; an adapter having an interior, spaced apart first and second tabs and spaced apart first and second arms each having a first guide feature, wherein the first and second tabs of the adapter are attached to the surface of the planar lightwave circuit adjacent and outboard of the first and second sides of the array of waveguides; a stop fixture comprising a recess with an inside edge, the stop fixture being attached to the surface of the planar lightwave circuit and within the interior of the adapter and relative to the optical waveguide array, with the recess defining an alignment surface.
A method for establishing a label switched path comprising: receiving a Path message sent by a source node to a sink node, wherein the Path message carries bandwidth request information including a plurality of availability parameters and a plurality of requested bandwidths under the plurality of availability parameters respectively, wherein each of the plurality of availability parameters is a time scale that the corresponding requested bandwidth is ensured; comparing each of the plurality of requested bandwidths with a respective remaining bandwidth under the availability parameter corresponding to the requested bandwidth; and reserving the plurality of requested bandwidths if each of the plurality of requested bandwidths is smaller than or equal to the respective remaining bandwidth.
A method for producing a transfer structure, the method comprising: a step of forming a film of a silane coupling agent having a biphenylalkyl chain represented by the following formula on a surface of a matrix having a transfer pattern formed on the surface thereof, wherein in the step of forming the film of the silane coupling agent, a liquid containing the silane coupling agent is applied on the surface of the matrix having the transfer pattern formed thereon, a heating treatment is subsequently carried out, and before or after the heating treatment, the surface of the matrix on which the liquid containing the silane coupling agent has been applied is rinsed; a step of applying a transfer-receiving material on the surface of the matrix having the film of the silane coupling agent formed thereon, thereby transferring the pattern on the surface of the matrix; and a step of detaching the transfer-receiving material from the matrix to obtain a transfer structure formed of the transfer-receiving material: wherein in formula, n represents an integer of 8, 10, 12 or 14; m represents an integer of 3 or 4; and X, Y and Z each independently represent a hydrolyzable group that is a methoxy group, an ethoxy group, a propoxy group, an isopropoxy group, or a halogen atom. a step of forming a film of a silane coupling agent having a biphenylalkyl chain represented by the following formula on a surface of a matrix having a transfer pattern formed on the surface thereof, wherein in the step of forming the film of the silane coupling agent, a liquid containing the silane coupling agent is applied on the surface of the matrix having the transfer pattern formed thereon, a heating treatment is subsequently carried out, and before or after the heating treatment, the surface of the matrix on which the liquid containing the silane coupling agent has been applied is rinsed; a step of applying a transfer-receiving material on the surface of the matrix having the film of the silane coupling agent formed thereon, thereby transferring the pattern on the surface of the matrix; and a step of detaching the transfer-receiving material from the matrix to obtain a transfer structure formed of the transfer-receiving material: wherein in formula, n represents an integer of 8, 10, 12 or 14; m represents an integer of 3 or 4; and X, Y and Z each independently represent a hydrolyzable group that is a methoxy group, an ethoxy group, a propoxy group, an isopropoxy group, or a halogen atom.
Method for refining pork meat without additional addition of salt, wherein at least one microorganism from the group consisting of: Penicillium nalgiovense, Penicillium chrysogenum, Penicillium gladioli, Penicillium camemberti, Thamnidium elegans is added for ageing of the meat, wherein the meat is aged on the bone and is stored in a temperature range between 0.1°C and 12°C, wherein the meat is stored at a relative humidity of air between 50% and 100%, and wherein the meat is stored for a time period between 11 and 100 days. Penicillium nalgiovense, Penicillium chrysogenum, Penicillium gladioli, Penicillium camemberti, Thamnidium elegans is added for ageing of the meat, wherein the meat is aged on the bone and is stored in a temperature range between 0.1°C and 12°C, wherein the meat is stored at a relative humidity of air between 50% and 100%, and wherein the meat is stored for a time period between 11 and 100 days.
A method of manufacturing a wind turbine blade including a spar and an additional elongate web, the method comprising: providing a spar (8, 8'), wherein the spar is formed by winding a length of fibre around a mandrel or the spar is formed from four discrete components comprising a leading edge web, a trailing edge web, a windward cap and a leeward cap; forming a recess in the outer surface of the spar (8, 8'); and attaching one end of an additional elongate web within the recess of the spar (8, 8'). providing a spar (8, 8'), wherein the spar is formed by winding a length of fibre around a mandrel or the spar is formed from four discrete components comprising a leading edge web, a trailing edge web, a windward cap and a leeward cap; forming a recess in the outer surface of the spar (8, 8'); and attaching one end of an additional elongate web within the recess of the spar (8, 8').
A reactor for solid ammonium salt, the reactor comprising: a first chamber having an exhaust and a first heating element, solid ammonium salt being in the first chamber; and a second chamber having a second heating element formed at a side of the first chamber, the first chamber being connected with the second chamber, solid ammonium salt being in the second chamber, and an amount of the solid ammonium salt in the second chamber is more than that in the first chamber, so that the first chamber is heated and cooled faster than the second chamber, characterized in that the second chamber is formed as a replaceable solid ammonium salt cartridge, and the second chamber is directly connected only to the first chamber through a connecting portion so that an ammonia gas generated from the second chamber is provided only to the first chamber, and the ammonia gas is provided to an ammonia dosing module only from the first chamber. a first chamber having an exhaust and a first heating element, solid ammonium salt being in the first chamber; and a second chamber having a second heating element formed at a side of the first chamber, the first chamber being connected with the second chamber, solid ammonium salt being in the second chamber, and an amount of the solid ammonium salt in the second chamber is more than that in the first chamber, so that the first chamber is heated and cooled faster than the second chamber, characterized in that the second chamber is formed as a replaceable solid ammonium salt cartridge, and the second chamber is directly connected only to the first chamber through a connecting portion so that an ammonia gas generated from the second chamber is provided only to the first chamber, and the ammonia gas is provided to an ammonia dosing module only from the first chamber.