mhurhangee/ep-ind-claims huggingface dataset:
Support assembly for a trailer coupling or a load carrier, including a cross-member (11; 111; 211; 311) and with side members (12, 112; 212; 312) connected to the cross-member (11; 111; 211; 311) for fitting to a rear of a body of a vehicle, together with at least one holder (15; 215; 315) fitted to the cross-member (11; 111; 211; 311) for a trailer coupling or for a coupling part of a load carrier, wherein the support assembly (10; 110; 210; 310) has at least one carrier part, with a base body (16; 116; 216, 316) which has a bearing wall and a rib structure (30; 230; 330) moulded integrally to the bearing wall by a primary shaping process, in particular by a casting process, and/or a forming process, in particular by extrusion and/or by forging, wherein the carrier part forms part of the cross-member (11; 111; 211; 311) and extends up to the transverse centre of the cross-member (11; 111; 211; 311), wherein the base body (16; 116; 216, 316) has at least one integrally moulded mounting element, in particular a through hole or a mounting projection, for attaching to the vehicle, characterised in that the holder or holders (15; 215; 315) forms or form a structural component for reinforcing the cross-member (11; 111; 211; 311).
A blockchain-based transaction method, comprising: invoking, by a client device of a transaction party, a smart contract in a blockchain system to register a digital identity for a digital asset in the blockchain system, wherein a digital identity document of the digital asset comprises an owner identity of the digital asset; respectively invoking, by a client device of one or more transaction counterparties, the smart contract in the blockchain system to execute a transaction request; and invoking, based on said transaction request, the smart contract in the blockchain system to perform a transaction completion step, determining a new owner of the digital asset based on a result of transaction completion, and updating the owner identity of the digital asset comprised in the digital identity document. invoking, by a client device of a transaction party, a smart contract in a blockchain system to register a digital identity for a digital asset in the blockchain system, wherein a digital identity document of the digital asset comprises an owner identity of the digital asset; respectively invoking, by a client device of one or more transaction counterparties, the smart contract in the blockchain system to execute a transaction request; and invoking, based on said transaction request, the smart contract in the blockchain system to perform a transaction completion step, determining a new owner of the digital asset based on a result of transaction completion, and updating the owner identity of the digital asset comprised in the digital identity document.
Method of controlling two power components (T1, T2) mounted in a half-bridge to generate an alternating electric current in an inductor, comprising a step of driving said two power components (T1, T2) with a frequency control signal configured to alternately set the two power components (T1, T2) respectively in a conducting state and a non-conducting state, characterized in that it comprises a step of extinguishing said alternating electric current generated in the inductor, in which one of said two power components (T1; T2) is maintained in a conducting state and the other of said two power components (T2; T1) is maintained in a non-conducting state by said frequency control signal, said frequency control signal being a signal alternating between a high state and a low state, said frequency control signal being maintained in a state chosen indiscriminately between the high state and the low state in the step of extinguishing said alternating electric current.
A method of manufacturing a rocket propellant comprising combining at least two hydrocarbon fluids, wherein at least one of the at least two hydrocarbon fluids contains more than 60 wt.% of isoparaffins, wherein the rocket propellant meets RP-1 specifications as reported by the United States Defense Department Specification MIL-DTL-25576E, dated April 14, 2006.
A method for producing an edge strip for the coating of narrow surfaces of panel-shaped workpieces, in particular furniture panels, with at least one front-side cover layer and one rear-side melt layer for fixing the edge strip to the workpiece, wherein hollow microspheres consisting of a plastic casing filled with a gas are added to a thermoplastic base plastic and a melt layer is created from this starting mixture and applied onto the cover layer, wherein non-expanded hollow microspheres are added to the base plastic, which expand in the course of creating the melt layer.
Plant for handling cardboard reels for feeding tube-forming machines, comprising a reel pick-up station for superimposed cardboard reels, a station for unwinding the reels comprising at least an unwinding unit adapted to support the reels to be unwound in a position which favors their unwinding, in the unwinding station being also provided splice means configured to splice a tail portion of a running out reel with a new reel to continuously unwind the reels progressively arranged in the unwinding station, and handling means for moving the reels along a path comprised between the reel pick-up station and the unwinding station, wherein said at least one unwinding unit comprises a plurality of supports (403; 404) mounted on a structure that is controlled and moved by control means for cyclically arranging said supports in correspondence with a plurality of operating positions that include a predetermined position for loading the reels on the supports and a different predetermined position of exhaustion of the reels, in that said reel pick-up station is configured to receive a stack of superimposed cardboard reels, and wherein said means for handling the reels are configured and controlled for picking up one reel at a time from the stack and move this reel from the pick-up station to a support (403; 404) of said at least one unwinding unit arranged in the loading position, characterized in that said structure is a carousel structure with a vertical axis.
Method for re-calculating a pattern to be exposed on a target by means of a charged-particle multi-beam writing apparatus, said apparatus exposing a multitude of pixels within an exposure region on the target to generate said pattern by means of a scanning stripe exposure where a structured beam composed of a plurality of beamlets is directed onto the target and moved along a path over the exposure region wherein between subsequent exposure steps the structured beam is shifted on the target by consecutive distances corresponding to an exposure length (L G) which is smaller than the width of the structured beam on the target, wherein the pattern (pll) initially comprises a number of pattern elements (t1, t2, t3, t0), wherein each pattern element has a respective shape comprising a boundary and an interior, and is associated with a respective assigned dose (D1, D2, D3) defining a value of exposure dose to be exposed for the pixels of the interior of the respective shape, wherein re-calculating of said pattern is done with regard to a nominal dose which represents a predefined standard value of exposure dose to be exposed for pixels of a maximal exposure as specified for the scanning stripe exposure within said charged-particle multi-beam writing apparatus, wherein, for at least one pattern element (t2, t3) associated with an assigned dose (D2, D3) deviating from the nominal dose, the pattern element is reshaped by determining a reshape distance (Δx E, f2, f3) from the value of the assigned dose (D2, D3) with regard to the nominal dose based on a predefined dose slope function (f DS), forming a reshaped pattern element (rt2, rt3), said reshaped pattern element having boundary segments which are offset with regard to the locations of corresponding boundary segments of the pattern element (t2, t3) by an offset distance equaling said reshape distance and in a direction perpendicular to the respective segments, and assigning the nominal dose to the reshaped pattern element, and replacing the pattern element (t2, t3) by the reshaped pattern element (rt2, rt3), and a reshaped pattern is generated from the pattern by substituting the reshaped pattern elements for corresponding pattern elements. determining a reshape distance (Δx E, f2, f3) from the value of the assigned dose (D2, D3) with regard to the nominal dose based on a predefined dose slope function (f DS), forming a reshaped pattern element (rt2, rt3), said reshaped pattern element having boundary segments which are offset with regard to the locations of corresponding boundary segments of the pattern element (t2, t3) by an offset distance equaling said reshape distance and in a direction perpendicular to the respective segments, and assigning the nominal dose to the reshaped pattern element, and replacing the pattern element (t2, t3) by the reshaped pattern element (rt2, rt3), and a reshaped pattern is generated from the pattern by substituting the reshaped pattern elements for corresponding pattern elements.
An optical sensor module comprising a substrate, a light source disposed on the substrate, a first encapsulant formed over the light source, a photodetector disposed on the substrate, a second encapsulant formed over the photodetector, and a partition coupled to the substrate and located between the light source and the photodetector, the optical sensor module being characterized in that: the first encapsulant and the second encapsulant are separated from the partition, each of the first encapsulant and the second encapsulant comprises a medial surface extended directly from the substrate respectively and facing the partition, at least the medial surface of the first encapsulant has an optical directional component, the optical directional component of the first encapsulant is configured as an inclined plane, the inclined plane defines a refraction interface refracting an incident light emitted by the light source, an inclined angle faces the light source and is formed between a top surface of the substrate and the medial surface of the first encapsulant, the inclined angle is more than 20 degrees and less than 90 degrees, the incident light emitted from the light source shed onto the refraction interface of the medial surface is more concentrated above the partition and less shed onto the partition, and the partition is configured for blocking a stray light directly from the light source to the photodetector. the first encapsulant and the second encapsulant are separated from the partition, each of the first encapsulant and the second encapsulant comprises a medial surface extended directly from the substrate respectively and facing the partition, at least the medial surface of the first encapsulant has an optical directional component, the optical directional component of the first encapsulant is configured as an inclined plane, the inclined plane defines a refraction interface refracting an incident light emitted by the light source, an inclined angle faces the light source and is formed between a top surface of the substrate and the medial surface of the first encapsulant, the inclined angle is more than 20 degrees and less than 90 degrees, the incident light emitted from the light source shed onto the refraction interface of the medial surface is more concentrated above the partition and less shed onto the partition, and the partition is configured for blocking a stray light directly from the light source to the photodetector.
An anode for a lithium secondary battery, comprising: an anode current collector; and an anode active material layer formed on the anode current collector, the anode active material layer comprising carbon-based active material particles and a silicon coating formed on surfaces of the carbon-based active material particles, wherein a surface content of silicon of the anode active material layer measured by an X-ray photoelectric spectroscopy is in a range from 3 atom% to 25 atom%, and a peak intensity ratio defined as a ratio of a second peak intensity corresponding to a peak intensity at a binding energy in a range from 102 eV to 106 eV relative to a first peak intensity corresponding to a peak intensity at a binding energy in a range from 98 eV to 102 eV is in a range from 0.05 to 1, wherein the first peak intensity is a Si peak intensity, and the second peak intensity is a Si-O peak measured according to the description. an anode current collector; and an anode active material layer formed on the anode current collector, the anode active material layer comprising carbon-based active material particles and a silicon coating formed on surfaces of the carbon-based active material particles, wherein a surface content of silicon of the anode active material layer measured by an X-ray photoelectric spectroscopy is in a range from 3 atom% to 25 atom%, and a peak intensity ratio defined as a ratio of a second peak intensity corresponding to a peak intensity at a binding energy in a range from 102 eV to 106 eV relative to a first peak intensity corresponding to a peak intensity at a binding energy in a range from 98 eV to 102 eV is in a range from 0.05 to 1, wherein the first peak intensity is a Si peak intensity, and the second peak intensity is a Si-O peak measured according to the description.
A bottomed cylindrical bottle formed of a synthetic resin material through biaxially oriented blow molding, comprising a bottom portion having a bottom wall portion wherein the bottom wall portion comprises: a ground portion disposed at an outer circumferential edge portion; a rising circumferential wall portion continuously extending upward so as to be connected to the ground portion from an inside in a bottle radial direction; a movable wall portion protruding from an upper end portion of the rising circumferential wall portion toward the inside in the bottle radial direction; characterized in that said bottom wall portion further comprises: a recessed circumferential wall portion having a diameter in the bottle radial direction such that the diameter gradually decreases in a direction from an inner end portion of the movable wall portion toward an upper side thereof; a connecting portion between the rising circumferential wall portion and the movable wall portion; and wherein an annular recess depressed upward is formed at the movable wall portion in a circumferential direction thereof, and a length D1 from the connecting portion to the annular recess in the bottle radial direction is larger than a length D2 from the annular recess to an inner edge portion of the recessed circumferential wall portion in the bottle radial direction. a ground portion disposed at an outer circumferential edge portion; a rising circumferential wall portion continuously extending upward so as to be connected to the ground portion from an inside in a bottle radial direction; a movable wall portion protruding from an upper end portion of the rising circumferential wall portion toward the inside in the bottle radial direction; a recessed circumferential wall portion having a diameter in the bottle radial direction such that the diameter gradually decreases in a direction from an inner end portion of the movable wall portion toward an upper side thereof; a connecting portion between the rising circumferential wall portion and the movable wall portion; and wherein an annular recess depressed upward is formed at the movable wall portion in a circumferential direction thereof, and a length D1 from the connecting portion to the annular recess in the bottle radial direction is larger than a length D2 from the annular recess to an inner edge portion of the recessed circumferential wall portion in the bottle radial direction.
A control module for a hydraulic system, the module comprising: a tank configured to store hydraulic fluid, wherein the tank is substantially cylindrical and comprises a longitudinal axis; a plurality of valves fluidly connected to the tank and configured to control distribution of hydraulic fluid from the tank to one or more components of the hydraulic system, wherein the plurality of valves are spaced around a circumference of the tank; and one or more passages fluidly connecting the tank with at least one of the plurality of valves and/or a first of the plurality of valves with a second of the plurality of valves, wherein the plurality of valves are located axially between first and second axial ends of the tank with respect to a longitudinal axis thereof, wherein the first axial end is opposite the second axial end in the direction of the longitudinal axis of the tank, wherein the control module further comprises a housing, wherein at least some of the plurality of valves are formed by portions of the housing, wherein the one or more passages are formed by and within the housing, wherein the housing is a single piece of material, characterised in that: the control module further comprises a plurality of feet (18; 118) configured to attach the control module to a surface, wherein some of the plurality of feet are positioned at the first axial end of the tank, and others of the plurality of feet are positioned at the second axial end of the tank; and the housing comprises an inner cylindrical surface forming part of the tank. a tank configured to store hydraulic fluid, wherein the tank is substantially cylindrical and comprises a longitudinal axis; a plurality of valves fluidly connected to the tank and configured to control distribution of hydraulic fluid from the tank to one or more components of the hydraulic system, wherein the plurality of valves are spaced around a circumference of the tank; and one or more passages fluidly connecting the tank with at least one of the plurality of valves and/or a first of the plurality of valves with a second of the plurality of valves, wherein the plurality of valves are located axially between first and second axial ends of the tank with respect to a longitudinal axis thereof, wherein the first axial end is opposite the second axial end in the direction of the longitudinal axis of the tank, wherein the control module further comprises a housing, wherein at least some of the plurality of valves are formed by portions of the housing, wherein the one or more passages are formed by and within the housing, wherein the housing is a single piece of material, the control module further comprises a plurality of feet (18; 118) configured to attach the control module to a surface, wherein some of the plurality of feet are positioned at the first axial end of the tank, and others of the plurality of feet are positioned at the second axial end of the tank; and the housing comprises an inner cylindrical surface forming part of the tank.
A room with a floor and a wall and a mounted furniture arrangement comprising at least one furniture item (15, 15a, 15b, 18) and at least one door arrangement, arranged laterally beside to the at least one furniture item (15, 15a, 15b, 18), the door arrangement comprising a support structure with a guide system that is independent of the wall and a door (11, 11') mounted pivotably and preferably releasably to the guide system, wherein the guide system has a closed position in which at least one furniture item (15, 15a, 15b, 18) can be covered at the front side, and a parked position into which the door (11, 11') is moveable, preferably slidably, by means of the guide system in a direction transversely relative to a front of the at least one furniture item (15, 15a, 15b, 18), preferably into a lateral receiving shaft of the guide system, wherein the support structure is a support structure that is separated from the furniture item (15, 15a, 15b, 18) to be covered and the guide system is mounted or arranged on the support structure that is separated from the furniture item (15, 15a, 15b, 18) to be covered, wherein the support structure comprises at least one support surface by which the support structure is supported on the floor of a room and/or at least one mounting device by means of which the support surface is mounted on the wall of the room, characterized in that the at least one furniture item (15, 15a, 15b, 18) is positioned directly adjacent to the wall of the room and/or mounted on the wall.
A device for determining the concentration of at least one gas in a sample gas flow by means of infrared absorption spectroscopy, comprising an analysis cell an infrared radiation source the radiation of which is adapted to be guided through an analysis cell, a sample gas flow which is adapted to be conducted into said analysis cell and out of said analysis cell via a delivery line, a detector via which an absorption spectrum arising in said analysis cell is adapted to be measured, a suction jet pump which is arranged downstream of said analysis cell and via which a sample gas is adapted to be fed through said analysis cell and said delivery line, characterized in that a regulating valve designed as a proportional valve is arranged in a propellant gas line leading to a propellant gas connection of the suction jet pump, which regulating valve regulates a propellant pressure in the propellant gas line exclusively as a direct function of the pressure in the delivery line downstream of the analysis cell or of the pressure in the analysis cell in such a way that a constant setpoint value of the pressure in the delivery line downstream of the analysis cell or in the analysis cell is established. an analysis cell an infrared radiation source the radiation of which is adapted to be guided through an analysis cell, a sample gas flow which is adapted to be conducted into said analysis cell and out of said analysis cell via a delivery line, a detector via which an absorption spectrum arising in said analysis cell is adapted to be measured, a suction jet pump which is arranged downstream of said analysis cell and via which a sample gas is adapted to be fed through said analysis cell and said delivery line, characterized in that a regulating valve designed as a proportional valve is arranged in a propellant gas line leading to a propellant gas connection of the suction jet pump, which regulating valve regulates a propellant pressure in the propellant gas line exclusively as a direct function of the pressure in the delivery line downstream of the analysis cell or of the pressure in the analysis cell in such a way that a constant setpoint value of the pressure in the delivery line downstream of the analysis cell or in the analysis cell is established.
A sound absorber for a motor vehicle, consisting of two interconnected non-woven fabrics (1,2) bonded through thermoplastic and/or thermoset materials and having a total thickness of the sound absorber within a range of from 15 to 25 mm and a total weight per surface area of the sound absorber within a range of from 1 to 2,5 kg/m 2, wherein the non-woven fabric facing towards the sound-emitting source of the motor vehicle has a layer thickness within a range of from 3 to 10 mm, a density within a range of from 50 to 300 kg/m 3, a weight per surface area within a range of from 0.2 to 2 kg/m 2, and a flow resistance within a range of from 70 to 500 kNs/m 4, and the non-woven fabric facing away from the sound-emitting source has a layer thickness within a range of from 12 to 20 mm, a density within a range of from 30 to 70 kg/m 3, a weight per surface area within a range of from 0.5 to 1 kg/m 2, and a flow resistance within a range of from 15 to 30 kNs/m 4, and the ratio of the densities of the non-woven fabric to the non-woven fabric is from 3:1 to 6:1.