mhurhangee/ep-ind-claims huggingface dataset:
A method for wireless communication, comprising: receiving a condensed quality metric comprising a reference quality metric and at least one differential quality metric, wherein the reference quality metric corresponds to a quality metric of the first decoded data stream of a plurality of data streams (411...414), and wherein each of the at least one differential quality metric is indicative of the difference between the reference quality metric and the quality metric of a successively decoded data stream; determining a quality metric for each of the plurality of data streams (411...414) based on the condensed quality metric; determining a data rate for each of the plurality of data streams (411... 414) based on the quality metric for the data stream; permuting the plurality of data streams (411...414) to obtain a plurality of permuted data streams (421...424); and transmitting the plurality of permuted data streams (421...424) via a plurality of antennas (431...434). receiving a condensed quality metric comprising a reference quality metric and at least one differential quality metric, wherein the reference quality metric corresponds to a quality metric of the first decoded data stream of a plurality of data streams (411...414), and wherein each of the at least one differential quality metric is indicative of the difference between the reference quality metric and the quality metric of a successively decoded data stream; determining a quality metric for each of the plurality of data streams (411...414) based on the condensed quality metric; determining a data rate for each of the plurality of data streams (411... 414) based on the quality metric for the data stream; permuting the plurality of data streams (411...414) to obtain a plurality of permuted data streams (421...424); and transmitting the plurality of permuted data streams (421...424) via a plurality of antennas (431...434).
A method for operating a mobile network adapted for implementing one or more network slices, the method comprising: - establishing at least one network slice configuration; - providing, to a customer node, at least one network slice instance, the at least one network slice instance being an instance of one of the network slices and being defined by the at least one network slice configuration; - receiving, from the customer node, a configuration request that indicates a request for identification of the at least one network slice configuration which defines the at least one network slice instance being provided to the customer node; characterized in that the method comprises: - providing a mapping from a set of network slice configurations to a set of network slice configuration identifiers, wherein the mapping comprises respectively computing a hash value of the mapped network slice configurations; - determining a network slice configuration identifier for the at least one network slice configuration by applying the mapping to the at least one network slice configuration; and - providing the at least one network slice configuration identifier to the customer node. - establishing at least one network slice configuration; - providing, to a customer node, at least one network slice instance, the at least one network slice instance being an instance of one of the network slices and being defined by the at least one network slice configuration; - receiving, from the customer node, a configuration request that indicates a request for identification of the at least one network slice configuration which defines the at least one network slice instance being provided to the customer node; - providing a mapping from a set of network slice configurations to a set of network slice configuration identifiers, wherein the mapping comprises respectively computing a hash value of the mapped network slice configurations; - determining a network slice configuration identifier for the at least one network slice configuration by applying the mapping to the at least one network slice configuration; and - providing the at least one network slice configuration identifier to the customer node.
A method to store energy, the method comprising: (a) providing a phase change material, having a melting point of at least 500 °C, in a container (1, 101); (b) heating the phase change material to cause at least a portion thereof to melt and so store heat therein; (c) storing the phase change material for a period of time being at least one minute; (d) using at least a portion of heat from the phase change material as a power source, wherein the portion of heat is used to heat at least one of water and steam in a steam generator (5, 105) to form a higher temperature stream of at least one of water and steam and the higher temperature stream is used as the power source, and wherein the higher temperature stream from the steam generator is directed to a secondary steam generator (8, 108) where relatively cold water/steam is added to the higher temperature stream from the steam generator in order to provide a combined stream of steam of an intermediate temperature, and (e) moving the container and the phase change material from a first location to a second location, the first and second locations being spaced apart by at least 10 metres. (a) providing a phase change material, having a melting point of at least 500 °C, in a container (1, 101); (b) heating the phase change material to cause at least a portion thereof to melt and so store heat therein; (c) storing the phase change material for a period of time being at least one minute; (d) using at least a portion of heat from the phase change material as a power source, wherein the portion of heat is used to heat at least one of water and steam in a steam generator (5, 105) to form a higher temperature stream of at least one of water and steam and the higher temperature stream is used as the power source, and wherein the higher temperature stream from the steam generator is directed to a secondary steam generator (8, 108) where relatively cold water/steam is added to the higher temperature stream from the steam generator in order to provide a combined stream of steam of an intermediate temperature, and (e) moving the container and the phase change material from a first location to a second location, the first and second locations being spaced apart by at least 10 metres.
A multirotor aircraft having a fuselage that defines an internal volume adapted for transportation of passengers; the multirotor aircraft having a plurality of thrust producing units (3a, 3b, 3c, 3d) structurally connected to the fuselage; the multirotor aircraft being designed with a normal operating mode and with a failure operating mode; the multirotor aircraft has an aircraft operating structure (7a, 8x, 7b, 7c,8y, 7d, 14a) that is adapted for failure-free operation of the multirotor aircraft in the normal operating mode, and a redundant security architecture (8a, 7x, 8b, 8c, 7y, 8d, 14b) that is at least adapted for the failure operating mode of the multirotor aircraft in case of a failure of the aircraft operating structure (7a, 8x, 7b, 7c, 8y, 7d, 14a) in operation, characterized in that for the multirotor aircraft to be certificated for operation within urban areas, at least two thrust producing units comprise at least two rotor assemblies (7d, 8d) structurally connected to the fuselage specifically by a structural support (4a, 4b, 4c, 4d), each one of the at least two rotor assemblies (7d, 8d) defining an associated rotor plane (21, 22), a first one of the at least two rotor assemblies being associated with the aircraft operating structure (7a, 8x, 7b, 7c, 8y, 7d, 14a) for failure-free operation and a second one of the at least two rotor assemblies being associated with the redundant security architecture (8a, 7x, 8b, 8c, 7y, 8d, 14b) for the failure operating mode, at least one first engine being electrical and provided in the at least two thrust producing units (3a, 3x, 3b, 3c, 3y, 3d) for driving a first one of at least two rotor assemblies in operation, and at least one second engine being electrical and provided in the at least two thrust producing units (3a, 3x, 3b, 3c, 3y, 3d) for driving a second one of the at least two rotor assemblies at least in operation, the at least one first engine being associated with the aircraft operating structure (7a, 7b, 7c, 7d, 14a) and the at least one second engine being associated with the redundant security architecture (8a, 8b, 8c, 8d, 14b), the internal volume of the fuselage of the multirotor aircraft having an energy storage system; the energy storage system being electrical and comprising at least two electrical energy providing units (25a, 25b, 25c, 25d); and at least a first one of the at least two electrical energy providing units is connected to the at least one first engine for providing energy to the at least one first engine in operation, and at least a second one of the at least two electrical energy providing units is connected to the at least one second engine for providing energy to the at least one second engine in operation.
Brush seal arrangement for a turbomachine, comprising at least a stator, a rotor and a brush seal, the brush seal comprising at least one brush element and a ring for receiving the brush element, the brush seal arrangement sealing a gap between the stator and the rotor, and the ring being connected to the stator by means of a press fit, the ring having a first material with a first coefficient of thermal expansion (α 1), and at least one portion of the stator for receiving the ring having a second material with a second coefficient of thermal expansion (α 2) characterized in that the first material has a first coefficient of thermal expansion (α 1) greater than or equal to 10 x 10-6 per Kelvin in a temperature range between at least 20 degrees Celsius and 400 degrees Celsius, and the second material has a second coefficient of thermal expansion (α 2) of less than 10 x 10-6 per Kelvin in a temperature range between at least 20 degrees Celsius and 90 degrees Celsius.
A system comprising: a managed memory have a plurality of managed memory portions, each corresponding to a managed computing entity; an immutable buffer located outside of the managed memory, wherein a particular managed memory portion of the plurality of managed memory portions includes one or more garbage collectable objects that are accessible to the corresponding particular managed computing entity, but not to the other computing entities, the particular managed memory portion also including one or more references to the immutable buffer; and a garbage collection component configured to manage the one or more garbage collectable objects in the particular managed memory portion, but also configured to not perform any actions on the one or more references to the immutable buffer. a managed memory have a plurality of managed memory portions, each corresponding to a managed computing entity; an immutable buffer located outside of the managed memory, wherein a particular managed memory portion of the plurality of managed memory portions includes one or more garbage collectable objects that are accessible to the corresponding particular managed computing entity, but not to the other computing entities, the particular managed memory portion also including one or more references to the immutable buffer; and a garbage collection component configured to manage the one or more garbage collectable objects in the particular managed memory portion, but also configured to not perform any actions on the one or more references to the immutable buffer.
A process for forming a polymer crumb comprising residues of 5 -amino-2-(p-aminophenyl)benzimidazole (DAPBI), paraphenylene diamine, and terephthaloyl dichloride, comprising the steps of: a) forming a slurry of b mole percent DAPBI and y mole percent PPD in a solvent system comprising organic solvent and c weight percent of an inorganic salt, wherein the inorganic salt is present in an amount of at least 5 weight percent of the organic solvent, DAPBI and PPD being present in an amount sufficient for providing a polymer solution having a weight percent solids of 12 percent or greater on a polymer basis; and b) contacting the slurry of step a) with a stoichiometric amount of terephthaloyl dichloride to form a product comprising said polymer wherein the sum of y + b is 100 and the product of b x c is 225 or greater. a) forming a slurry of b mole percent DAPBI and y mole percent PPD in a solvent system comprising organic solvent and c weight percent of an inorganic salt, wherein the inorganic salt is present in an amount of at least 5 weight percent of the organic solvent, DAPBI and PPD being present in an amount sufficient for providing a polymer solution having a weight percent solids of 12 percent or greater on a polymer basis; and b) contacting the slurry of step a) with a stoichiometric amount of terephthaloyl dichloride to form a product comprising said polymer
System for determining knife usage in an infeed cutter, said system comprising: the infeed cutter with a cutter rotor and a knife drawer with a plurality of knives extending through said knife drawer, said cutter rotor being mounted above said knife drawer such that a cutting zone for crop material is defined; a measuring device configured to measure a quantity which is representative for the couple exerted by the cutter rotor on the crop material going through the cutting zone of the infeed cutter; a controller configured to control said measuring device for measuring values for said quantity at consecutive moments in time; a knife usage determining module configured to determine knife usage based on said measured values; characterised in that the system further comprising a pre-compression chamber for storing crop material that has passed through the cutting zone, and a stuffer adapted for moving the crop material to a bale chamber upon completion of a loading cycle of the pre-compression chamber; in that the controller is configured to control said measuring device for measuring a value for the quantity at a determined moment of the loading cycle, for consecutive loading cycles; and in that the knife usage determining module is configured for determining knife usage based on said measured values for consecutive loading cycles. the infeed cutter with a cutter rotor and a knife drawer with a plurality of knives extending through said knife drawer, said cutter rotor being mounted above said knife drawer such that a cutting zone for crop material is defined; a measuring device configured to measure a quantity which is representative for the couple exerted by the cutter rotor on the crop material going through the cutting zone of the infeed cutter; a controller configured to control said measuring device for measuring values for said quantity at consecutive moments in time; a knife usage determining module configured to determine knife usage based on said measured values; characterised in that the system further comprising a pre-compression chamber for storing crop material that has passed through the cutting zone, and a stuffer adapted for moving the crop material to a bale chamber upon completion of a loading cycle of the pre-compression chamber; in that the controller is configured to control said measuring device for measuring a value for the quantity at a determined moment of the loading cycle, for consecutive loading cycles; and in that the knife usage determining module is configured for determining knife usage based on said measured values for consecutive loading cycles.
A lead-acid battery comprising at least one capacitor electrode (23, 25), the capacitor electrode (23, 25), comprising: - a lead-based current collector; and - capacitor active material disposed on the current collector, the capacitor active material comprising: - a high surface area carbon capacitive material, wherein the high surface area carbon capacitive material is activated carbon having a surface area greater than 2000 m 2 /g; - a conductive additive, which is a conductive carbon material having a lower surface area than the activated carbon, wherein the conductive carbon material is a carbon black having a surface area less than 100 m 2 /g; - a graphite extender; and - carbon fibers treated with a non-ionic surfactant which is adsorbed onto the carbon fibers to form surface-modified carbon fibers. - a lead-based current collector; and - capacitor active material disposed on the current collector, the capacitor active material comprising: - a high surface area carbon capacitive material, wherein the high surface area carbon capacitive material is activated carbon having a surface area greater than 2000 m 2 /g; - a conductive additive, which is a conductive carbon material having a lower surface area than the activated carbon, wherein the conductive carbon material is a carbon black having a surface area less than 100 m 2 /g; - a graphite extender; and - carbon fibers treated with a non-ionic surfactant which is adsorbed onto the carbon fibers to form surface-modified carbon fibers. - a high surface area carbon capacitive material, wherein the high surface area carbon capacitive material is activated carbon having a surface area greater than 2000 m 2 /g; - a conductive additive, which is a conductive carbon material having a lower surface area than the activated carbon, wherein the conductive carbon material is a carbon black having a surface area less than 100 m 2 /g; - a graphite extender; and - carbon fibers treated with a non-ionic surfactant which is adsorbed onto the carbon fibers to form surface-modified carbon fibers.
A device for active depth sensing, comprising: a first aperture configured to receive light propagated along a first optical path; a second aperture configured to receive light propagated along a second optical path; a first emitter configured to emit a first light; and an optical element configured to direct the first light from the first emitter towards the first optical path in a first optical element mode, wherein the first light from the first emitter is directed towards the second optical path in a second OE mode. a first aperture configured to receive light propagated along a first optical path; a second aperture configured to receive light propagated along a second optical path; a first emitter configured to emit a first light; and an optical element configured to direct the first light from the first emitter towards the first optical path in a first optical element mode, wherein the first light from the first emitter is directed towards the second optical path in a second OE mode.
A friction material for a disc brake pad, which is manufactured by forming a non-asbestos-organic friction material composition including no copper component, characterized in that said friction material composition includes no titanate, but includes (a) 8 - 15 volume % of an inorganic friction modifier having an average particle diameter of 0.5 - 20 μ m and the Mohs hardness of 5 - 8 relative to a total amount of the friction material composition, (b) 1 - 3 volume % of a porous inorganic friction modifier having a micro-porous structure relative to the total amount of the friction material composition, and (c) 5 - 10 volume % of a carbonaceous lubricant, where said carbonaceous lubricant includes 2 - 4 volume % of coke relative to the total amount of the friction material composition, and an average particle diameter of coke is 300 - 800 μ m while the content of the inorganic friction modifier (a), (b), and the carbonaceous lubricant (c) satisfies a following formula: 1.0 ≦ ((a) + (b)) / (c) ≦ 2.5, wherein the inorganic friction modifier (a) having an average particle diameter of 0.5 - 20 μm and the Mohs hardness of 5 - 8 is one or more selected from the group consisting of a magnesium oxide, a triiron tetroxide, a zirconium silicate, and a zirconium oxide, and wherein the porous inorganic friction modifier (b) is one or both of the group consisting of a zeolite and a micro-porous alumina.
A pumpable fat composition comprising: - a medium chain fatty acid (MCFA)-rich composition; and - lecithin, in a weight ratio of 20:80 to 80:20, and wherein the MCFA-rich composition comprise 90% or more, by weight, free fatty acids (FFAs). - a medium chain fatty acid (MCFA)-rich composition; and - lecithin, in a weight ratio of 20:80 to 80:20, and wherein the MCFA-rich composition comprise 90% or more, by weight, free fatty acids (FFAs).
A processor implemented method comprising: detecting, by a movement detector, a set of vibration frequencies, each vibration frequency in the set of vibration frequencies corresponding to a vibrating part from a plurality of vibrating parts in a machine under inspection in a field of view of the movement detector, each of the plurality of vibrating parts having a pre-defined marker for tracking the vibrating part associated thereof; and initiating, by a stroboscope, strobing at each vibration frequency from the set of vibration frequencies, starting at a first detected vibration frequency, the step of strobing at each vibration frequency comprising: recording an output of the stroboscope in the form of a video having a pre-determined length; and extracting from the video, at least one frame having a vibrating part corresponding to an associated vibration frequency, and mapping each vibration frequency detected by the movement detector to a corresponding vibrating part using the pre-defined marker. detecting, by a movement detector, a set of vibration frequencies, each vibration frequency in the set of vibration frequencies corresponding to a vibrating part from a plurality of vibrating parts in a machine under inspection in a field of view of the movement detector, each of the plurality of vibrating parts having a pre-defined marker for tracking the vibrating part associated thereof; and initiating, by a stroboscope, strobing at each vibration frequency from the set of vibration frequencies, starting at a first detected vibration frequency, the step of strobing at each vibration frequency comprising: recording an output of the stroboscope in the form of a video having a pre-determined length; and extracting from the video, at least one frame having a vibrating part corresponding to an associated vibration frequency, and mapping each vibration frequency detected by the movement detector to a corresponding vibrating part using the pre-defined marker. recording an output of the stroboscope in the form of a video having a pre-determined length; and extracting from the video, at least one frame having a vibrating part corresponding to an associated vibration frequency, and mapping each vibration frequency detected by the movement detector to a corresponding vibrating part using the pre-defined marker.
Weighing module (51A, 51B) with a force-measuring cell (52, 52A, 52B, 152), suitably designed for installation in a receiving structure with a plurality of weighing modules (51A, 51B) of the same type, wherein within said receiving structure each weighing modules (51A, 51B) occupies a design space (54A, 54B) whose dimensions, projected into a plane that extends orthogonal to the direction of the load, are delimited by the design spaces (54A, 54B) of neighboring force-measuring cells (52, 52A, 52B, 152) and/or correspond to the largest dimension of the force-measuring cell (52, 52A, 52B, 152) in said plane, wherein each force-measuring cell (52, 52A, 52B, 152) comprises a calibration weight arrangement with at least one calibration weight (303, 303A, 303B) which can be coupled to the force-measuring cell (52, 52A, 52B, 152), wherein the calibration weight arrangement further comprises a drive mechanism and a transfer mechanism for the guided movement of the calibration weight (303, 303A, 303B), the transfer mechanism comprises a lifting element (123, 423), a calibration weight seat (314, 314A, 314B) and a guiding device, wherein the drive mechanism includes an actuator and at least one piezoelectric element driving the actuator, and wherein the actuator interacts through the repeated engagement and release of a frictional contact force which occurs during the travel movement in one direction.