mhurhangee/ep-ind-claims huggingface dataset:
Electrochemical system including: ∘ a fuel cell, including an inlet manifold (Ce) and an outlet manifold (Cs) that are capable of ensuring the flow of one and the same supply fluid through the fuel cell; ∘ an electrical load, electrically connected to the fuel cell, and capable of imposing an electric current value to be delivered on the fuel cell; ∘ a tank for said supply fluid, connected to the inlet manifold (Ce) via a fluid supply line (La); ∘ a recirculation loop, including an ejector, which ejector is arranged on said fluid supply line (La), and a fluid recirculation line (Lrc) that connects the outlet manifold (Cs) to the ejector; ∘ a pressure regulator, arranged on the fluid supply line (La), between the tank and the ejector, and capable of regulating the pressure and the molar flow rate of the supply fluid according to a setpoint value (P1 sp); ∘ a pressure sensor, capable of measuring what is termed an inlet pressure of the supply fluid at the inlet of the fuel cell; ∘ a first device for regulating the inlet pressure; characterized in that the first regulating device is capable of transmitting a control signal (I cm) to the electrical load in order to decrease or to increase the imposed value of the electric current to be delivered by the fuel cell according to a difference in pressure (ΔP2) between a measured value of the inlet pressure from the pressure sensor and a predetermined setpoint value (P2 sp), and in that it includes: ∘ a second regulating device, including an electric current sensor that is electrically connected to the fuel cell, a comparator that is capable of calculating a difference in current (ΔI) between a measured electric current value from the electric current sensor and a predetermined setpoint value (I sp), and a corrector that is capable of transmitting, to the pressure regulator, a control signal (P1 cm) for modifying the setpoint value (P1 sp) of the pressure according to the calculated difference in electric current (ΔI). ∘ a fuel cell, including an inlet manifold (Ce) and an outlet manifold (Cs) that are capable of ensuring the flow of one and the same supply fluid through the fuel cell; ∘ an electrical load, electrically connected to the fuel cell, and capable of imposing an electric current value to be delivered on the fuel cell; ∘ a tank for said supply fluid, connected to the inlet manifold (Ce) via a fluid supply line (La); ∘ a recirculation loop, including an ejector, which ejector is arranged on said fluid supply line (La), and a fluid recirculation line (Lrc) that connects the outlet manifold (Cs) to the ejector; ∘ a pressure regulator, arranged on the fluid supply line (La), between the tank and the ejector, and capable of regulating the pressure and the molar flow rate of the supply fluid according to a setpoint value (P1 sp); ∘ a pressure sensor, capable of measuring what is termed an inlet pressure of the supply fluid at the inlet of the fuel cell; ∘ a first device for regulating the inlet pressure;
A light emitting structure, comprising: at least one light emitting element arranged in a transparent dielectric material, the light emitting element comprising: a plurality of gallium nitride, GaN, semiconductor nanostructures (110, 410, 510) arranged in the transparent dielectric material; a coalesced epitaxial layer coupled to the plurality of GaN semiconductor nanostructures arranged in the transparent dielectric material; a well layer on m-plane facets of the plurality of semiconductor structures; a capping layer on the well layer; and a contact layer coupled to the at least one light emitting element, wherein the plurality of GaN semiconductor nanostructures are arranged in the transparent dielectric material forming a crystallographic m-plane display orientation that is different from a c-plane growth orientation of the plurality of GaN semiconductor nanostructures grown on a c-plane film on a host substrate, and wherein the coalesced epitaxial layer has the crystallographic m-plane display orientation of the plurality of semiconductor nanostructures and supports the at least one light emitting element. a plurality of gallium nitride, GaN, semiconductor nanostructures (110, 410, 510) arranged in the transparent dielectric material; a coalesced epitaxial layer coupled to the plurality of GaN semiconductor nanostructures arranged in the transparent dielectric material; a well layer on m-plane facets of the plurality of semiconductor structures; a capping layer on the well layer; and a contact layer coupled to the at least one light emitting element, wherein the plurality of GaN semiconductor nanostructures are arranged in the transparent dielectric material forming a crystallographic m-plane display orientation that is different from a c-plane growth orientation of the plurality of GaN semiconductor nanostructures grown on a c-plane film on a host substrate, and wherein the coalesced epitaxial layer has the crystallographic m-plane display orientation of the plurality of semiconductor nanostructures and supports the at least one light emitting element.
A private data management method, comprising the steps of: a) receiving, by a private data management application installed in a user terminal, a driving signal; b) determining, by the private data management application, whether a data distribution selection signal is applied; c) determining, by the private data management application, whether a specific data is selected; d) requesting, by the private data management application, data transmission target information to a data management server; e) randomly extracting, by the data management server, a predetermined number of identification information from an identification information pool of storage target terminals and providing, by the data management server, the data transmission target information to the private data management application; f) partitioning, by the private data management application, data selected by the user into a predetermined number of data and processing the partitioned data; and g) transmitting the respective partitioned data while arbitrarily matching the partitioned data to a data transmission target terminal. a) receiving, by a private data management application installed in a user terminal, a driving signal; b) determining, by the private data management application, whether a data distribution selection signal is applied; c) determining, by the private data management application, whether a specific data is selected; d) requesting, by the private data management application, data transmission target information to a data management server; e) randomly extracting, by the data management server, a predetermined number of identification information from an identification information pool of storage target terminals and providing, by the data management server, the data transmission target information to the private data management application; f) partitioning, by the private data management application, data selected by the user into a predetermined number of data and processing the partitioned data; and g) transmitting the respective partitioned data while arbitrarily matching the partitioned data to a data transmission target terminal.
A mixing chamber for two fluid constituents comprising: a first flow inlet (34; 72) for a first fluid constituent; and a second flow inlet for a second fluid constituent; characterised by: a diffuser (40; 140; 240; 76) positioned in said first flow inlet for dividing flow of said first fluid constituent into a plurality of flow streams; a sleeve (44; 78) surrounding said diffuser, said sleeve being in flow communication with said second flow inlet for a flow of said second fluid constituent to be arranged in a flow pattern which surrounds said sleeve; and a mixing pocket (50; 80) constructed and arranged for receiving said plurality of flow streams of said first fluid constituent from said diffuser and said second fluid constituent from said flow pattern surrounding said sleeve. a first flow inlet (34; 72) for a first fluid constituent; and a second flow inlet for a second fluid constituent; characterised by: a diffuser (40; 140; 240; 76) positioned in said first flow inlet for dividing flow of said first fluid constituent into a plurality of flow streams; a sleeve (44; 78) surrounding said diffuser, said sleeve being in flow communication with said second flow inlet for a flow of said second fluid constituent to be arranged in a flow pattern which surrounds said sleeve; and a mixing pocket (50; 80) constructed and arranged for receiving said plurality of flow streams of said first fluid constituent from said diffuser and said second fluid constituent from said flow pattern surrounding said sleeve. a diffuser (40; 140; 240; 76) positioned in said first flow inlet for dividing flow of said first fluid constituent into a plurality of flow streams; a sleeve (44; 78) surrounding said diffuser, said sleeve being in flow communication with said second flow inlet for a flow of said second fluid constituent to be arranged in a flow pattern which surrounds said sleeve; and a mixing pocket (50; 80) constructed and arranged for receiving said plurality of flow streams of said first fluid constituent from said diffuser and said second fluid constituent from said flow pattern surrounding said sleeve.
An antiperspirant composition comprising (i) a complex of a zinc salt with a β amino alcohol; and (ii) an anhydrous carrier, wherein the molar ratio of zinc salt to β amino alcohol is from 1:0.5 to 1:3 (i) a complex of a zinc salt with a β amino alcohol; and (ii) an anhydrous carrier, wherein the molar ratio of zinc salt to β amino alcohol is from 1:0.5 to 1:3
A method of wireless communications for a user equipment, UE, in a device-to-device, D2D, network with distributed synchronization, comprising: receiving, by the UE in a non-timing source, TS, mode, a request for timing information during a synchronization channel duration; generating a selection utility metric value based on information associated with the received request for timing information; and determining whether to switch to a TS mode based on the selection utility metric value, wherein in the TS mode the UE is configured to transmit a timing information block, TIB. receiving, by the UE in a non-timing source, TS, mode, a request for timing information during a synchronization channel duration; generating a selection utility metric value based on information associated with the received request for timing information; and determining whether to switch to a TS mode based on the selection utility metric value, wherein in the TS mode the UE is configured to transmit a timing information block, TIB.
A thrombectomy and stenting system for removing a clot from a blood vessel and stenting the blood vessel, the system comprising: a sheath member comprising a sheath lumen; a deployment catheter oriented within the sheath lumen, the deployment catheter comprising a deployment catheter lumen and a deployment catheter outer surface; a stenting device circumscribing the deployment catheter outer surface; a thrombectomy device; a microcatheter oriented in the deployment catheter lumen, wherein the microcatheter comprises a microcatheter lumen; and wherein at least a portion of the thrombectomy device is oriented in the microcatheter lumen; wherein the thrombectomy device comprises an expandable clot retriever collapsible to fit within the microcatheter lumen and self-expandable upon exiting the microcatheter lumen; and wherein the clot retriever comprises a clot engaging portion, the clot engaging portion comprising an expandable network of struts configured to grip the clot and to dislodge it from the blood vessel. a sheath member comprising a sheath lumen; a deployment catheter oriented within the sheath lumen, the deployment catheter comprising a deployment catheter lumen and a deployment catheter outer surface; a stenting device circumscribing the deployment catheter outer surface; a thrombectomy device; a microcatheter oriented in the deployment catheter lumen, wherein the microcatheter comprises a microcatheter lumen; and wherein at least a portion of the thrombectomy device is oriented in the microcatheter lumen; wherein the thrombectomy device comprises an expandable clot retriever collapsible to fit within the microcatheter lumen and self-expandable upon exiting the microcatheter lumen; and wherein the clot retriever comprises a clot engaging portion, the clot engaging portion comprising an expandable network of struts configured to grip the clot and to dislodge it from the blood vessel.
A method of self-calibration of a plurality of calibration antennas comprising the steps of: (i) mounting the calibration antennas (210, 220, 230, 240) around the edge of an antenna array face; (ii) selecting a pair of calibration antennas (210, 220) to be calibrated that have a common area in range of both calibration antennas; (iii) selecting at least one radiating element (410, 420, 430) within range of the pair of calibration antennas; (iv) transmitted a known test signal from the one or more selected radiating elements (410, 420, 430); (v) measuring a received signal at each of the pair of calibration antennas; (vi) comparing the received signals at each of the pair of calibration antennas (210, 220); (vii) determining a calibration coefficient for each calibration antenna (210, 220) based on the received signals at the said pair of calibration antennas (210, 220); and (viii) repeating steps (ii) to (vi) for each pair of calibration antennas (210, 220, 230, 240) with common areas in range, selecting different radiating elements (410, 420, 430, 440, 450) to radiate the known test signal. (i) mounting the calibration antennas (210, 220, 230, 240) around the edge of an antenna array face; (ii) selecting a pair of calibration antennas (210, 220) to be calibrated that have a common area in range of both calibration antennas; (iii) selecting at least one radiating element (410, 420, 430) within range of the pair of calibration antennas; (iv) transmitted a known test signal from the one or more selected radiating elements (410, 420, 430); (v) measuring a received signal at each of the pair of calibration antennas; (vi) comparing the received signals at each of the pair of calibration antennas (210, 220); (vii) determining a calibration coefficient for each calibration antenna (210, 220) based on the received signals at the said pair of calibration antennas (210, 220); and (viii) repeating steps (ii) to (vi) for each pair of calibration antennas (210, 220, 230, 240) with common areas in range, selecting different radiating elements (410, 420, 430, 440, 450) to radiate the known test signal.
A communication device comprising: a receiving unit configured to receive configuration information of a bandwidth part, BWP, to be applied to a sidelink transmission; and a control unit configured to configure a frequency resource and subcarrier spacing for the sidelink transmission based on the received configuration information of the BWP, wherein the configuration information of the BWP is configured independently of configuration information of a BWP to be applied to an uplink transmission. a receiving unit configured to receive configuration information of a bandwidth part, BWP, to be applied to a sidelink transmission; and a control unit configured to configure a frequency resource and subcarrier spacing for the sidelink transmission based on the received configuration information of the BWP, wherein the configuration information of the BWP is configured independently of configuration information of a BWP to be applied to an uplink transmission.
A surface mount connector assembly for mounting to a printed wiring board, PWB, said surface mount connector assembly comprising: an inner housing portion having an exterior, an interior configured to receive a corresponding socket connector, and a plurality of openings extending from the interior to the exterior thereof; an outer housing portion defining an interior, said inner housing portion nested within said interior of said outer housing portion; and a plurality of electrical contacts, each said contact received within one of said openings in said inner housing portion such that a portion of each said contact extends into the interior of said inner housing portion and another portion of each said contact extends to an exterior of said inner housing portion, and said portion of each said contact extending to the exterior of said inner housing portion being positioned between said inner and outer housing portions so as to extend along the exterior of said inner housing portion along a bottom of said inner housing portion and along a side of said inner housing portion. an inner housing portion having an exterior, an interior configured to receive a corresponding socket connector, and a plurality of openings extending from the interior to the exterior thereof; an outer housing portion defining an interior, said inner housing portion nested within said interior of said outer housing portion; and a plurality of electrical contacts, each said contact received within one of said openings in said inner housing portion such that a portion of each said contact extends into the interior of said inner housing portion and another portion of each said contact extends to an exterior of said inner housing portion, and said portion of each said contact extending to the exterior of said inner housing portion being positioned between said inner and outer housing portions so as to extend along the exterior of said inner housing portion along a bottom of said inner housing portion and along a side of said inner housing portion.
An aerosol-generating device for heating an aerosol-forming substrate to generate an aerosol, the aerosol-generating device comprising: a substrate cavity configured to receive an aerosol-forming substrate; and an electromagnetic field generator configured to generate a radio frequency electromagnetic field in the substrate cavity, the electromagnetic field generator comprising a solid state RF transistor, wherein the solid state RF transistor comprises a LDMOS transistor, a GaAs FET, a SiC MESFET or a GaN HFET. a substrate cavity configured to receive an aerosol-forming substrate; and an electromagnetic field generator configured to generate a radio frequency electromagnetic field in the substrate cavity, the electromagnetic field generator comprising a solid state RF transistor, wherein the solid state RF transistor comprises a LDMOS transistor, a GaAs FET, a SiC MESFET or a GaN HFET.
A method for producing carbon nanostructures, comprising allowing a catalyst and reactant gases comprising a carbon source to flow in a fluidized bed reactor to synthesize carbon nanostructures wherein some of the carbon nanostructures remain uncollected and are used as fluidic materials in the fluidized bed reactor and wherein the residual rate of the fluidic materials is from 0.4 to 0.7, as calculated by Equation 1: Residual rate of carbon nanostructures = Volume of remaining carbon nanostructures / Volume of initially remaining carbon nanostructures + Volume of a s - produced carbon nanostructures, wherein the catalyst is a catalyst suitable for use in the production of carbon nanotubes; the carbon source is a carbon-containing gas that decomposes when being heated; the carbon nanostructures are carbon nanotubes; and wherein the height of the carbon nanostructures filled in the reactor is used to determining a volume and the respective final filling volume is the criterion in determining the amounts of the remaining carbon nanostructures and the as-produced carbon nanostructures in equation 1. wherein the catalyst is a catalyst suitable for use in the production of carbon nanotubes; the carbon source is a carbon-containing gas that decomposes when being heated; the carbon nanostructures are carbon nanotubes; and wherein the height of the carbon nanostructures filled in the reactor is used to determining a volume and the respective final filling volume is the criterion in determining the amounts of the remaining carbon nanostructures and the as-produced carbon nanostructures in equation 1.
A method for the production of a film tube bag comprising the following operations: - Shaping and fixing longitudinal foldings on the outer side of a packing film, - Shaping of the packing film with parallel longitudinal foldings into the form of the film tube, - Closing of the film tube by the longitudinal seam parallel with the longitudinal foldings, - Forming a folded flat quadrilateral bottom with a lower cross seam, - Filling the bag with the packed goods, - Forming an upper cross seam on the side of the bag opposite to the folded flat quadrilateral bottom, - Separating the filled bag from the film tube characterized in that after shaping and fixing the longitudinal foldings, a one-piece secondary all-round closure is fixed on the inner side of the packing film, which longitudinal axis is perpendicular to the longitudinal axis of the longitudinal foldings prior to shaping the packing film into the tube, whereas the secondary closure is positioned so that it is located on the finished bag below the upper cross seam where the length of the applied secondary all-round closure corresponds to the size of the inside circumference of the bag. - Shaping and fixing longitudinal foldings on the outer side of a packing film, - Shaping of the packing film with parallel longitudinal foldings into the form of the film tube, - Closing of the film tube by the longitudinal seam parallel with the longitudinal foldings, - Forming a folded flat quadrilateral bottom with a lower cross seam, - Filling the bag with the packed goods, - Forming an upper cross seam on the side of the bag opposite to the folded flat quadrilateral bottom, - Separating the filled bag from the film tube characterized in that after shaping and fixing the longitudinal foldings, a one-piece secondary all-round closure is fixed on the inner side of the packing film, which longitudinal axis is perpendicular to the longitudinal axis of the longitudinal foldings prior to shaping the packing film into the tube, whereas the secondary closure is positioned so that it is located on the finished bag below the upper cross seam where the length of the applied secondary all-round closure corresponds to the size of the inside circumference of the bag.
Device with plug connections between at least two components (1, 2) that can be connected to each other in a form-fitting manner via their contact surfaces, wherein - the first component has, for the purpose of forming a first connection component, at least one receiving part which surrounds a cavity in which at least one gripping mechanism is arranged, and - the second component has, for the purpose of forming a connection component, at least one pin for insertion into the gripping mechanism, - the gripping mechanism associated with the connection component of the first component has a free lateral displaceability within the cavity - the pin associated with the connection component of the second component can optionally be adjusted in the direction of its longitudinal axis, characterised in that a gripping mechanism composed of alternately positioned gripping jaw rows and sliding discs is arranged in the cavity. - the first component has, for the purpose of forming a first connection component, at least one receiving part which surrounds a cavity in which at least one gripping mechanism is arranged, and - the second component has, for the purpose of forming a connection component, at least one pin for insertion into the gripping mechanism, - the gripping mechanism associated with the connection component of the first component has a free lateral displaceability within the cavity - the pin associated with the connection component of the second component can optionally be adjusted in the direction of its longitudinal axis,