mhurhangee/patent-ind-claim-en huggingface dataset:
A computer-implemented method for authenticating content, comprising: determining, by a content producing device , an original manifest which indicates at least an original content name associated with a content object, wherein the content name is a hierarchically structured variable length identifier (HSVLI) which comprises contiguous name components ordered from a most general level to a most specific level; encapsulating the original manifest under an encapsulation name ; renaming the content object with a new content name ; and creating a new manifest which indicates the new content name , wherein the new manifest includes original authentication information associated with the original manifest , wherein the original authentication information includes the encapsulation name for the original manifest , thereby facilitating redistribution of content objects with different names without requiring re-computation of the original authentication information . determining, by a content producing device , an original manifest which indicates at least an original content name associated with a content object, wherein the content name is a hierarchically structured variable length identifier (HSVLI) which comprises contiguous name components ordered from a most general level to a most specific level; encapsulating the original manifest under an encapsulation name ; renaming the content object with a new content name ; and creating a new manifest which indicates the new content name , wherein the new manifest includes original authentication information associated with the original manifest , wherein the original authentication information includes the encapsulation name for the original manifest , thereby facilitating redistribution of content objects with different names without requiring re-computation of the original authentication information .
A nonwoven textile machine for producing biodegradable nonwoven textile comprising seeds, wherein it comprises a cross-lapping portion and a seed distributing machine unit , positioned in the cross-lapping portion of the nonwoven textile machine , which is able to distribute seeds over at least a part of an incoming width of a veil of biodegradable fibres during cross-lapping of the veil of biodegradable fibres , wherein the seed distributing machine unit comprises at least one receptacle for seeds having a dispensing opening for regulated outlet of seeds onto a veil of biodegradable fibres , the seed distributing unit is movable in a horizontal plane in a direction transverse the movement of the veil of biodegradable fibres , and the nonwoven textile machine comprises a needle punching portion situated after the cross-lapping , seen in the direction of the biodegradable nonwoven textile production line of the machine.
Device for storing and supplying cryogenic fluid, notably an on-board device for storing and supplying liquefied hydrogen, comprising a cryogenic tank for storing liquefied fluid, a withdrawal circuit , the device comprising a system for pressurizing the tank comprising a pressurization line having two ends respectively connected to the upper and lower parts of the tank , a vaporization heat exchanger and a set of valve(s) configured to allow liquid to be withdrawn from the tank and comprising an isolation valve situated between the vaporization heat exchanger and the upper end of the tank , to be heated in the vaporization heat exchanger and to be reintroduced into the tank , the system for pressurizing the tank being configured to withdraw a determined volume of fluid from the tank , store and isolate this volume in the vaporization heat exchanger until the volume of fluid reaches determined temperature and/or pressure conditions prior to reinjection of this volume of fluid into the tank , the pressurization line comprising an element for limiting the flow rate and/or the pressure of the reinjected volume of fluid, characterized in that the element for limiting the flow rate and/or the pressure is disposed in parallel with the isolation valve situated between the vaporization heat exchanger and the upper end of the tank .
A vehicle configured to drive on a public road and on an agricultural field , and further configured to operate next to a harvesting machine , the vehicle comprising: - a first receptacle suitable to receive crops delivered by the harvesting machine through a delivering conveyor of the harvesting machine while the vehicle is driving alongside the harvesting machine during a mobile harvesting operation; and - a cleaning device adapted to: - receive the received crops of the first receptacle ; and - automatically separate the received crops in excess materials and cleaned crops ; - a second receptacle adapted to buffer the cleaned crops of the cleaning device , CHARACTERIZED IN THAT - the first receptacle is configured to collect the received crops comprising excess materials , the excess materials comprising soil; and - the vehicle is configured to scatter the excess materials of the cleaning device on the agricultural field while the vehicle is driving along the agricultural field next to the harvesting machine during the mobile harvesting operation, and to buffer the excess materials during a stationary dumping operation. - a first receptacle suitable to receive crops delivered by the harvesting machine through a delivering conveyor of the harvesting machine while the vehicle is driving alongside the harvesting machine during a mobile harvesting operation; and - a cleaning device adapted to: - receive the received crops of the first receptacle ; and - automatically separate the received crops in excess materials and cleaned crops ; - receive the received crops of the first receptacle ; and - automatically separate the received crops in excess materials and cleaned crops ; - a second receptacle adapted to buffer the cleaned crops of the cleaning device , CHARACTERIZED IN THAT - the first receptacle is configured to collect the received crops comprising excess materials , the excess materials comprising soil; and - the vehicle is configured to scatter the excess materials of the cleaning device on the agricultural field while the vehicle is driving along the agricultural field next to the harvesting machine during the mobile harvesting operation, and to buffer the excess materials during a stationary dumping operation.
An invert emulsion drilling fluid, comprising: a water in oil emulsion; an invert emulsifier to stabilize the water in oil emulsion in an amount operable to stabilize the water in oil emulsion; a fatty acid, wherein the fatty acid is a mixture of C16 and C18 saturated linear alpha carboxylic acids; a 36 carbon fatty dimer diamine; a filtration control agent; and an inorganic mineral including one or more of lime, calcium chloride, and barite. a water in oil emulsion; an invert emulsifier to stabilize the water in oil emulsion in an amount operable to stabilize the water in oil emulsion; a fatty acid, wherein the fatty acid is a mixture of C16 and C18 saturated linear alpha carboxylic acids; a 36 carbon fatty dimer diamine; a filtration control agent; and an inorganic mineral including one or more of lime, calcium chloride, and barite.
A chemically curable, aqueous two-component adhesive formulation for producing pressed material molded bodies, in particular pressed material plates, by continuously or discontinuously pressing mixtures of the adhesive formulation and chip material and/or fiber material, or by pressing layerings of the adhesive formulation and chip material plates and/or fiber material plates, comprising - a first aqueous component A comprising at least one chemically curable reactive resin - and a second aqueous component B comprising at least one curing agent for the chemically curable reactive resin of component A, wherein components A and B are provided for forming the chemically curable two-component adhesive formulation by mixing components A and B, wherein component A comprises 20 wt. % to 100 wt.% of an aqueous phase of a reactive resin functionalized with functional epoxy groups or a mixture of reactive resins functionalized with functional epoxy groups, with a resin content of 30 wt.% to 70 wt.%, and wherein component B comprises 30 wt.% to 100 wt.% of an aqueous phase of a curing agent having functional amine groups or a mixture of curing agents having functional amine groups, with a curing agent content of 30 wt.% to 70 wt.%, wherein the aqueous two-component adhesive formulation consists of 20 wt.% to 80 wt.% of component A and 20 wt.% to 80 wt.% of component B, characterized in that the aqueous phase of the reactive resin functionalized with functional epoxy groups or the mixture of reactive resins functionalized with functional epoxy groups of component A has an epoxy equivalent weight of 200 g/mol to 1500 g/mol. - a first aqueous component A comprising at least one chemically curable reactive resin - and a second aqueous component B comprising at least one curing agent for the chemically curable reactive resin of component A, wherein components A and B are provided for forming the chemically curable two-component adhesive formulation by mixing components A and B, wherein component A comprises 20 wt. % to 100 wt.% of an aqueous phase of a reactive resin functionalized with functional epoxy groups or a mixture of reactive resins functionalized with functional epoxy groups, with a resin content of 30 wt.% to 70 wt.%, and wherein component B comprises 30 wt.% to 100 wt.% of an aqueous phase of a curing agent having functional amine groups or a mixture of curing agents having functional amine groups, with a curing agent content of 30 wt.% to 70 wt.%, wherein the aqueous two-component adhesive formulation consists of 20 wt.% to 80 wt.% of component A and 20 wt.% to 80 wt.% of component B, characterized in that the aqueous phase of the reactive resin functionalized with functional epoxy groups or the mixture of reactive resins functionalized with functional epoxy groups of component A has an epoxy equivalent weight of 200 g/mol to 1500 g/mol.
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, configuration information on a default data radio bearer, DRB, for a protocol data unit, PDU, session; receiving, from the base station, a radio resource control, RRC, message including mapping information between at least one quality of service, QoS, flow and at least one DRB for the PDU session; identifying a QoS flow ID, QFI, associated with an uplink packet; identifying if there is a DRB to map the uplink packet, based on the mapping information and the QFI; and characterised by : transmitting, to the base station, the uplink packet on the default DRB, in case that no mapping of the QFI to the DRB is identified. receiving, from a base station, configuration information on a default data radio bearer, DRB, for a protocol data unit, PDU, session; receiving, from the base station, a radio resource control, RRC, message including mapping information between at least one quality of service, QoS, flow and at least one DRB for the PDU session; identifying a QoS flow ID, QFI, associated with an uplink packet; identifying if there is a DRB to map the uplink packet, based on the mapping information and the QFI; and characterised by : transmitting, to the base station, the uplink packet on the default DRB, in case that no mapping of the QFI to the DRB is identified.
Aqueous-based composition which consists of a) 0.1 to 5% by weight of octenidine, b) 0.001 to 0.1% by weight of stabilizer selected from α-tocopherol and 2,6-di-tert-butyl-4-methylphenol (BHT), c) 0.5 to 30% by weight of ethoxylated fatty acid monoglyceride and water as the remainder. a) 0.1 to 5% by weight of octenidine, b) 0.001 to 0.1% by weight of stabilizer selected from α-tocopherol and 2,6-di-tert-butyl-4-methylphenol (BHT), c) 0.5 to 30% by weight of ethoxylated fatty acid monoglyceride
A computer-implemented method for using machine learning to determine abnormal cardiac activity of a subject, the method comprising: retrieving one or more periods of time of cardiac data and motion data for a subject from a memory, each period of time including more than one window of the cardiac data and the motion data; determining one or more signal quality indices for each window of the cardiac data and the motion data of the one or more periods of time; extracting one or more cardiovascular features for each period of time using at least the cardiac data, the motion data, and the one or more signal quality indices for the cardiac data and the motion data; applying a tensor transform that transforms data to time-frequency space to the cardiac data and/or the motion data to generate a tensor for each window of the one or more periods of time; applying a trained deep learning architecture to each tensor of the one or more periods of time to classify each window and/or each period into one or more classes using at least the one or more signal quality indices for the cardiac data and the motion data and cardiovascular features, the deep learning architecture including a convolutional neural network, a bidirectional recurrent neural network, and an attention network, the one or more classes including abnormal cardiac activity and normal cardiac activity; and generating a report including a classification of cardiac activity of the subject for the one or more periods based on the one or more classes. determining one or more signal quality indices for each window of the cardiac data and the motion data of the one or more periods of time; extracting one or more cardiovascular features for each period of time using at least the cardiac data, the motion data, and the one or more signal quality indices for the cardiac data and the motion data; applying a tensor transform that transforms data to time-frequency space to the cardiac data and/or the motion data to generate a tensor for each window of the one or more periods of time; applying a trained deep learning architecture to each tensor of the one or more periods of time to classify each window and/or each period into one or more classes using at least the one or more signal quality indices for the cardiac data and the motion data and cardiovascular features, the deep learning architecture including a convolutional neural network, a bidirectional recurrent neural network, and an attention network, the one or more classes including abnormal cardiac activity and normal cardiac activity; and generating a report including a classification of cardiac activity of the subject for the one or more periods based on the one or more classes.
A patient interface device , comprising: a cushion ; a frame having a faceplate portion , the cushion being coupled to the frame , the faceplate portion having a main orifice and a plurality of holes , the main orifice and the plurality of holes extending through the frame and being in fluid communication with the cushion ; a fluid coupling conduit having an inlet end and an outlet end terminating in an outlet opening , the outlet end being fluidly coupled to the inlet end , wherein the inlet end is structured to receive a flow of breathing gas, wherein the outlet end is fluidly coupled to the main orifice to deliver the flow of breathing gas to the main orifice through the outlet opening , wherein the fluid coupling conduit comprises a deflector member provided around an at least a portion of an outer periphery of the outlet end at a location spaced from the outlet opening , wherein the deflector member is positioned over the plurality of holes in a manner wherein exhalation gasses will flow from the cushion , through the plurality of holes and will be redirected and diffused by the deflector member and be caused to flow around the outlet end to atmosphere, wherein plurality of holes are spaced around the main orifice , and in that the deflector member is spaced from the faceplate portion such that a gap is defined between the deflector member and the faceplate portion , wherein the main orifice comprises a main conduit extending outwardly from and through the faceplate portion, characterized in that the faceplate portion includes a recessed portion surrounding the main conduit, the plurality of holes being provided in the recessed portion , wherein a depth of the plurality of holes is equal to a thickness of the recessed portion . a cushion ; a frame having a faceplate portion , the cushion being coupled to the frame , the faceplate portion having a main orifice and a plurality of holes , the main orifice and the plurality of holes extending through the frame and being in fluid communication with the cushion ; a fluid coupling conduit having an inlet end and an outlet end terminating in an outlet opening , the outlet end being fluidly coupled to the inlet end , wherein the inlet end is structured to receive a flow of breathing gas, wherein the outlet end is fluidly coupled to the main orifice to deliver the flow of breathing gas to the main orifice through the outlet opening , wherein the fluid coupling conduit comprises a deflector member provided around an at least a portion of an outer periphery of the outlet end at a location spaced from the outlet opening , wherein the deflector member is positioned over the plurality of holes in a manner wherein exhalation gasses will flow from the cushion , through the plurality of holes and will be redirected and diffused by the deflector member and be caused to flow around the outlet end to atmosphere, wherein plurality of holes are spaced around the main orifice , and in that the deflector member is spaced from the faceplate portion such that a gap is defined between the deflector member and the faceplate portion ,
Method for testing an electric-arc protection device, the electric-arc protection device comprising a measurement chain, the measurement chain comprising a first winding for measuring of a current-measurement transformer , the method for testing comprising a phase of testing the electric-arc protection with steps of injecting a test signal into the electric-arc signal processing and steps of processing said test signal, comprising: - at least one step of injecting at least one test signal (SF1, SF2, SF3) at at least one frequency (F1, F2, F3) into a second winding for testing of the current-measurement transformer during at least one preset duration (T1, T2, T3), a total test duration comprising at least the preset duration (T1, T2, T3) being shorter than a no-trigger time (TND), - at least one monitoring step in order to monitor, during the injection of said at least one signal (SF1, SF2, SF3), at least one test signal filtered and processed by the measurement chain and/or protection functions, and - a step of determining the state of the test of the electric-arc protection, the state of the test of the electric-arc protection being negative is no test signal is correctly processed by the measurement chain. - at least one step of injecting at least one test signal (SF1, SF2, SF3) at at least one frequency (F1, F2, F3) into a second winding for testing of the current-measurement transformer during at least one preset duration (T1, T2, T3), a total test duration comprising at least the preset duration (T1, T2, T3) being shorter than a no-trigger time (TND), - at least one monitoring step in order to monitor, during the injection of said at least one signal (SF1, SF2, SF3), at least one test signal filtered and processed by the measurement chain and/or protection functions, and - a step of determining the state of the test of the electric-arc protection, the state of the test of the electric-arc protection being negative is no test signal is correctly processed by the measurement chain.
Turbomachine assembly comprising a ring-like flow cascade, which has a plurality of blades (11-16; 111-116; 311-316) each having identical natural frequencies, specifically identical bending and/or torsional natural frequencies, which blades are distributed in a circumferential direction, and comprising a detuning device (50; 200; 300) for different detuning of the respective identical natural frequencies of the blades, characterized in that the detuning device comprises all detuning elements which are movably arranged on the blades and are successive in a row in the circumferential direction, and is designed such that, during operation, first blades (11-16; 13, 16) of the flow cascade each contact at most one, in particular no movable detuning element of the detuning device, at least one second blade of the blade cascade, on which at least two of the movable detuning elements are arranged, being arranged between at least two successive blades of these first blades .
A compound represented by the following formula: or a salt thereof; wherein the compound is substantially free of impurities.
A data transmission method, performed by a transmit end apparatus, wherein the method comprises: generating a first code block, wherein the first code block comprises a first load and a first redundancy code, the first load comprises N second code blocks, the first redundancy code is used to perform error correction on the first load, an i th second code block comprises a second load and a second redundancy code, the second redundancy code is used to perform error detection on the second load in the i th second code block, a value of i is an integer ranging from 1 to N, and N is an integer greater than or equal to 1; and sending the first code block to a receive end apparatus; wherein the second load in the i th second code block comprises indication information and to-be-transmitted data, and the indication information is used to indicate an identifier of the i th second code block; wherein the indication information in the i th second code block is further used to indicate a code block type of the i th second code block, and the code block type comprises a retransmission-supported type or a retransmission-unsupported type. generating a first code block, wherein the first code block comprises a first load and a first redundancy code, the first load comprises N second code blocks, the first redundancy code is used to perform error correction on the first load, an i th second code block comprises a second load and a second redundancy code, the second redundancy code is used to perform error detection on the second load in the i th second code block, a value of i is an integer ranging from 1 to N, and N is an integer greater than or equal to 1; and sending the first code block to a receive end apparatus; wherein the second load in the i th second code block comprises indication information and to-be-transmitted data, and the indication information is used to indicate an identifier of the i th second code block; wherein the indication information in the i th second code block is further used to indicate a code block type of the i th second code block, and the code block type comprises a retransmission-supported type or a retransmission-unsupported type.