mhurhangee/ep-ind-claims huggingface dataset:
A fire-protection composition for an intumescent coating comprising: a binder system, comprising an alkoxy-functional organic polymer, which contains an alkoxy-functional silane group having the general formula, terminated and/or as side group along the polymer chain, -Si(R 1) m (OR 2) 3-m, in which R 1 represents a linear or branched C 1 -C 16 alkyl group, R 2 represents a linear or branched C 1 -C 6 alkyl group, and m is a whole number from 0 to 2; and a styrene-acrylate copolymer; and an intumescent composition, comprising a combination of a dehydrogenation catalyst, a propellant and a carbon supplier. a binder system, comprising an alkoxy-functional organic polymer, which contains an alkoxy-functional silane group having the general formula, terminated and/or as side group along the polymer chain, -Si(R 1) m (OR 2) 3-m, in which R 1 represents a linear or branched C 1 -C 16 alkyl group, R 2 represents a linear or branched C 1 -C 6 alkyl group, and m is a whole number from 0 to 2; and a styrene-acrylate copolymer; and an alkoxy-functional organic polymer, which contains an alkoxy-functional silane group having the general formula, terminated and/or as side group along the polymer chain, -Si(R 1) m (OR 2) 3-m, in which R 1 represents a linear or branched C 1 -C 16 alkyl group, R 2 represents a linear or branched C 1 -C 6 alkyl group, and m is a whole number from 0 to 2; and R 1 represents a linear or branched C 1 -C 16 alkyl group, R 2 represents a linear or branched C 1 -C 6 alkyl group, and m is a whole number from 0 to 2; and a styrene-acrylate copolymer; and an intumescent composition, comprising a combination of a dehydrogenation catalyst, a propellant and a carbon supplier.
A method of data encoding by a network component, the method comprising: arranging a set of time-frequency radio resources, associated with a downlink control channel, for transmitting information other than control information sent on the downlink control channel; and transmitting, on the set of time-frequency radio resources, a data information message comprising the information other than the control information, wherein the information other than the control information refers to any information other than network control information typically carried on control channels; wherein the information other than the control information is user-specific data information, and wherein the method further comprises: scrambling a Cyclic Redundancy Check, CRC, code of the data information message using a dedicated user-specific Radio Network Temporary Identifier, RNTI; and sending the scrambled CRC code with the user-specific data information in the data information message; characterized in that the method further comprises encoding, using a superposition coding, the user-specific data information into a first data layer detectable within a coverage area and a second data layer comprising additional data. arranging a set of time-frequency radio resources, associated with a downlink control channel, for transmitting information other than control information sent on the downlink control channel; and transmitting, on the set of time-frequency radio resources, a data information message comprising the information other than the control information, wherein the information other than the control information refers to any information other than network control information typically carried on control channels; wherein the information other than the control information is user-specific data information, and wherein the method further comprises: scrambling a Cyclic Redundancy Check, CRC, code of the data information message using a dedicated user-specific Radio Network Temporary Identifier, RNTI; and sending the scrambled CRC code with the user-specific data information in the data information message; scrambling a Cyclic Redundancy Check, CRC, code of the data information message using a dedicated user-specific Radio Network Temporary Identifier, RNTI; and sending the scrambled CRC code with the user-specific data information in the data information message; characterized in that the method further comprises encoding, using a superposition coding, the user-specific data information into a first data layer detectable within a coverage area and a second data layer comprising additional data.
Use of a compound as a mass spectrometry electron transfer dissociation reagent, wherein the compound is a substituted aromatic compound having a Franck-Condon factor of between 0.1 and 1.0 and an electron affinity having a positive value between 0.1 to 200 kJ/mol, and wherein either the aromatic nucleus is substituted by one or more substituents consisting of cyano, nitroso, carboxyl, iodo, aldehyde and acetoxy moieties, or the compound is 1,4-nitrotoluene.
A straddle-type vehicle comprising: a vehicle body frame; an engine mounted on the vehicle body frame; a fuel tank; a canister that suctions in fuel gas that has been evaporated inside the fuel tank; a charge pipe that connects the fuel tank and the canister, and guides the fuel gas to the canister; a purge pipe that connects the canister and an intake pipe of the engine, and supplies the fuel gas suctioned in by the canister to the intake pipe; a purge control valve that is provided at a point along the purge pipe at a position in front of the fuel tank and behind a storage box of the straddle-type vehicle, and allows or prohibits communication between the canister and the intake pipe; and an electronic control unit that controls at least the purge control valve, characterized in that the purge control valve overlaps, in a side view, rear frames (24L, 24R) forming the vehicle body frame; and the purge control valve is arranged adjacent to the electronic control unit provided in front of the fuel tank and behind the storage box. a vehicle body frame; an engine mounted on the vehicle body frame; a fuel tank; a canister that suctions in fuel gas that has been evaporated inside the fuel tank; a charge pipe that connects the fuel tank and the canister, and guides the fuel gas to the canister; a purge pipe that connects the canister and an intake pipe of the engine, and supplies the fuel gas suctioned in by the canister to the intake pipe; a purge control valve that is provided at a point along the purge pipe at a position in front of the fuel tank and behind a storage box of the straddle-type vehicle, and allows or prohibits communication between the canister and the intake pipe; and an electronic control unit that controls at least the purge control valve, characterized in that the purge control valve overlaps, in a side view, rear frames (24L, 24R) forming the vehicle body frame; and the purge control valve is arranged adjacent to the electronic control unit provided in front of the fuel tank and behind the storage box.
A method for separating sulfur dioxide and mercury from flue gas, in which the flue gas is washed in a wet washer with a calcium-containing rinse water, and in which the calcium sulfite formed is converted into calcium sulfate by supplying oxygen, which may be contained in air, and after that, calcium sulfate-containing rinse water is drawn off, and calcium sulfate is separated off from the drawn-off rinse water, the rinse water containing carbon and/or sulfur compounds, characterized in that the rinse water is fed to an REA rinse water reprocessing plant with two-stage separation of plaster from the rinse water, including a recirculating pump, a separator and a second separator; that a precipitation agent for mercury is metered in to the rinse water that has emerged from the second separator, in a line at a metering point, and next, a flocculant is added at a second metering point, and the line opens into a third separator; and that next, the mercury-containing sludge in the third separator, which sludge is created as a result of the precipitation reaction, is precipitated out of the rinse water and is thus discharged from the process.
A pyrochlore material which consists of Gd 2-x Mg x Zr 2 O 7-a with 0 < x < 2 and 0 ≤ a ≤ 1, wherein Magnesium (Mg) is partially or totally replaced by Calcium (Ca).
Method for operating a first type cache (DANE) adapted to be arranged between a client terminal and at least one server, said first type cache (DANE) being configured to receive a request from the client terminal for a segment of a multimedia content available in a plurality of representations, said method comprising: - receiving, from the client terminal, a request for at least a first representation of a segment, characterized in that said method further comprises: - sending to the client terminal, when the first representation is not cached by said first type cache (DANE), a response comprising: ▪ one alternative representation of said segment, which is cached by the first type cache (DANE); ▪ first additional information preventing a second type cache - arranged between the first type cache (DANE) and the client terminal - from caching the alternative representation of the response; and ▪ second additional information indicating, when the returned representation is not the first representation of the request, which alternative representation of the request has been delivered by the first type cache, allowing a further first type cache (DANE) arranged between the first type cache and the client terminal to be aware that the returned representation is not the first representation but an alternative representation of the request. - receiving, from the client terminal, a request for at least a first representation of a segment, - sending to the client terminal, when the first representation is not cached by said first type cache (DANE), a response comprising: ▪ one alternative representation of said segment, which is cached by the first type cache (DANE); ▪ first additional information preventing a second type cache - arranged between the first type cache (DANE) and the client terminal - from caching the alternative representation of the response; and ▪ second additional information indicating, when the returned representation is not the first representation of the request, which alternative representation of the request has been delivered by the first type cache, allowing a further first type cache (DANE) arranged between the first type cache and the client terminal to be aware that the returned representation is not the first representation but an alternative representation of the request. ▪ one alternative representation of said segment, which is cached by the first type cache (DANE); ▪ first additional information preventing a second type cache - arranged between the first type cache (DANE) and the client terminal - from caching the alternative representation of the response; and ▪ second additional information indicating, when the returned representation is not the first representation of the request, which alternative representation of the request has been delivered by the first type cache, allowing a further first type cache (DANE) arranged between the first type cache and the client terminal to be aware that the returned representation is not the first representation but an alternative representation of the request.
A subsea line clamp assembly, comprising a body (10; 110) having an axis and a clamp member (50; 150), the body comprising at least first and second body segments (20a,b,c; 120a,b,c) adapted to be assembled around a subsea line, the clamp member (50, 150) comprising at least first and second clamp member segments (60a,b,c; 160a,b,c), the clamp member (50;150) being movable relative to the body (10;110) and having an outer surface adapted to engage an inner surface of the body (10;110), and an inner surface adapted to engage the subsea line within the subsea line clamp assembly, the inner surface of the body (10;110) having at least one first tapered portion, and the outer surface of the clamp member (50;150) having at least one second tapered portion arranged to engage the first tapered portion on the inner surface of the body (10;110), wherein the clamp member (50; 150) and the body (10;110) are divided in a direction along the axis into the same number of segments 20a,b,c; 120a,b,c; 60a,b,c; 160a,b,c), with each body segment (20a,b,c; 120a,b,c) having a respective clamp member segment (60a,b,c; 160a,b,c), characterised in that the body (50;150) has an anchor attachment point (19a,b,c; 119a,b,c) adapted to tether the body (10;110) to a subsea anchor (5a,b), and wherein each body segment (20a,b,c;120a,b,c) has a larger angular dimension than its respective clamp member segment (60a,b,c; 160a,b,c); and wherein the clamp member (50; 150) and the body (10; 110) are divided into axial sections, with each axial body section having a respective axial clamp member section; and wherein each axial body section has a larger axial dimension than its respective axial clamp member section; and wherein at least one end face of each of the axial clamp member sections is axially spaced from at least one end face of an adjacent axial clamp member section.
A method comprising: receiving, by a mobile device from a base station, a first transmission comprising a first session identifier; transmitting, by the mobile device to the base station, a second transmission comprising a second session identifier and a first processing time value, wherein the base station generates a first distance measurement corresponding to a distance between the mobile device and the base station using at least the first processing time value; receiving, by the mobile device from the base station, a third transmission comprising a second processing time value; responsive to the third transmission, generating, by the mobile device, a second distance measurement corresponding to the distance between the mobile device and the base station using at least the second processing time value; generating, by the mobile device, a first cryptogram using the second distance measurement, and one or more of the first session identifier, the second session identifier and/or a mobile device identifier associated with the mobile device; and transmitting, by the mobile device, a fourth transmission comprising the first cryptogram to an access device in communication with the base station, wherein the access device receives a data element from the base station, the data element generated by the base station using the first distance measurement, and one or more of the first session identifier, the second session identifier, and/or the mobile device identifier, and wherein the access device validates the first cryptogram using the data element. receiving, by a mobile device from a base station, a first transmission comprising a first session identifier; transmitting, by the mobile device to the base station, a second transmission comprising a second session identifier and a first processing time value, wherein the base station generates a first distance measurement corresponding to a distance between the mobile device and the base station using at least the first processing time value; receiving, by the mobile device from the base station, a third transmission comprising a second processing time value; responsive to the third transmission, generating, by the mobile device, a second distance measurement corresponding to the distance between the mobile device and the base station using at least the second processing time value; generating, by the mobile device, a first cryptogram using the second distance measurement, and one or more of the first session identifier, the second session identifier and/or a mobile device identifier associated with the mobile device; and transmitting, by the mobile device, a fourth transmission comprising the first cryptogram to an access device in communication with the base station, wherein the access device receives a data element from the base station, the data element generated by the base station using the first distance measurement, and one or more of the first session identifier, the second session identifier, and/or the mobile device identifier, and wherein the access device validates the first cryptogram using the data element.
A method of reducing dispersion of a rocket caused by jet-stream misalignment, the rocket comprising a rocket engine, the method is characterized by: obtaining information indicative of a division of total operation time of the rocket engine into a first time period and a second time period; wherein an impulse which is generated during the first time period is at least approximately the same as an impulse generated during the second time period; measuring a period of time which equals to the first time period starting from time of activation of the rocket engine; upon termination of the period of time, rotating the rocket around the rocket's longitudinal axis; measuring an angle of rotation; and stopping turn once a 180° rotation is completed. obtaining information indicative of a division of total operation time of the rocket engine into a first time period and a second time period; wherein an impulse which is generated during the first time period is at least approximately the same as an impulse generated during the second time period; measuring a period of time which equals to the first time period starting from time of activation of the rocket engine; upon termination of the period of time, rotating the rocket around the rocket's longitudinal axis; measuring an angle of rotation; and stopping turn once a 180° rotation is completed.
A liquid crystal display comprising: a display panel; and a color conversion panel configured for polarizing light, wherein the color conversion panel is coupled to the display panel and having a color conversion layer, wherein the color conversion layer includes: a block copolymer (23A, 23B) including a first copolymer and a second copolymer; and quantum rods (27G, 27R) dispersed within the block copolymer (23A, 23B), wherein the block copolymer (23A, 23B) includes: a first block structure unit formed by the first copolymer; and a second block structure unit formed by the second copolymer and phase separated from the first block structure unit, and wherein the quantum rods (27G, 27R) are disposed within either one of the first block structure unit and the second block structure unit, wherein light that is incident on the color conversion layer is polarized in an alignment direction of the quantum rods (27G, 27R) and then emitted, and a transmissive axis of the color conversion layer is identical to the arrangement direction of the quantum rods (27G, 27R) such that major axes of the quantum rods (27G, 27R) are substantially collinear with major axes of either one of the first block structure unit and the second block structure unit. a display panel; and a color conversion panel configured for polarizing light, wherein the color conversion panel is coupled to the display panel and having a color conversion layer, wherein the color conversion layer includes: a block copolymer (23A, 23B) including a first copolymer and a second copolymer; and quantum rods (27G, 27R) dispersed within the block copolymer (23A, 23B), a block copolymer (23A, 23B) including a first copolymer and a second copolymer; and quantum rods (27G, 27R) dispersed within the block copolymer (23A, 23B), wherein the block copolymer (23A, 23B) includes: a first block structure unit formed by the first copolymer; and a second block structure unit formed by the second copolymer and phase separated from the first block structure unit, and a first block structure unit formed by the first copolymer; and a second block structure unit formed by the second copolymer and phase separated from the first block structure unit, and wherein the quantum rods (27G, 27R) are disposed within either one of the first block structure unit and the second block structure unit, wherein light that is incident on the color conversion layer is polarized in an alignment direction of the quantum rods (27G, 27R) and then emitted, and a transmissive axis of the color conversion layer is identical to the arrangement direction of the quantum rods (27G, 27R) such that major axes of the quantum rods (27G, 27R) are substantially collinear with major axes of either one of the first block structure unit and the second block structure unit.
A method for controlling a wind turbine, the wind turbine comprising a rotor carrying a set of wind turbine blades and connected to an input shaft, an output shaft connected to a generator, the generator being arranged to supply power to a power grid, and an energy storage system for intermediate storage of energy produced by the generator, the method comprising the steps of: - during full load operation, receiving a power reference value, P ref, representing a power level to be supplied to the power grid by the wind turbine, - controlling the wind turbine in order to produce an output power which is at or near the power reference value, P ref, while maintaining a constant torque on the generator, - in the case that the produced output power of the wind turbine exceeds the power reference value, P ref, storing excess produced energy in the energy storage system and supplying a power level being equal to the power reference value, P ref, to the power grid, - in the case that the produced output power of the wind turbine is below the power reference value, P ref, retrieving stored energy from the energy storage system and supplying a power level being equal to the power reference value, P ref, to the power grid, and characterized by - controlling a pitch angle of the wind turbine blades on the basis of rotational speed. - during full load operation, receiving a power reference value, P ref, representing a power level to be supplied to the power grid by the wind turbine, - controlling the wind turbine in order to produce an output power which is at or near the power reference value, P ref, while maintaining a constant torque on the generator, - in the case that the produced output power of the wind turbine exceeds the power reference value, P ref, storing excess produced energy in the energy storage system and supplying a power level being equal to the power reference value, P ref, to the power grid, - in the case that the produced output power of the wind turbine is below the power reference value, P ref, retrieving stored energy from the energy storage system and supplying a power level being equal to the power reference value, P ref, to the power grid, and characterized by - controlling a pitch angle of the wind turbine blades on the basis of rotational speed.
A transformant which uses Schizosaccharomyces pombe as a host into which a D-lactate dehydrogenase gene of Pediococcus acidilactici and a D-lactate dehydrogenase gene of Lactobacillus pentosus, Lactobacillus bulgaricus, or Lactobacillus brevis are incorporated, wherein pyruvate decarboxylase 2-encoding genes of the Schizosaccharomyces pombe host have been deleted or inactivated.