mhurhangee/ep-ind-claims huggingface dataset:
A device for monitoring the integrity of a fluid connection between first and second fluid containing systems (S1, S2) based on at least one time-dependent measurement signal from at least one pressure sensor (4a-4c) in the first fluid containing system, wherein the first fluid containing system comprises a first pulse generator, and the second fluid containing system comprises a second pulse generator, and wherein said at least one pressure sensor (4a-4c) is arranged to detect first pulses originating from the first pulse generator and second pulses originating from the second pulse generator, said device comprising: means for receiving said at least one measurement signal; means for processing said at least one measurement signal, or a time-dependent monitoring signal obtained therefrom, to calculate a parameter value indicative of presence or absence of the second pulses; and means for determining the integrity of the fluid connection based at least partly on the parameter value, characterized in that said device further comprises means for obtaining timing information indicative of the timing of the second pulses in said at least one measurement signal, and that said means for processing is configured to calculate the parameter value by processing said at least one measurement signal, or the monitoring signal obtained therefrom, based on the timing information. means for receiving said at least one measurement signal; means for processing said at least one measurement signal, or a time-dependent monitoring signal obtained therefrom, to calculate a parameter value indicative of presence or absence of the second pulses; and means for determining the integrity of the fluid connection based at least partly on the parameter value, characterized in that said device further comprises means for obtaining timing information indicative of the timing of the second pulses in said at least one measurement signal, and that said means for processing is configured to calculate the parameter value by processing said at least one measurement signal, or the monitoring signal obtained therefrom, based on the timing information.
Method for flue gas purification and electricity generation, in which flue gases to be purified are sent successively into a heat exchanger, which cools these flue gases by at least 20°C and by at most 100°C and which produces a flow of superheated water and/or water vapour, then into a gas-solids separator, in which a main fraction of the flow of superheated water and/or water vapour which represents between 80% and 98% by mass thereof, is introduced, at a temperature between 120°C and 220°C, into an electricity generation unit which functions according to an organic fluid Rankine cycle and is used there as ingoing hot source in order to generate electricity, and in which the remaining fraction of the flow of superheated water and/or water vapour is sent towards an activation reactor which is fed at least with one recirculated fraction of solid residues collected by the gas-solids separator.
A method for measuring distances of targets by measuring the time of flight of pulses, in particular laser pulses, reflected on those targets, comprising: transmitting pulses having a pulse interval (τ) which varies according to a modulation signal as transmitted pulses (S m), and concomitantly recording of reflected pulses as received pulses (E n); determining a first series of distance measurement values (D k) from times of flight (ΔT k) between transmitted pulses (S m) and those received pulses (E n) which are respectively received within a first time window (W m) following each transmitted pulse (S m); and determining at least a second series (F') of distance measurement values (D k ') from times of flight (ΔT k ') between transmitted pulses (S m) and those received pulses (E n) which are respectively received within a second time window (W m ') following each transmitted pulse (S m); and determining that series (F') of distance measurement values (D k ') which is least affected by the modulation signal as result of the distance measurement. transmitting pulses having a pulse interval (τ) which varies according to a modulation signal as transmitted pulses (S m), and concomitantly recording of reflected pulses as received pulses (E n); determining a first series of distance measurement values (D k) from times of flight (ΔT k) between transmitted pulses (S m) and those received pulses (E n) which are respectively received within a first time window (W m) following each transmitted pulse (S m); and determining at least a second series (F') of distance measurement values (D k ') from times of flight (ΔT k ') between transmitted pulses (S m) and those received pulses (E n) which are respectively received within a second time window (W m ') following each transmitted pulse (S m); and determining that series (F') of distance measurement values (D k ') which is least affected by the modulation signal as result of the distance measurement.
A laundry drying appliance being a washer/dryer and comprising a cabinet having a top, a rotating drum accommodated within a tub housed in the cabinet, and a laundry drying air circulation system for circulating drying air, the drying air circulation system comprises a drying air return duct through which drying air coming from drum flows, the drying air return duct having an outlet, and a drying air delivery duct (205, 215) through which the drying air is sent back to the drum, the drying air delivery duct having an inlet, wherein the top closes the cabinet from above and defines a worktop; the top forms a ready-to-mount moisture condensing module ready to be mounted to the cabinet for dehydrating drying air used to dry laundry within the drying drum of the laundry drying appliance, the top having a drying air inlet couplable to said outlet of the drying air return duct, a drying air outlet couplable to said inlet of the drying air delivery duct, fluid passageways defined inside the top from said drying air inlet to said drying air outlet for the passage of the drying air to be dehydrated, and moisture condensing means arranged inside said fluid passageways.
A method for transmission in a multi-cell multi-carrier wireless network comprising: receiving channel state information; determining assignments for a plurality of subcarriers based at least in part on the received channel state information; and scheduling transmission based on the subcarrier assignment, wherein the determining assignments for the plurality of subcarriers comprises: (a) determining marginal gains for a plurality of receivers; (b) determining a receiver and an associated base station in a plurality of base stations corresponding to a highest marginal gain; and (c) assigning the determined receiver to the determined base station; wherein determining marginal gains for a plurality of receivers comprises determining Δ g ij = ∑ c max 0, a ijc − max a ikc k ∈ S i where Δ g ij is the marginal gain, j is the plurality of receivers, i is the plurality of base stations, c is the plurality of subcarriers associated with the plurality of base stations i, a ijc is the gain of each receiver j on subcarrier c in base station i, and Si is the set of receivers assigned to base station i. receiving channel state information; determining assignments for a plurality of subcarriers based at least in part on the received channel state information; and scheduling transmission based on the subcarrier assignment, wherein the determining assignments for the plurality of subcarriers comprises: (a) determining marginal gains for a plurality of receivers; (b) determining a receiver and an associated base station in a plurality of base stations corresponding to a highest marginal gain; and (c) assigning the determined receiver to the determined base station; (a) determining marginal gains for a plurality of receivers; (b) determining a receiver and an associated base station in a plurality of base stations corresponding to a highest marginal gain; and (c) assigning the determined receiver to the determined base station; wherein determining marginal gains for a plurality of receivers comprises determining Δ g ij = ∑ c max 0, a ijc − max a ikc k ∈ S i where Δ g ij is the marginal gain, j is the plurality of receivers, i is the plurality of base stations, c is the plurality of subcarriers associated with the plurality of base stations i, a ijc is the gain of each receiver j on subcarrier c in base station i, and Si is the set of receivers assigned to base station i.
Method for adjusting the rate of at least one watch or respectively one movement, said watch or respectively said movement comprising at least a first oscillator arranged to generate oscillation at a nominal frequency N0, wherein there is used a servo-system comprising a second oscillator, this oscillator being a master oscillator of superior chronometric quality of said first oscillator and arranged to generate excitation oscillation at an excitation frequency NE which is approximately equal to, or equal to said nominal frequency N0, or to an integer multiple of said nominal frequency N0 and wherein said entire watch or respectively said entire movement is subjected to excitation oscillation generated by said master oscillator and/or to a modulated motion generated by said master oscillator, after an initial moment of actuation of said servo-system, at least during a transition phase at the end of which the frequency of the oscillator of said watch or respectively of said movement is stabilised at said excitation frequency NE, characterized in that there is incorporated in said servo-system a winder for mechanical or automatic watches, arranged to move at least one support on which is fixed said at least one watch or respectively said at least one movement.
The process for the preparation of Quinazolinyl-xanthine of Formula 4 comprising reacting the compound Acetylphenylamino-But-Br-Me-xanthine of Formula 5 in an alcohol or in an aromatic hydrocarbon solvent using ammonia or an ammonium salt as N-source according to Scheme 9:
A surgical handpiece, comprising: a housing; an electrical component within the housing; and a thermal diffuser disposed between the housing and the electrical component and comprising a thermal conductive layer and an electrical insulating layer, wherein the thermal conductive layer is closer to the housing than the electrical insulating layer, characterised in that: the electrical insulating layer is a single sheet of electrical insulating material, or wherein the electrical insulating layer comprises a plurality of electrical insulating material pieces, and wherein the thermal conductive layer and the electrical insulating layer are bonded with an adhesive. a housing; an electrical component within the housing; and a thermal diffuser disposed between the housing and the electrical component and comprising a thermal conductive layer and an electrical insulating layer, wherein the thermal conductive layer is closer to the housing than the electrical insulating layer, characterised in that: the electrical insulating layer is a single sheet of electrical insulating material, or wherein the electrical insulating layer comprises a plurality of electrical insulating material pieces, and wherein the thermal conductive layer and the electrical insulating layer are bonded with an adhesive.
An enrolment method for enrolling biometric data (I, M) in a database, each data item comprising a binary information vector on a biometric feature, and a binary mask vector, determining those bits (i) of the information vector to be taken into account for data comparison, the method comprising the application of permutation to the bits of the information vector and of the mask vector, the method being characterized in that it further comprises a step to encode the vectors using a so-called enrolment code (enc_enrol), the permutation being applied to the encoded vectors, and said encoding comprising: - the representation of each bit (m) of the mask vector in a sequence of several bits, such that the mean weight of the representations of all the bits of the mask vector is constant or statistically constant irrespective of the values of the bits (m) of the mask vector, and - the representation of each bit (i) of the information vector in a sequence comprising at least one bit drawn randomly (a), the randomly drawn bits following the same law of distribution as the bits of the information vector. - the representation of each bit (m) of the mask vector in a sequence of several bits, such that the mean weight of the representations of all the bits of the mask vector is constant or statistically constant irrespective of the values of the bits (m) of the mask vector, and - the representation of each bit (i) of the information vector in a sequence comprising at least one bit drawn randomly (a), the randomly drawn bits following the same law of distribution as the bits of the information vector.
Exhaust gas turbocharger which has a turbine housing, a bearing housing and a compressor housing and which is provided with a shaft which is mounted in the bearing housing and which is connected to a compressor impeller within the compressor housing and is connected to a turbine wheel within the turbine housing, the shaft being assembled from a plurality of shaft segments (4a, 4b) which are connected to one another and of which a first shaft segment is arranged in the turbine housing and a second shaft segment is arranged in the compressor housing, and the shaft segment which is arranged in the turbine housing consisting of a highly heat-resistant material, characterized in that, in order to increase the torque which is transmitted from the shaft to the compressor impeller, the shaft segment which is arranged in the compressor housing consists of a material with the material number 1.7225 or 1.7227 in accordance with the EN 10269 classification, and in that the shaft segment which is arranged in the turbine housing consists of a highly heat-resistant material with the material number 1.4923 in accordance with the EN 10269 classification.
An electronic display, illumination or signage device comprising a substrate coated on at least one of its faces with an electroluminescent unit comprising at least two electrodes, one internal electrode and one external electrode, between which is interposed a light-emitting structure, at least said one external electrode being transparent or semi-transparent to the emitted light, a protective cap being joined to the unit by way of an adhesive that covers an assembly face of the cap, characterized in that this adhesive also covers an adhesion promoting layer that surmounts the unit, said layer being deposited from precursors containing oxidants and water using atomic layer deposition, and which adhesion promoting layer is based on at least one inorganic compound compatible with the adhesive, a reactive metal sublayer that is able to react with at least one of these precursors being interposed beneath and in contact with this adhesion promoting layer, at least one dielectric intermediate layer that is transparent to the emitted light being placed between the external electrode and said reactive sublayer so as to form, with the external electrode and said reactive sublayer, a resonant cavity such as a Bragg mirror.
A suspension formulation comprising a spray dried monoclonal antibody at a concentration of about 200 mg/mL or more suspended in a non-aqueous suspension vehicle, wherein the viscosity of the suspension vehicle is less than about 20 mPa·s (20 centipoise) at about 25 °C, wherein the non-aqueous suspension vehicle comprises propylene glycol dicaprylate/dicaprate.
A method comprising, by one or more computing systems: determining for a plurality of geographic areas connected by a communication network, based on application data collected from the one or more geographic areas, one or more quality of experience metrics and one or more root-cause metrics; determining a percentile value for each quality of experience metric of each geographic area of the plurality of geographic areas; determining that one or more of the plurality of geographic areas have low quality of experience based on the one or more quality of experience metrics and a first set of criteria, wherein the first set of criteria comprises one or more first percentile thresholds for each of the one or more quality of experience metric percentile values; determining a percentile value for each root-cause metric of each geographic area having low quality of experience; determining one or more causes for the low quality of experience in each associated geographic area based on the one or more root-cause metrics and a second set of criteria, wherein the second set of criteria comprises one or more second percentile thresholds for each of the one or more root-cause metric percentile values, and wherein the one or more second percentile thresholds are looser than the one or more first percentile thresholds; and determining a solution recommendation for the low quality of experience of each associated geographic area based on the one or more causes of the low quality of experience of that geographic area. determining for a plurality of geographic areas connected by a communication network, based on application data collected from the one or more geographic areas, one or more quality of experience metrics and one or more root-cause metrics; determining a percentile value for each quality of experience metric of each geographic area of the plurality of geographic areas; determining that one or more of the plurality of geographic areas have low quality of experience based on the one or more quality of experience metrics and a first set of criteria, wherein the first set of criteria comprises one or more first percentile thresholds for each of the one or more quality of experience metric percentile values; determining a percentile value for each root-cause metric of each geographic area having low quality of experience; determining one or more causes for the low quality of experience in each associated geographic area based on the one or more root-cause metrics and a second set of criteria, wherein the second set of criteria comprises one or more second percentile thresholds for each of the one or more root-cause metric percentile values, and wherein the one or more second percentile thresholds are looser than the one or more first percentile thresholds; and determining a solution recommendation for the low quality of experience of each associated geographic area based on the one or more causes of the low quality of experience of that geographic area.
Curable aminoplast acrylic polyol composition containing, based on the complete weight of the solids of the composition, (a) 50 to 80% by weight of at least one type of an acrylic polyol having a glass transition temperature Tg of from 50 to 70°C, an equivalent weight of hydroxyl groups on solids of from 320 to 400, a hydroxyl number on solids of from 130 to 180 mg KOH/g, and a molecular weight (Mw) of 6,000 - 22,000 Dalton, and (b) 20 to 50% by weight of at least one type of an alkylated amino formaldehyde resin - having a formaldehyde content in accordance with DIN EN ISO 11402 4.3 of less than 0.10%, - the amino compound on which at least one type of the alkylated amino formaldehyde resin is based is being selected from the group consisting of melamine, guanamine, benzoguanamine, urea, toluenesulfonamide and glycoluril, and the alkylated amino formaldehyde resin containing at least one type of alkyl groups having 1 to 12 carbon atoms, and the alkylated melamine formaldehyde resin having a ratio of the sum of hexa-alkoxy methyl melamine to the sum of penta-methoxy methyl melamine as determined by HPLC according T.T. Chang, Anal. Chem, 66, 3267-3272 of from 20 to 50, and (c) 0.5 to 2.5% by weight of at least one type of an acidic catalyst. (a) 50 to 80% by weight of at least one type of an acrylic polyol having a glass transition temperature Tg of from 50 to 70°C, an equivalent weight of hydroxyl groups on solids of from 320 to 400, a hydroxyl number on solids of from 130 to 180 mg KOH/g, and a molecular weight (Mw) of 6,000 - 22,000 Dalton, and (b) 20 to 50% by weight of at least one type of an alkylated amino formaldehyde resin - having a formaldehyde content in accordance with DIN EN ISO 11402 4.3 of less than 0.10%, - the amino compound on which at least one type of the alkylated amino formaldehyde resin is based is being selected from the group consisting of melamine, guanamine, benzoguanamine, urea, toluenesulfonamide and glycoluril, and the alkylated amino formaldehyde resin containing at least one type of alkyl groups having 1 to 12 carbon atoms, and the alkylated melamine formaldehyde resin having a ratio of the sum of hexa-alkoxy methyl melamine to the sum of penta-methoxy methyl melamine as determined by HPLC according T.T. Chang, Anal. Chem, 66, 3267-3272 of from 20 to 50, and - having a formaldehyde content in accordance with DIN EN ISO 11402 4.3 of less than 0.10%, - the amino compound on which at least one type of the alkylated amino formaldehyde resin is based is being selected from the group consisting of melamine, guanamine, benzoguanamine, urea, toluenesulfonamide and glycoluril, and the alkylated amino formaldehyde resin containing at least one type of alkyl groups having 1 to 12 carbon atoms, and the alkylated melamine formaldehyde resin having a ratio of the sum of hexa-alkoxy methyl melamine to the sum of penta-methoxy methyl melamine as determined by HPLC according T.T. Chang, Anal. Chem, 66, 3267-3272 of from 20 to 50, and (c) 0.5 to 2.5% by weight of at least one type of an acidic catalyst.
A method of producing chabazite zeolite comprising: steps (a) and (b): (a) a step of preparing a precursor having features,, and: the precursor has a chabazite framework; 7 ≤ silica-alumina molar ratio ≤ 15; and 100% ≤ crystallinity determined according to the description paragraph, and (b) a step of steam-treating the precursor under conditions having features and to remove a part of Al in a zeolite framework of the precursor: 50% ≤ moisture content; and 450°C ≤ treatment temperature ≤ 800°C. (a) a step of preparing a precursor having features,, and: the precursor has a chabazite framework; 7 ≤ silica-alumina molar ratio ≤ 15; and 100% ≤ crystallinity determined according to the description paragraph, and the precursor has a chabazite framework; 7 ≤ silica-alumina molar ratio ≤ 15; and 100% ≤ crystallinity determined according to the description paragraph, and (b) a step of steam-treating the precursor under conditions having features and to remove a part of Al in a zeolite framework of the precursor: 50% ≤ moisture content; and 450°C ≤ treatment temperature ≤ 800°C. 50% ≤ moisture content; and 450°C ≤ treatment temperature ≤ 800°C.