mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling transmission of multicast data in a cellular network, the method comprising: a gateway allocating a set of multicast sessions (111, 112) to a single Internet Protocol Multicast group; for each of the multicast sessions (111, 112), the gateway indicating an Internet Protocol Multicast address of the Internet Protocol Multicast group to at least one radio access network node of the cellular network; for each of the multicast sessions (111, 112), the gateway indicating a different identifier to the at least one radio access network node; and the gateway sending multicast data of the multicast sessions (111, 112) in one or more Internet Protocol Multicast data packets addressed to the Internet Protocol Multicast address of the Internet Protocol Multicast group, the multicast data of each of the multicast sessions (111, 112) being user plane data intended for a plurality of user equipments and comprising the respective identifier to identify the multicast session (111, 112). a gateway allocating a set of multicast sessions (111, 112) to a single Internet Protocol Multicast group; for each of the multicast sessions (111, 112), the gateway indicating an Internet Protocol Multicast address of the Internet Protocol Multicast group to at least one radio access network node of the cellular network; for each of the multicast sessions (111, 112), the gateway indicating a different identifier to the at least one radio access network node; and the gateway sending multicast data of the multicast sessions (111, 112) in one or more Internet Protocol Multicast data packets addressed to the Internet Protocol Multicast address of the Internet Protocol Multicast group, the multicast data of each of the multicast sessions (111, 112) being user plane data intended for a plurality of user equipments and comprising the respective identifier to identify the multicast session (111, 112).
A thruster system for use in a spacecraft, the thruster system comprising: a microwave source; a resonant cavity coupled to the microwave source, wherein the microwave source is configured to generate a standing wave field in the resonant cavity; a nozzle provided at one end of the resonant cavity; at least one injector configured to inject propellant into the resonant cavity so as to create a rotating circumferential flow; and an annular structure extending into the resonant cavity to support the at least one injector, wherein the annular structure determines a location of an outlet of each said at least one injector in terms of a distance along a thrust axis and in terms of a radial distance along a perpendicular to the thrust axis; and wherein the standing wave field raises a temperature of the injected propellant to provide thrust by way of a hot gas exiting the resonant cavity via the nozzle. a microwave source; a resonant cavity coupled to the microwave source, wherein the microwave source is configured to generate a standing wave field in the resonant cavity; a nozzle provided at one end of the resonant cavity; at least one injector configured to inject propellant into the resonant cavity so as to create a rotating circumferential flow; and an annular structure extending into the resonant cavity to support the at least one injector, wherein the annular structure determines a location of an outlet of each said at least one injector in terms of a distance along a thrust axis and in terms of a radial distance along a perpendicular to the thrust axis; and wherein the standing wave field raises a temperature of the injected propellant to provide thrust by way of a hot gas exiting the resonant cavity via the nozzle.
A method comprising: creating a domain name cache with entries associating server domains and/or domain names with corresponding server IP addresses; identifying (310,410) an IP flow from traffic data in a communication network; assigning (312,416) a preliminary classification to the IP flow based on protocol information contained in a first packet of the IP flow and at least one classification override rule, the preliminary classification being indicative of at least a priority for the IP flow; performing a reverse domain name lookup in the domain name cache (320,428) using a server IP address of a server end of the IP flow; in case one or more matching server domains and/or domain names are present in the domain name cache, associating (324,426) the one or more matching server domains and/or domain names with the IP flow, and assigning (318, 438) an initial classification to the IP flow based on information contained in a header of the first packet and the one or more matching server domains and/or domain names; in case no matching server domains and/or domain names are present in the domain name cache, analyzing (314,424) subsequent packets within the IP flow to determine a domain name associated with the server end of the IP flow based on one or more predetermined factors; associating (316,426) the domain name with the IP flow; and assigning (318,432) an initial classification to the IP flow based, at least in part, on the analysis, the domain name, and at least one classification override rule, the initial classification being indicative of at least a priority for the IP flow. creating a domain name cache with entries associating server domains and/or domain names with corresponding server IP addresses; identifying (310,410) an IP flow from traffic data in a communication network; assigning (312,416) a preliminary classification to the IP flow based on protocol information contained in a first packet of the IP flow and at least one classification override rule, the preliminary classification being indicative of at least a priority for the IP flow; performing a reverse domain name lookup in the domain name cache (320,428) using a server IP address of a server end of the IP flow; in case one or more matching server domains and/or domain names are present in the domain name cache, associating (324,426) the one or more matching server domains and/or domain names with the IP flow, and assigning (318, 438) an initial classification to the IP flow based on information contained in a header of the first packet and the one or more matching server domains and/or domain names; in case no matching server domains and/or domain names are present in the domain name cache, analyzing (314,424) subsequent packets within the IP flow to determine a domain name associated with the server end of the IP flow based on one or more predetermined factors; associating (316,426) the domain name with the IP flow; and assigning (318,432) an initial classification to the IP flow based, at least in part, on the analysis, the domain name, and at least one classification override rule, the initial classification being indicative of at least a priority for the IP flow.
A refillable hydrogen fuel source storage cartridge for storing a compatible hydrogen fuel source, the storage cartridge comprising: a bladder that contains the hydrogen fuel source and conforms to the volume of the hydrogen fuel source in the bladder; a housing that provides mechanical protection for the bladder, includes an internal cavity that contains the bladder, and includes an air vent that permits air to enter and exit the internal cavity such that the volume of the bladder changes without a pressure provided external to the bladder; a connector that interfaces with a mating connector to permit transfer of the fuel source between the bladder and a device that includes the mating connector; and, the cartridge characterized in that a memory (106, 158) is arranged to store information written to it by a controller relevant to a previous usage history, if any, of the storage cartridge as a plurality of predetermined memory elements comprising at least for two or more of the following:- number of refills, hydrogen fuel mixture nature, refill date, fuel source usage and/or current fuel volume after each refill whereby the cartridge can be refilled with a compatible hydrogen fuel source for a certified fuel blend. a bladder that contains the hydrogen fuel source and conforms to the volume of the hydrogen fuel source in the bladder; a housing that provides mechanical protection for the bladder, includes an internal cavity that contains the bladder, and includes an air vent that permits air to enter and exit the internal cavity such that the volume of the bladder changes without a pressure provided external to the bladder; a connector that interfaces with a mating connector to permit transfer of the fuel source between the bladder and a device that includes the mating connector; and, the cartridge characterized in that a memory (106, 158) is arranged to store information written to it by a controller relevant to a previous usage history, if any, of the storage cartridge as a plurality of predetermined memory elements comprising at least for two or more of the following:- number of refills, hydrogen fuel mixture nature, refill date, fuel source usage and/or current fuel volume after each refill whereby the cartridge can be refilled with a compatible hydrogen fuel source for a certified fuel blend. number of refills, hydrogen fuel mixture nature, refill date, fuel source usage and/or current fuel volume after each refill whereby the cartridge can be refilled with a compatible hydrogen fuel source for a certified fuel blend.
A variant of a parent lipase, wherein the variant has - at least 80%, but less than 100% sequence identity to the parent lipase shown as SEQ ID NO: 2; - lipase activity, and comprises a substitution at a position corresponding to position 51 of SEQ ID NO: 2 and comprises a substitution or remains unaltered at a position corresponding to position 96 of SEQ ID NO: 2; wherein the substitution at a position corresponding to position 51 of SEQ ID NO: 2 is I, L, M, V or Y. - at least 80%, but less than 100% sequence identity to the parent lipase shown as SEQ ID NO: 2; - lipase activity, and comprises a substitution at a position corresponding to position 51 of SEQ ID NO: 2 and comprises a substitution or remains unaltered at a position corresponding to position 96 of SEQ ID NO: 2; wherein the substitution at a position corresponding to position 51 of SEQ ID NO: 2 is I, L, M, V or Y.
A device for creating a plurality of challenge-response pairs comprising: a laser radiation source, a challenge modifying element, a radiation scattering element, and a radiation detecting element; said laser radiation source being arranged to create a challenge by irradiating said challenge modifying element; said challenge modifying element being arranged to modify said laser radiation received from said radiation source and reflect said modified laser radiation towards said radiation scattering element to create a plurality of challenges; said radiation scattering element being arranged to scatter laser radiation received from said radiation source via said challenge modifying element, and to produce a speckle pattern therefrom; and said radiation detecting element being arranged to create a response to said modified and scattered laser radiation comprising said speckle pattern, which modified and scattered laser radiation is received from said laser radiation source via said radiation scattering element; wherein said challenge modifying element and said radiation detection element are arranged on the same substrate on a first side of an imaginary plane, and said radiation scattering element is arranged on a second side of said imaginary plane, such that said scattered radiation intersects said imaginary plane before it reaches said radiation detection element. a laser radiation source, a challenge modifying element, a radiation scattering element, and a radiation detecting element; said laser radiation source being arranged to create a challenge by irradiating said challenge modifying element; said challenge modifying element being arranged to modify said laser radiation received from said radiation source and reflect said modified laser radiation towards said radiation scattering element to create a plurality of challenges; said radiation scattering element being arranged to scatter laser radiation received from said radiation source via said challenge modifying element, and to produce a speckle pattern therefrom; and said radiation detecting element being arranged to create a response to said modified and scattered laser radiation comprising said speckle pattern, which modified and scattered laser radiation is received from said laser radiation source via said radiation scattering element; wherein said challenge modifying element and said radiation detection element are arranged on the same substrate on a first side of an imaginary plane, and said radiation scattering element is arranged on a second side of said imaginary plane, such that said scattered radiation intersects said imaginary plane before it reaches said radiation detection element.
Electromotively actuated drum brake module with cable pull actuator arrangement for motor vehicles, comprising an electromechanical cable pull actuator which is arranged on an outer side of the anchor plate and which serves for driving a rotation-translation converter for converting a rotational drive input rotary movement into a translational actuation movement of brake pads (6a,b), which brake pads are arranged on an inner side, averted from the cable pull actuator, of the anchor plate in the interior of a brake drum, such that said brake pads can perform an actuation movement in the direction of the brake drum, and wherein an adapter is arranged between cable pull actuator and anchor plate, which adapter is provided in the form of a unipartite and thin-walled frame which, on one side, has at least one planar fastening flange for accommodating the cable pull actuator, and wherein the frame is fixed at the other side to the anchor plate, characterized in that the frame is provided in unipartite form with multiple thin struts (32, 33, 34) which are arranged at an angle and obliquely with respect to one another and which extend between fastening flange and anchor plate.
A Cu 2 Zn 0.14 Sn 0.25 Te 2.34 nanocrystalline solution, characterized in that the particle size of Cu 2 Zn 0.14 Sn 0.25 Te 2.34 nanocrystallines dispersed in the Cu 2 Zn 0.14 Sn 0.25 Te 2.34 nanocrystalline solution is 5 to 20 nm; the band gap of the Cu 2 Zn 0.14 Sn 0.25 Te 2.34 nanocrystallines is 0.8 to 1.5 ev; and the grain surface of the Cu 2 Zn 0.14 Sn 0.25 Te 2.34 nanocrystallines has organic functional groups.
A method for manufacturing an encapsulant film, comprising: preparing a modified olefin resin by extrusion reacting an olefin resin composition, which comprises an olefin resin, an unsaturated silane compound, and an aminosilane compound in an amount of 1 to 35 parts by weight based on 100 parts by weight of the unsaturated silane compound, and a radical initiator.
Use of an aqueous emulsion containing a propylethoxysilane oligomer mixture or a mixture of a propylethoxysilane oligomer mixture and octyltriethoxysilane in a weight ratio of 3:1 to 1:3, at least one emulsifier or an emulsifier system, at least one content of a 2-aminoethanol and water as an addition in the production of hydraulically setting cement mixtures for reduction of shrinkage characteristics.
A particle recovery device for recovering particles contained in a liquid sample, the particle recovery device comprising: a flow cell having a flow path through which the liquid sample flows; a density acquisition unit that acquires a density of the liquid sample; standing wave forming means (16,42) that applies an ultrasonic wave into the flow path to generate a standing wave; recovery means (20,22,56,58) that recovers particles focused at a predetermined location in the flow path by the standing wave; and a control unit that determines a frequency of the ultrasonic wave that generates the standing wave in the flow path based on the density acquired by the density acquisition unit and causes the standing wave forming means (16,42) to apply the ultrasonic wave of the determined frequency, wherein the frequency is determined so that a node of the standing wave is formed at the predetermined location in the flow path, and the recovery means recovers the particles gathered by the standing wave. a flow cell having a flow path through which the liquid sample flows; a density acquisition unit that acquires a density of the liquid sample; standing wave forming means (16,42) that applies an ultrasonic wave into the flow path to generate a standing wave; recovery means (20,22,56,58) that recovers particles focused at a predetermined location in the flow path by the standing wave; and a control unit that determines a frequency of the ultrasonic wave that generates the standing wave in the flow path based on the density acquired by the density acquisition unit and causes the standing wave forming means (16,42) to apply the ultrasonic wave of the determined frequency, wherein the frequency is determined so that a node of the standing wave is formed at the predetermined location in the flow path, and the recovery means recovers the particles gathered by the standing wave.
A whippable topping composition comprising: (a) 10 to 30 % by weight of water-soluble carbohydrates; 8 to 30 % by weight of hydrogenated vegetable fat; 0 to 13 % by weight of milk fat; (c) 0.5 to 1.5 % by weight of an emulsifier formulation consisting of 1 to n different emulsifier compounds (ci) and having an HLB Formulation value according to formula of less than 9: HL B Formulation = ∑ i = 1 n HL B i ⋅ x i wherein HLB i and x i are the HLB value and weight fraction (based on the total weight of the emulsifier formulation) of the i th emulsifier compound (ci); 0.05 to 0.9 % by weight of a first hydroxypropyl methylcellulose having an average degree of substitution DS methyl of from 1.4 to 2.5 and a 2 % by weight aqueous solution viscosity of from 20 to 100 mPa·s at 25°C; 0.005 to 0.2 % by weight of a second hydroxypropyl methylcellulose having an average degree of substitution DS methyl of from 0.8 to 1.9 and a 2 % by weight aqueous solution viscosity of from 2800 to 5500 mPa·s at 25°C; (e) 0.02 to 0.4 % by weight of protein; and (f) 0 to 0.17 % by weight of non-protein hydrocolloid stabilizer different from components (d); (g) water in an amount adding up to 100 % by weight, all percentages being based on the total weight of the whippable topping composition, wherein the weight ratio of first hydroxypropyl methylcellulose to second hydroxypropyl methylcellulose is within the range of from 3:1 to 13:1. (a) 10 to 30 % by weight of water-soluble carbohydrates; 8 to 30 % by weight of hydrogenated vegetable fat; 0 to 13 % by weight of milk fat; (c) 0.5 to 1.5 % by weight of an emulsifier formulation consisting of 1 to n different emulsifier compounds (ci) and having an HLB Formulation value according to formula of less than 9: HL B Formulation = ∑ i = 1 n HL B i ⋅ x i wherein HLB i and x i are the HLB value and weight fraction (based on the total weight of the emulsifier formulation) of the i th emulsifier compound (ci); 0.05 to 0.9 % by weight of a first hydroxypropyl methylcellulose having an average degree of substitution DS methyl of from 1.4 to 2.5 and a 2 % by weight aqueous solution viscosity of from 20 to 100 mPa·s at 25°C; 0.005 to 0.2 % by weight of a second hydroxypropyl methylcellulose having an average degree of substitution DS methyl of from 0.8 to 1.9 and a 2 % by weight aqueous solution viscosity of from 2800 to 5500 mPa·s at 25°C; (e) 0.02 to 0.4 % by weight of protein; and (f) 0 to 0.17 % by weight of non-protein hydrocolloid stabilizer different from components (d); (g) water in an amount adding up to 100 % by weight,
An arrangement, comprising a medical laser; and a controller for the medical laser; wherein the controller is configured to: detect a turn-on event; if a turn-on event is detected, perform a test to determine whether a turn-off timer has expired, the turn-off timer being a device that starts when operation of the medical laser ceases and then counts time until a set limit is reached, wherein the timer is said to have expired if the turn-off timer count reaches the set limit; and if the turn-off timer has expired, generate a sequence of laser pulses having a set power level, the sequence beginning with a startup sequence (85, 100) of pulses of electromagnetic energy, the startup sequence (85, 100) comprising an initial sequence having at least one pulse, the at least one pulse having a startup power level that is less than the set power level. a medical laser; and a controller for the medical laser; wherein the controller is configured to: detect a turn-on event; if a turn-on event is detected, perform a test to determine whether a turn-off timer has expired, the turn-off timer being a device that starts when operation of the medical laser ceases and then counts time until a set limit is reached, wherein the timer is said to have expired if the turn-off timer count reaches the set limit; and if the turn-off timer has expired, generate a sequence of laser pulses having a set power level, the sequence beginning with a startup sequence (85, 100) of pulses of electromagnetic energy, the startup sequence (85, 100) comprising an initial sequence having at least one pulse, the at least one pulse having a startup power level that is less than the set power level. detect a turn-on event; if a turn-on event is detected, perform a test to determine whether a turn-off timer has expired, the turn-off timer being a device that starts when operation of the medical laser ceases and then counts time until a set limit is reached, wherein the timer is said to have expired if the turn-off timer count reaches the set limit; and if the turn-off timer has expired, generate a sequence of laser pulses having a set power level, the sequence beginning with a startup sequence (85, 100) of pulses of electromagnetic energy, the startup sequence (85, 100) comprising an initial sequence having at least one pulse, the at least one pulse having a startup power level that is less than the set power level.