mhurhangee/ep-ind-claims huggingface dataset:
A user equipment, comprising means configured for receiving a first message from a first network node as an encrypted message dedicated to the user equipment, the first message indicating information for at least one network slice in one or more radio network areas, wherein the information of the first message indicates, for each of the one or more radio network areas, how a given network slice is indexed in a second message in a given radio network area; receiving a second message from a second network node as a broadcasted message, the second message indicating configuration information for one or more network slices, wherein the configuration information of the second message indicates a mapping between different configurations and different network slices, wherein each network slice is identified in the second message by an index specific to the radio network area where the second message is received, and the configuration information of the second message indicates a random access configuration for a given network slice in the radio network area where the second message is received; determining a configuration to be used for a given network slice based on the first and second messages. receiving a first message from a first network node as an encrypted message dedicated to the user equipment, the first message indicating information for at least one network slice in one or more radio network areas, wherein the information of the first message indicates, for each of the one or more radio network areas, how a given network slice is indexed in a second message in a given radio network area; receiving a second message from a second network node as a broadcasted message, the second message indicating configuration information for one or more network slices, wherein the configuration information of the second message indicates a mapping between different configurations and different network slices, wherein each network slice is identified in the second message by an index specific to the radio network area where the second message is received, and the configuration information of the second message indicates a random access configuration for a given network slice in the radio network area where the second message is received; determining a configuration to be used for a given network slice based on the first and second messages.
A method comprising: receiving, from a wireless recipient station, a request (200, 400, 606) to establish a reliable multicast/broadcast session with the recipient station; and transmitting, to the recipient station, a response (300, 500, 608) to the request to establish the reliable multicast/broadcast session; the method being characterized in that the request includes a field indicating whether the recipient station requests to receive data associated with the reliable multicast/broadcast session as unicast data, and wherein the response includes a field indicating whether the data for the reliable multicast/broadcast session will be transmitted to the wireless recipient station as unicast data. receiving, from a wireless recipient station, a request (200, 400, 606) to establish a reliable multicast/broadcast session with the recipient station; and transmitting, to the recipient station, a response (300, 500, 608) to the request to establish the reliable multicast/broadcast session; the method being characterized in that the request includes a field indicating whether the recipient station requests to receive data associated with the reliable multicast/broadcast session as unicast data, and wherein the response includes a field indicating whether the data for the reliable multicast/broadcast session will be transmitted to the wireless recipient station as unicast data.
A network protection entity for protecting a communication network against fraud messages, the network protection element comprising: a physical interface (101, FE0) comprising a connection trunk associated to the physical interface for receiving a communication message, wherein the communication message comprises a message source address and a port number and wherein the communication message is directed to a destination within the communication network; a storage for storing an appropriate table which appropriate table is appropriate for indicating a dedicated source address and a dedicated port number for the physical interface (101, FE0) and the associated connection trunk; and a processor configured to retrieve the dedicated source address and the dedicated port number from the storage and to compare the message source address with the dedicated source address and the port number with the dedicated port number, wherein the processor is further configured to discard the communication message if either the message source address differs from the dedicated source address or the port number differs from the dedicated port number, characterized in that the processor is configured to create a content of the appropriate table based on IP messages sent out over the physical interface (101, FE0), in which IP messages a time-to-live field was set to one. a physical interface (101, FE0) comprising a connection trunk associated to the physical interface for receiving a communication message, wherein the communication message comprises a message source address and a port number and wherein the communication message is directed to a destination within the communication network; a storage for storing an appropriate table which appropriate table is appropriate for indicating a dedicated source address and a dedicated port number for the physical interface (101, FE0) and the associated connection trunk; and a processor configured to retrieve the dedicated source address and the dedicated port number from the storage and to compare the message source address with the dedicated source address and the port number with the dedicated port number, wherein the processor is further configured to discard the communication message if either the message source address differs from the dedicated source address or the port number differs from the dedicated port number, characterized in that the processor is configured to create a content of the appropriate table based on IP messages sent out over the physical interface (101, FE0), in which IP messages a time-to-live field was set to one.
Plug device of the type of a cigarette lighter plug, in particular for motor vehicles, for electrical connection to a low-voltage socket, with a casing part (12, 12A, 12B) located outside the socket, with a contacting sleeve insertable into a contact bushing of the socket, with an electrical contact means (22A, 22B) that is spread springelastically laterally outwards through wall recesses in the resting state, with at least one independent clamping means arranged in at least one other casing wall recess of the contacting sleeve, having at least one clamp jaw and serving for mechanical contacting for a secure hold on the socket to fix the plug device mechanically following its introduction into the socket, with at least one spreading means for spreading the at least one clamp jaw outwards with reference to the contacting sleeve and with means for moving the at least one spreading means, wherein a directional component runs in the movement parallel to the insertion direction of the plug device upon introduction into the socket, characterised by that the means for moving the at least one spreading means comprise a push button arranged on the casing part (12, 12A, 12B) located outside the socket and are formed in such a way that the movement of the at least one spreading means takes place from a resting position releasing the independent clamp jaws into a lockable spreading position of the at least one clamp jaw.
A patch antenna, comprising: a ground plane disposed in a first plane, the ground plane having a first aperture; and a feed line, wherein the antenna is configured to be fed at the aperture with an RF signal by the feed line; and a main patch disposed in a second plane parallel to the first plane, the first and second planes spaced apart to form a first antenna cavity between the ground plane and the main patch, the main patch having a second aperture, wherein the first aperture is linear and the second aperture is linear and parallel to the first aperture, and wherein the patch antenna has at least a first desired resonant frequency within a millimeter wave frequency range over which wireless communications is supported and the first desired resonant frequency is configured to decrease with increases in a length of the second aperture, the length of the second aperture being configured to achieve the first desired resonant frequency of the patch antenna. a ground plane disposed in a first plane, the ground plane having a first aperture; and a feed line, wherein the antenna is configured to be fed at the aperture with an RF signal by the feed line; and a main patch disposed in a second plane parallel to the first plane, the first and second planes spaced apart to form a first antenna cavity between the ground plane and the main patch, the main patch having a second aperture, wherein the first aperture is linear and the second aperture is linear and parallel to the first aperture, and wherein the patch antenna has at least a first desired resonant frequency within a millimeter wave frequency range over which wireless communications is supported and the first desired resonant frequency is configured to decrease with increases in a length of the second aperture, the length of the second aperture being configured to achieve the first desired resonant frequency of the patch antenna.
A method of operating a hearing aid system comprising the steps of: - providing an electrical input signal representing an acoustical signal from an input transducer of the hearing aid system; - splitting the input signal into a first plurality of frequency bands; - determining a measure of the signal variability for each band of a second plurality of frequency bands; - determining a common threshold level based on the determined measures of the signal variability for each band of the second plurality of frequency bands; - applying a first gain to a frequency band based on an evaluation of the determined measure of the signal variability for said frequency band relative to the common threshold level; - combining the first plurality of frequency bands into an electrical output signal; - using the electrical output signal for driving an output transducer of the hearing aid system, wherein the second plurality of frequency bands consists of all the first plurality of frequency bands or is a proper subset of the first plurality of frequency bands. - providing an electrical input signal representing an acoustical signal from an input transducer of the hearing aid system; - splitting the input signal into a first plurality of frequency bands; - determining a measure of the signal variability for each band of a second plurality of frequency bands; - determining a common threshold level based on the determined measures of the signal variability for each band of the second plurality of frequency bands; - applying a first gain to a frequency band based on an evaluation of the determined measure of the signal variability for said frequency band relative to the common threshold level; - combining the first plurality of frequency bands into an electrical output signal; - using the electrical output signal for driving an output transducer of the hearing aid system, wherein the second plurality of frequency bands consists of all the first plurality of frequency bands or is a proper subset of the first plurality of frequency bands.
Dissymmetric nickel complex of formula: in which - the groups R 1 and R' 1, which may be identical or different, and may or may not be linked, are selected from the non-aromatic groups not containing silicon, - the groups R 2 and R' 2, which may be identical or different, and may or may not be linked, are selected from the aromatic groups, - R 3 is selected from hydrogen, the halogens, the aliphatic hydrocarbon groups, cyclical or not, and which may or may not contain heteroelements, and the aromatic groups which may or may not contain heteroelements, which may or may not be substituted, - X is an anion or an electron donor, the groups X may or may not be linked, X is selected from hydrogen, the halogens, the aliphatic hydrocarbon groups, cyclical or not, and which may or may not contain heteroelements, which may or may not be substituted, and the aromatic groups which may or may not contain heteroelements, which may or may not be substituted, the olefins, which may or may contain heteroelements, which may or may not be substituted, the borates, the phosphates, the sulphates, the phosphorous ligands which may or may not contain heteroelements, which may or may not be substituted, the -OR 4 or -N(R 5)(R 6) groups, where R 4, R 5 and R 6 are selected from the aliphatic hydrocarbons groups, cyclical, which may or may not contain heteroelements, the aromatic groups which may or may not contain heteroelements, which may or may not be substituted, - a is a whole number between 1 and 4, b is a whole number between 0 and 6, and c is a whole number between 1 and 4. - the groups R 1 and R' 1, which may be identical or different, and may or may not be linked, are selected from the non-aromatic groups not containing silicon, - the groups R 2 and R' 2, which may be identical or different, and may or may not be linked, are selected from the aromatic groups, - R 3 is selected from hydrogen, the halogens, the aliphatic hydrocarbon groups, cyclical or not, and which may or may not contain heteroelements, and the aromatic groups which may or may not contain heteroelements, which may or may not be substituted, - X is an anion or an electron donor, the groups X may or may not be linked, X is selected from hydrogen, the halogens, the aliphatic hydrocarbon groups, cyclical or not, and which may or may not contain heteroelements, which may or may not be substituted, and the aromatic groups which may or may not contain heteroelements, which may or may not be substituted, the olefins, which may or may contain heteroelements, which may or may not be substituted, the borates, the phosphates, the sulphates, the phosphorous ligands which may or may not contain heteroelements, which may or may not be substituted, the -OR 4 or -N(R 5)(R 6) groups, where R 4, R 5 and R 6 are selected from the aliphatic hydrocarbons groups, cyclical, which may or may not contain heteroelements, the aromatic groups which may or may not contain heteroelements, which may or may not be substituted, - a is a whole number between 1 and 4, b is a whole number between 0 and 6, and c is a whole number between 1 and 4.
A process for preparing organopolysiloxane resins, where in a first continuous step in an upright circulation reactor, which, via a heating assembly on the ascending part of the tube reactor, regulates the temperature in the circulation reactor, organochlorosilanes are reacted with 0.10 to 0.75 mol of water per mole of hydrolyzable chlorine and with 0.3 to 1.0 mol of alcohol per mole of hydrolyzable chlorine, where the molar ratio of water to alcohol is 0.10 to 2.5, where the ratio of hydrous alcohol to silane mixture is regulated within the stated boundaries in such a way that the fraction of the alcohol phase in the product mixture of this first step is 0.1 - 50 wt%, where the temperature of the reaction medium is captured by the heating assembly to a temperature as regulated variable, compared with a fixed temperature in the range of 20 - 60°C as control variable, and is regulated with an accuracy of 5°C in the sense of an alignment to the control variable, and the amount of alcohol used in this first step is reduced to an extent such that the fraction of alcohol phase in the overall product mixture of the first step is 0.1 - 50 wt%, where the hydrous alcohol used here may comprise up to 31 wt% of dissolved HCl and up to 5 wt% of water-insoluble organic solvents, in a second step, to the reaction mixture obtained in the first step, water-insoluble organic solvent having a density of below 0.95 kg/l is added and water is metered in amounts of 1.5 to 5 mol of water per mole of Si component and, moreover, 0.1 to 0.5 mol of alcohol per mole of silicon component is added, and, after the end of the metered additions in the second step, the alcoholic HCl phase is separated off, and in a third step, to the siloxane phase of the second step, optionally water-insoluble organic solvent having a density of below 0.95 kg/l is added and water is metered in amounts of 5 to 200 mol of water per mole of Si component, and in a fourth step, after the end of the addition of water in the third step, the aqueous phase formed is separated off from the siloxane phase.
A method of making a smokeless tobacco composition containing an effervescent material, comprising: (i) preparing a granulation mixture comprising a tobacco material, a first portion of an acid component, and at least one additive selected from the group consisting of salts, flavorants, sweeteners, fillers, binders, buffering agents, colorants, humectants, oral care additives, preservatives, syrups, disintegration aids, antioxidants, additives derived from an herbal or botanical source, flow aids, compressibility aids, and combinations thereof; (ii) granulating the granulation mixture by mixing the granulation mixture with a binding solution to form a granular material; (iii) blending the granular material with a base component, a second portion of an acid component, and at least one additive selected from the group consisting of salts, flavorants, sweeteners, fillers, binders, buffering agents, colorants, humectants, oral care additives, preservatives, syrups, disintegration aids, antioxidants, additives derived from an herbal or botanical source, flow aids, compressibility aids, and combinations thereof to form a smokeless tobacco composition comprising an effervescent material; and (iv) forming the smokeless tobacco composition into a predetermined shape. (i) preparing a granulation mixture comprising a tobacco material, a first portion of an acid component, and at least one additive selected from the group consisting of salts, flavorants, sweeteners, fillers, binders, buffering agents, colorants, humectants, oral care additives, preservatives, syrups, disintegration aids, antioxidants, additives derived from an herbal or botanical source, flow aids, compressibility aids, and combinations thereof; (ii) granulating the granulation mixture by mixing the granulation mixture with a binding solution to form a granular material; (iii) blending the granular material with a base component, a second portion of an acid component, and at least one additive selected from the group consisting of salts, flavorants, sweeteners, fillers, binders, buffering agents, colorants, humectants, oral care additives, preservatives, syrups, disintegration aids, antioxidants, additives derived from an herbal or botanical source, flow aids, compressibility aids, and combinations thereof to form a smokeless tobacco composition comprising an effervescent material; and (iv) forming the smokeless tobacco composition into a predetermined shape.
An austenitic steel welded joint produced by welding base metal with a gas tungsten arc welding process which uses welding material, wherein the base metal has a chemical composition consisting of, by mass%, C: 0.002% or more and 0.1% or less; Si: 0.01% or more and 0.8% or less; Mn: 2.5 to 5.5%; Ni: 8 to 15%; Cr: 19 to 25%; Al: 0.003% or more and less than 0.05%; N: 0.15 to 0.45%; and optionally one or more of, by mass%, V: 0.5% or less, Nb: 0.5% or less, and Mo: 4.5% or less, the balance being Fe and impurities that contain O: 0.02% or less, P: 0.05% or less, and S: 0.03% or less, and the welding material has a chemical composition consisting of, by mass%, C: 0.002% or more and 0.1% or less; Si: 0.01% or more and 0.8% or less; Mn: 1.5 to 4.5%; Ni: 8 to 15%; Cr: 18 to 24%; Al: 0.003% or more and less than 0.05%; N: 0.15 to 0.35%; and optionally one or more of, by mass%, V: 0.5% or less, Nb: 0.5% or less, and Mo: 4.5% or less, the balance being Fe and impurities that contain O: 0.02% or less, P: 0.05% or less, and S: 0.03% or less, wherein weld metal has a chemical composition consisting of, by mass%, C: 0.002% or more and 0.1% or less; Si: 0.01% or more and 0.8% or less; Mn: 1.5 to 5.5%; Ni: 8 to 15%; Cr: 18 to 24%; Al: 0.003% or more and less than 0.05%; N: 0.15 to 0.35%; and optionally one or more of, by mass%, V: 0.5% or less, Nb: 0.5% or less, and Mo: 4.5% or less, the balance being Fe and impurities that contain O: 0.02% or less, P: 0.05% or less, and S: 0.03% or less, the chemical composition of the weld metal satisfies Formula, and an amount of ferrite in the weld metal is 0 to 20% in area ratio, wherein Formula is given by 413 − 462 C + N − 9.2 Si − 8.1 Mn − 13.7 Cr − 9.5 Ni − 18.5 Mo ≤ − 70 where a symbol of each element in Formula denotes a content (mass%) of the element.
A conductive material, comprising: a first element selected from a transition metal, a platinum-group element, a rare earth element, and a combination thereof; a second element having an atomic radius which is 10 percent less than to 10 percent greater than an atomic radius of the first element; and a chalcogen element, wherein the conductive material has a layered crystal structure; and wherein the conductive material is represented by Chemical Formula 1: Chemical Formula 1 M 1 1-a M 2 a X 2 wherein, in Chemical Formula 1, M 1 is the first element, M 2 is the second element, X is the chalcogen element, and 0<a<0.5; wherein the conductive material comprises a plurality of nanosheets having a thickness of less than or equal to 200 nm, and wherein the nanosheets contact to each other to provide an electrical connection. a first element selected from a transition metal, a platinum-group element, a rare earth element, and a combination thereof; a second element having an atomic radius which is 10 percent less than to 10 percent greater than an atomic radius of the first element; and a chalcogen element, wherein the conductive material has a layered crystal structure; and wherein the conductive material is represented by Chemical Formula 1: Chemical Formula 1 M 1 1-a M 2 a X 2 wherein, in Chemical Formula 1, M 1 is the first element, M 2 is the second element, X is the chalcogen element, and 0<a<0.5; wherein the conductive material comprises a plurality of nanosheets having a thickness of less than or equal to 200 nm, and wherein the nanosheets contact to each other to provide an electrical connection. M 1 is the first element, M 2 is the second element, X is the chalcogen element, and 0<a<0.5; wherein the conductive material comprises a plurality of nanosheets having a thickness of less than or equal to 200 nm, and wherein the nanosheets contact to each other to provide an electrical connection.