mhurhangee/ep-ind-claims huggingface dataset:
A method for acquiring information about a relay router, comprising: sending, from a mobile terminal, a first broadcasting message to a relay router in a broadcasting monitoring mode; when determining that the first broadcasting message carries a predefined content, returning, by the relay router, a second broadcasting message; receiving, at the mobile terminal, the second broadcasting message returned by the relay router; the second broadcasting message containing address information of the relay router; when determining that the second broadcasting message carries the predefined content, acquiring, at the mobile terminal, the address information of the relay router from the second broadcasting message; after acquiring the address information of the relay router from the second broadcasting message, accessing, from the mobile terminal, the relay router via the address information; wherein the predefined content comprises a customized character string. sending, from a mobile terminal, a first broadcasting message to a relay router in a broadcasting monitoring mode; when determining that the first broadcasting message carries a predefined content, returning, by the relay router, a second broadcasting message; receiving, at the mobile terminal, the second broadcasting message returned by the relay router; the second broadcasting message containing address information of the relay router; when determining that the second broadcasting message carries the predefined content, acquiring, at the mobile terminal, the address information of the relay router from the second broadcasting message; after acquiring the address information of the relay router from the second broadcasting message, accessing, from the mobile terminal, the relay router via the address information; wherein the predefined content comprises a customized character string.
A delivery device for inserting the medical implant into a human body or an animal body, the medical implant being designed as a self-expanding prosthesis, comprising at least one outer delivery element, the outer delivery element being at least designed as a distal end of an outer shaft surrounding an inner shaft and covering a medical implant, which is arranged on the inner shaft, at least prior to or during insertion into a human body or an animal body, the outer delivery element, in the usage state, being at least regionally elastically dilatable, characterized in that the delivery element comprises a sleeve that, in the circumferential direction, comprises at least two types of circumferential segments (16, 18) having differing elasticities, one circumferential segment of the sleeve being a region of the sleeve that is designed as a narrow strip to almost as the entire lateral surface of the sleeve, and the second circumferential segment being designed as a wide strip along the longitudinal extension L of the delivery element into which the first circumferential segment is embedded as a narrow strip, and the first circumferential segment being designed to be considerably more rigid than the second circumferential segment and to be profiled.
Method for applying accelerated electrons to a liquid, characterized by the following steps: a) providing the liquid, b) mixing the liquid with particles including at least one luminophore, wherein at least one of the luminophores includes one or more ions from the group of In +, Sn 2+, Pb 2+, Sb 3+, Bi 3+, Ce 3+, Ce 4+, Pr 3+, Nd 3+, Sm 2+, Sm 3+, Eu 2+, Eu 3+, Gd 3+, Tb 3+, Dy 3+, Ho 3+, Er 3+, Tm 2+, Tm 3+, Yb 2+, Yb 3+, Ti 3+, V 2+, V 3+, V 4+, Cr 3+, Mn 2+, Mn 3+, Mn 4+, Fe 3+, Fe 4+, Fe 5+, Co 3+, Co 4+, Ni 2+, Cu +, Ru 2+, Ru 3+, Pd 2+, Ag +, Ir 3+, Pt 2+ and Au +, and wherein the particles are formed such that the particles, after the mixing, are dispersed in the liquid, wherein their speed of descent or ascent within a non-flowing volume of the liquid is less than 100 nm/s, and wherein the size and/or density of the particles is adjusted such that the particles are dispersed in the liquid after mixing, c) applying electromagnetic radiation which excites the at least one luminophore to luminescence, using light detectable by a human eye or UV radiation as electromagnetic radiation to the liquid; d) detecting an actual value of a physical parameter that characterizes the luminescence of the luminophore, where the physical parameter used that characterizes the luminescence of the luminophore is: the luminescence lifetime, the intensity of at least one wavelength of luminescence or the wavelength at which the luminescence forms its intensity maximum, e) applying accelerated electrons to the liquid until the actual value detected corresponds to a target value. a) providing the liquid, b) mixing the liquid with particles including at least one luminophore, wherein at least one of the luminophores includes one or more ions from the group of In +, Sn 2+, Pb 2+, Sb 3+, Bi 3+, Ce 3+, Ce 4+, Pr 3+, Nd 3+, Sm 2+, Sm 3+, Eu 2+, Eu 3+, Gd 3+, Tb 3+, Dy 3+, Ho 3+, Er 3+, Tm 2+, Tm 3+, Yb 2+, Yb 3+, Ti 3+, V 2+, V 3+, V 4+, Cr 3+, Mn 2+, Mn 3+, Mn 4+, Fe 3+, Fe 4+, Fe 5+, Co 3+, Co 4+, Ni 2+, Cu +, Ru 2+, Ru 3+, Pd 2+, Ag +, Ir 3+, Pt 2+ and Au +, and wherein the particles are formed such that the particles, after the mixing, are dispersed in the liquid, wherein their speed of descent or ascent within a non-flowing volume of the liquid is less than 100 nm/s, and wherein the size and/or density of the particles is adjusted such that the particles are dispersed in the liquid after mixing, c) applying electromagnetic radiation which excites the at least one luminophore to luminescence, using light detectable by a human eye or UV radiation as electromagnetic radiation to the liquid; d) detecting an actual value of a physical parameter that characterizes the luminescence of the luminophore, where the physical parameter used that characterizes the luminescence of the luminophore is: the luminescence lifetime, the intensity of at least one wavelength of luminescence or the wavelength at which the luminescence forms its intensity maximum, e) applying accelerated electrons to the liquid until the actual value detected corresponds to a target value.
A method of increasing accuracy of a location determination of mobile devices within a location-based subgroup comprising: receiving, by a processor, location data and proximity information from each of a plurality of mobile devices (101, 301 1, 301 2, 301 3, 301 4, 301 5, 301 6, 302 1, 302 2, 302 3, 302 4, 302 5, 302 6, 302 6), respectively, wherein the location data received from a first mobile device included in the plurality of mobile devices (101, 301 1, 301 2, 301 3, 301 4, 301 5, 301 6, 302 1, 302 2, 302 3, 302 4, 302 5, 302 6, 302 6) includes a fixed location of the first mobile device and the proximity information received from the first mobile device includes an identification of mobile devices (301 6, 302 5, 302 6) that are within a location fixing sensor sensitivity radius of the first mobile device; forming by the processor a subgroup of mobile devices (101, 301 6, 302 5, 302 6) based on the proximity information from each of the plurality of mobile devices, the subgroup including the first mobile device and mobile devices that have provided proximity information that identifies the first mobile device as being within the location fixing sensor sensitivity radiuses of the mobile devices, respectively; and refining, by the processor, the fixed location of the first mobile device to generate a refined location of the first mobile device, wherein refining the fixed location includes identifying an intersection of the location fixing sensor sensitivity of each of the mobile devices that are in the subgroup(101, 301 6, 302 5, 302 6). receiving, by a processor, location data and proximity information from each of a plurality of mobile devices (101, 301 1, 301 2, 301 3, 301 4, 301 5, 301 6, 302 1, 302 2, 302 3, 302 4, 302 5, 302 6, 302 6), respectively, wherein the location data received from a first mobile device included in the plurality of mobile devices (101, 301 1, 301 2, 301 3, 301 4, 301 5, 301 6, 302 1, 302 2, 302 3, 302 4, 302 5, 302 6, 302 6) includes a fixed location of the first mobile device and the proximity information received from the first mobile device includes an identification of mobile devices (301 6, 302 5, 302 6) that are within a location fixing sensor sensitivity radius of the first mobile device; forming by the processor a subgroup of mobile devices (101, 301 6, 302 5, 302 6) based on the proximity information from each of the plurality of mobile devices, the subgroup including the first mobile device and mobile devices that have provided proximity information that identifies the first mobile device as being within the location fixing sensor sensitivity radiuses of the mobile devices, respectively; and refining, by the processor, the fixed location of the first mobile device to generate a refined location of the first mobile device, wherein refining the fixed location includes identifying an intersection of the location fixing sensor sensitivity of each of the mobile devices that are in the subgroup(101, 301 6, 302 5, 302 6).
Electrical connector with a housing comprising: - a first housing element (1; 2) provided with at least one first male (3'; 10) or female connection part, - a second housing element (1; 2) provided with at least one second female or male (3'; 10) connection part respectively, able to cooperate with the first connection part; the at least one of the first and second connection parts each being formed from a cylindrical wall of longitudinal axis X and with a cross-section across axis X with at least one straight side having a length along axis X, the wall comprising, on at least one straight side of the wall, at least one elastically deformable tab made integrally with the corresponding connection part in the thickness of the cylindrical wall of this connection part, the tab being slightly remote from its rest position at the end of connection, wherein the wall defines a single cavity, characterized in that the tab has a width across axis X which is greater than half the length of said side. - a first housing element (1; 2) provided with at least one first male (3'; 10) or female connection part, - a second housing element (1; 2) provided with at least one second female or male (3'; 10) connection part respectively, able to cooperate with the first connection part;
Operating element for a household appliance, with a base body having a material, which comprises a matrix and a filler embedded in the matrix, wherein the matrix is a transparent plastic matrix and characterised in that the filler has a percentage by weight of 5% - 30% of the material and is designed to increase a mechanical strength of the material and to increase a chemical resistance of the material and is also designed to provide a predefined scattering for light coupled into the material.
A computer chassis, comprising: a number of removable walls; and a number of chassis walls including a left chassis wall and a right chassis wall; wherein each removable wall comprises: a first side rail system comprising a number of first rails for receiving a first size of a blade component; and a second side rail system comprising a number of second rails for receiving a second size of a blade component; wherein each left chassis wall and right chassis wall comprises a number of holes defined therein; and wherein each removable wall is selectively secured to the left chassis wall or the right chassis wall, such that the first rails or second rails protrude through the holes and are for receiving the first size or second size of blade component respectively. a number of removable walls; and a number of chassis walls including a left chassis wall and a right chassis wall; wherein each removable wall comprises: a first side rail system comprising a number of first rails for receiving a first size of a blade component; and a second side rail system comprising a number of second rails for receiving a second size of a blade component; a first side rail system comprising a number of first rails for receiving a first size of a blade component; and a second side rail system comprising a number of second rails for receiving a second size of a blade component; wherein each left chassis wall and right chassis wall comprises a number of holes defined therein; and wherein each removable wall is selectively secured to the left chassis wall or the right chassis wall, such that the first rails or second rails protrude through the holes and are for receiving the first size or second size of blade component respectively.
A method for capturing CO2 produced by cement plants by using the calcium cycle method wherein the cement is produced by the cement plant by the following method: grinding of raw materials comprising limestone, clay, and iron ore; homogenizing the raw materials in order to produce a raw meal; preheat the raw meal in the preheater section of a cement kiln in order to produce a preheated raw meal; calcining the preheated raw meal in the calcining section of the cement kiln in order to produce a calcined raw meal; feed said calcined raw meal into a rotary kiln in order to produce a clinker; cooling the clinker and feeding it to a mill in order to mix the clinker with gypsum and produce cement, wherein the cement kiln calciner section and rotary kiln produce combustion gases which are cooled and have a content of between a 15 to 30% of CO2 and unreacted raw meal containing CaCO3 which is filtered from the gas; and wherein the calcium cycle method comprise: contacting said combustion gases containing CO2 with a solid stream having a high CaO content inside a first fluidized bed reactor in order to produce an exothermic reaction between the CO2 and the CaO for producing a solid-gas mixture comprised by a CaC03 stream and a gaseous stream having a lower CO2 content; feeding said solid-gas stream to a cyclone for separating the solids from the gaseous stream and obtaining CaCO3 solids and a hot gaseous having a lower CO2 content; feeding the CaCO3 solids into a second fluidized bed reactor to which it is provided heat by means of a combustion reaction, in order to decarbonate the CaCO3 and produce a solid-gas mix comprised by a solid CaO stream and a gas stream comprised mainly by hot CO2 coming from the gaseous stream leaving the cement plant and from the combustion reaction that provides heat to second fluidized bed; feeding the solid CaO stream and hot CO2 stream into a second cyclone in order to separate the solids from the hot CO2 and produce a hot CO2 stream separated from a solid CaO stream; and recycling the CaO to the first fluidized bed reactor, wherein the method of the present invention comprise: feeding the combustion gases produced by the calciner section and by the rotary kiln of the cement production plant to the first fluidized bed reactor of the calcium cycle method; feeding the solid CaO stream separated by the second cyclone to the first fluidized bed reactor; purging an amount of the CaO separated by the second cyclone when the capacity of the CaO to react with the CO2 drops, and feeding it directly to the cement plant rotary kiln; and making up fresh CaO to the second fluidized bed reactor of the calcium cycle method and in which the make up of fresh CaO to the second fluidized bed comprises a mix obtained by any combination of limestone, unreacted raw meal filtered from the combustion gases produced by the cement plant and cement raw meal taken for instance directly from a cement plant silo.
A method for monitoring traffic revenue flows for a plurality of communications companies using information systems, comprising the following steps: - designing an optimal sample of transactions that maximizes the probability of detecting billing errors done by said communications companies; - executing transactions from said optimal sample of transactions through a plurality of communications networks and recording test transactions data, using concurrently a shared infrastructure comprising a plurality of robots for generating said transactions; - collecting electronic invoice lines from said communications company in a non intrusive way, through an automated browsing of the web sites of said communications companies, so as to extract billing data for each test transaction, and - processing said recorded test transactions data so as to re-rate pricing data for said test transactions, and to match said test transaction data to one or more invoice line, so as to detect billing errors performed by the said communications companies, wherein the matching step is based on the iterative processing of Calling Line Identity, Timestamp, Call Duration and Called Number to compute individual degrees of truthfulness or falsehood of matching that enable the computation of a maximum of likelihood to match one robot log to one or more invoice lines. - designing an optimal sample of transactions that maximizes the probability of detecting billing errors done by said communications companies; - executing transactions from said optimal sample of transactions through a plurality of communications networks and recording test transactions data, using concurrently a shared infrastructure comprising a plurality of robots for generating said transactions; - collecting electronic invoice lines from said communications company in a non intrusive way, through an automated browsing of the web sites of said communications companies, so as to extract billing data for each test transaction, and - processing said recorded test transactions data so as to re-rate pricing data for said test transactions, and to match said test transaction data to one or more invoice line, so as to detect billing errors performed by the said communications companies,
A sulphate salt of N -(3-(4-(3-(diisobutylamino)propyl)piperazin-1-yl)propyl)-1 H -benzo[ d]imidazol-2-amine and pharmaceutically acceptable solvates thereof for use in treating and/or preventing motor neuron diseases and neuromuscular junction disorders selected from non-FTD amyotrophic lateral sclerosis, primary lateral sclerosis, hereditary spastic paraplegia, neurolathyrism, Konzo, Tay-Sachs disease, Sandhoff disease, progressive muscular atrophy, monomelic amyotrophy, spinal muscular atrophy, spinal-bulbar muscular atrophy (SBMA), progressive bulbar palsy, post-poliomyelitis syndrome, post-irradiation syndrome, stiff-person syndrome, disorders of the motor units resulting from an accident, myasthenia gravis, Eaton-Lambert syndrome.
Method for recovering capsules containing exhausted powdered food products, comprising the steps of: - providing at least one capsule having a containment body defining a containment chamber of exhausted powdered food products axially delimited by a front wall and a rear wall; - arranging said capsule within a housing having at least a first axial opening facing said front wall; - generating an air flow passing through said at least one first axial opening of the housing and through said front wall of the capsule so as to withdraw the exhausted powdered food products contained within the capsule; - collecting the withdrawn exhausted powdered food products, and - removing the emptied capsule from the housing; characterized in that said air flow generating step is carried out by generating an overpressure or a depressure at the front wall such as to break said front wall. - providing at least one capsule having a containment body defining a containment chamber of exhausted powdered food products axially delimited by a front wall and a rear wall; - arranging said capsule within a housing having at least a first axial opening facing said front wall; - generating an air flow passing through said at least one first axial opening of the housing and through said front wall of the capsule so as to withdraw the exhausted powdered food products contained within the capsule; - collecting the withdrawn exhausted powdered food products, and - removing the emptied capsule from the housing;
A radio communication control method in a micro base station, the radio communication control method comprising the steps of: allocating, in a specific subframe, a physical downlink data channel (PDSCH) and a physical downlink control channel (X-PDCCH) by frequency-division-multiplexing to a first radio resource, from a first symbol in the first radio resource, the first radio resource being a data field corresponding to symbols following a first predetermined number of symbols in the specific subframe, allocating, in another specific subframe, a physical downlink data channel (PDSCH) and a physical downlink control channel (X-PDCCH) by frequency-division-multiplexing to a second radio resource, the second radio resource being an expanded data field including the first radio resource and given symbols prior to the first radio resource, the physical downlink data channel (PDSCH) being allocated to the second radio resource, from a first symbol in the second radio resource, and the physical downlink control channel (X-PDCCH) being allocated to symbols in the first radio resource; and notifying a user terminal of information about physical downlink control channel (X-PDCCH) configuration by higher layer signalling. allocating, in a specific subframe, a physical downlink data channel (PDSCH) and a physical downlink control channel (X-PDCCH) by frequency-division-multiplexing to a first radio resource, from a first symbol in the first radio resource, the first radio resource being a data field corresponding to symbols following a first predetermined number of symbols in the specific subframe, allocating, in another specific subframe, a physical downlink data channel (PDSCH) and a physical downlink control channel (X-PDCCH) by frequency-division-multiplexing to a second radio resource, the second radio resource being an expanded data field including the first radio resource and given symbols prior to the first radio resource, the physical downlink data channel (PDSCH) being allocated to the second radio resource, from a first symbol in the second radio resource, and the physical downlink control channel (X-PDCCH) being allocated to symbols in the first radio resource; and notifying a user terminal of information about physical downlink control channel (X-PDCCH) configuration by higher layer signalling.
A process for the preparation of -3-chloro-4-(2,3-dihydroxypropoxy)-benzaldehyde: which process comprises reacting 3-chloro-4-hydroxybenzaldehyde with -3-chloro-1,2-propanediol and isolating the obtained -3-chloro-4-(2,3-dihydroxypropoxy)-benzaldehyde by crystallisation, wherein the reaction of 3-chloro-4-hydroxybenzaldehyde with -3-chloro-1,2-propanediol is performed in the presence of the base potassium tert- butoxide and the solvent n-propanol, at a temperature higher than 50 °C, and wherein the obtained -3-chloro-4-(2,3-dihydroxypropoxy)-benzaldehyde is crystallised in water plus the co-solvent n-propanol.
An electrically driven biaxial actuator comprising first and second electric motors each having a separate armature, the first motor being a linear electric motor arranged to provide axial movement of an output shaft and the second motor arranged to provide rotary motion of the output shaft, wherein the armature of the linear motor is fastened to the output shaft such that rotation of the shaft causes rotation of the armature, and the armature of the second motor is adapted to cooperate with the shaft to allow independent axial movement of the shaft without movement of the armature.
Nonwoven fabric comprising fibers of a fiber raw material which consists exclusively of gelatin, the fibers having been provided with an antibiotic and adhesion factors or growth factors, namely autologous or recombinant growth factors, produced by a rotational spinning method, the fiber raw material being introduced into a container, the container being caused to rotate and the fluidized fiber raw material being discharged by centripedal forces from the container in the form of fibers, characterized in that the antibiotic is homogeneously distributed in the fibers.