mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, at a selector, data representative of at least one of a quality of service requirement of an application and a user preference associated with the application at a user equipment, wherein the selector comprises middleware interfacing the application with at least one connection (212A, 212B); selecting, at the selector and based on all the received data, the at least one connection to provide the application access to a service (199A, 199B, 299A, 299B); and initiating, at the selector, establishment of the at least one connection to provide the application access to the service to enable a synchronization between the application and the service; the method being characterized in that the received data further comprise a speed of the user equipment. receiving, at a selector, data representative of at least one of a quality of service requirement of an application and a user preference associated with the application at a user equipment, wherein the selector comprises middleware interfacing the application with at least one connection (212A, 212B); selecting, at the selector and based on all the received data, the at least one connection to provide the application access to a service (199A, 199B, 299A, 299B); and initiating, at the selector, establishment of the at least one connection to provide the application access to the service to enable a synchronization between the application and the service; the method being characterized in that the received data further comprise a speed of the user equipment.
A solid dialysis agent A for use in a method of dialysis, which is used in the preparation of a bicarbonate dialysis fluid, wherein the solid dialysis agent A contains glucose, acetic acid, and an acetate salt, and at least a part of a mixture of the acetic acid with the acetate salt is an alkali metal diacetate, molar ratio of acetic acid:acetate salt is 1:0.5 to 2, and the solid dialysis agent A is used for preparing a bicarbonate dialysis fluid having total acetate ions of 2 mEq/L or higher but less than 6 mEq/L.
A metal alkoxide compound represented by general formula: In the formula, R 1 represents a methyl group or an ethyl group, R 2 represents a hydrogen atom or a methyl group, R 3 represents a C 1-3 linear or branched alkyl group, M represents a metal atom or a silicon atom, and n represents the valence of the metal atom or silicon atom.
A computer-implemented method for responding to a query request from a requestor using information supplied by an authoritative name server, the computer-implemented method comprising: obtaining, by a DNS resolution server, a query for a named resource from a requestor, wherein the query comprises information comprising a contextual information related to the requestor; obtaining at least a portion of a zone file of a domain name space using the domain name system, one or more rules, and information on how to access information that is not local to the DNS resolution server from the authoritative name server based on the query obtained from the requestor; and providing, to the requestor, an answer to the query based on the at least a portion of the zone file, the one or more rules, and the contextual information. obtaining, by a DNS resolution server, a query for a named resource from a requestor, wherein the query comprises information comprising a contextual information related to the requestor; obtaining at least a portion of a zone file of a domain name space using the domain name system, one or more rules, and information on how to access information that is not local to the DNS resolution server from the authoritative name server based on the query obtained from the requestor; and providing, to the requestor, an answer to the query based on the at least a portion of the zone file, the one or more rules, and the contextual information.
A method of coding information in a scalable video coding, SVC, scheme comprising: coding first video blocks defined in a base layer of the SVC scheme; and coding second video blocks defined in an enhancement layer of the SVC scheme, wherein the second video blocks provide spatial scalability enhancement relative to the first video blocks, and wherein coding the second video blocks includes: performing inter-layer prediction for the enhancement layer relative to the base layer for a first subset of the second video blocks that fully overlap the first video blocks, the method being characterized in that coding the second video blocks further includes: performing inter-layer prediction for the enhancement layer relative to the base layer for a second subset of the second video blocks that partially overlap the first video blocks. coding first video blocks defined in a base layer of the SVC scheme; and coding second video blocks defined in an enhancement layer of the SVC scheme, wherein the second video blocks provide spatial scalability enhancement relative to the first video blocks, and wherein coding the second video blocks includes: performing inter-layer prediction for the enhancement layer relative to the base layer for a first subset of the second video blocks that fully overlap the first video blocks, the method being characterized in that coding the second video blocks further includes: performing inter-layer prediction for the enhancement layer relative to the base layer for a second subset of the second video blocks that partially overlap the first video blocks. performing inter-layer prediction for the enhancement layer relative to the base layer for a first subset of the second video blocks that fully overlap the first video blocks, performing inter-layer prediction for the enhancement layer relative to the base layer for a second subset of the second video blocks that partially overlap the first video blocks.
A core housing (218, 318, 418, 518, 618, 718) for a gas turbine engine, the core housing comprising: a housing surface (446, 546, 746) defining an exterior surface of the core housing; characterized in that the core housing further comprises: a housing aperture (232, 332, 432, 532, 632) arranged on the housing surface (446, 546, 746), the housing aperture configured to enable fluid communication between an external environment and an interior of the core housing (218, 318, 418, 518, 618, 718); a drainage hole (230, 330, 430, 530, 630, 730, 830) arranged upstream relative to the housing aperture (232, 332, 432, 532, 632), the drainage hole configured to enable draining of a fluid from an interior of the core housing to the external environment; and a redirection device (436, 536, 636, 736, 836) arranged to receive a fluid from the drainage hole (230, 330, 430, 530, 630, 730, 830) and direct such fluid away from the housing aperture (232, 332, 432, 532, 632). a housing surface (446, 546, 746) defining an exterior surface of the core housing; characterized in that the core housing further comprises: a housing aperture (232, 332, 432, 532, 632) arranged on the housing surface (446, 546, 746), the housing aperture configured to enable fluid communication between an external environment and an interior of the core housing (218, 318, 418, 518, 618, 718); a drainage hole (230, 330, 430, 530, 630, 730, 830) arranged upstream relative to the housing aperture (232, 332, 432, 532, 632), the drainage hole configured to enable draining of a fluid from an interior of the core housing to the external environment; and a redirection device (436, 536, 636, 736, 836) arranged to receive a fluid from the drainage hole (230, 330, 430, 530, 630, 730, 830) and direct such fluid away from the housing aperture (232, 332, 432, 532, 632). a housing aperture (232, 332, 432, 532, 632) arranged on the housing surface (446, 546, 746), the housing aperture configured to enable fluid communication between an external environment and an interior of the core housing (218, 318, 418, 518, 618, 718); a drainage hole (230, 330, 430, 530, 630, 730, 830) arranged upstream relative to the housing aperture (232, 332, 432, 532, 632), the drainage hole configured to enable draining of a fluid from an interior of the core housing to the external environment; and a redirection device (436, 536, 636, 736, 836) arranged to receive a fluid from the drainage hole (230, 330, 430, 530, 630, 730, 830) and direct such fluid away from the housing aperture (232, 332, 432, 532, 632).
A polyester resin composition comprising polyester resin, wherein the polyester resin composition satisfies the following requirements (i) to (iii), (i) the polyester resin has an acid value of 100 eq/ton or more, (ii) the polyester resin composition substantially contains no curing agent, "substantially" meaning that a content of a curing agent is smaller than 1 part by mass (in terms of solid content) with respect to 100 parts by mass (in terms of solid content) of the polyester resin, and (iii) a content of tetrahydrofuran-insoluble matter is 10 mass% or more when the polyester resin composition has been heated at 240°C for one hour, wherein the tetrahydrofuran-insoluble matter is determined as indicated in the specification. (i) the polyester resin has an acid value of 100 eq/ton or more, (ii) the polyester resin composition substantially contains no curing agent, "substantially" meaning that a content of a curing agent is smaller than 1 part by mass (in terms of solid content) with respect to 100 parts by mass (in terms of solid content) of the polyester resin, and (iii) a content of tetrahydrofuran-insoluble matter is 10 mass% or more when the polyester resin composition has been heated at 240°C for one hour, wherein the tetrahydrofuran-insoluble matter is determined as indicated in the specification.
Melter assembly for melting solid raw batch material, which comprises a submerged combustion melter section, an exhaust system downstream of the submerged combustion melter section and an afterburner section, wherein the submerged combustion melter section is designed to contain the melt bath at a maximum melt level and comprises at least one submerged combustion burner (21,24) and a melt outlet, and wherein the afterburner section is designed as a space contiguous with, and in continuity of, the internal space defined by the submerged combustion melter section, and arranged over the maximum melt level of the submerged combustion melter section, and is dimensioned such that under normal operating conditions, the gases escaping from the melt bath contained in the submerged combustion melter section remain for at least 1 second at a temperature of at least 750 °C in said afterburner section, said afterburner section being connected to an exhaust gas outlet; wherein the afterburner section shows a transversal cross-section substantially equivalent to the substantially horizontal cross-section of the submerged combustion melter section and the height of the melter assembly is adapted to generate a space over the melt bath that complies with the requirements of an afterburner section, that is residence times beyond 1s at a temperature of at least 750 °C, and wherein the exhaust system does not comprise any afterburner.
Tubular mixing device with helical configuration, wherein said tubular mixing device has a single flow path, said flow path having helical configuration, characterized in that the coiling direction of said single flow path is reverted to the opposite direction after number n of full turns with n=1; 2 at a re-direction point and having a straight coil axis. wherein said tubular mixing device has a single flow path, said flow path having helical configuration, characterized in that the coiling direction of said single flow path is reverted to the opposite direction after number n of full turns with n=1; 2 at a re-direction point and having a straight coil axis.
A façade gutter for draining in particular grainy floor areas, e.g. terraces, façade areas, flat roofs, comprising: - a gutter body formed as a sheet metal part and having a bottom and side walls (12, 13), and - first connection elements at first ends of the gutter body which are connectable to corresponding second connection elements at second ends of the gutter body, wherein the first connection elements are formed to be integral with the gutter body, characterized in that, via engagement portions, the first connection elements engage in such a manner into recesses or protrusions of the side walls (12, 13) when gutter bodies are brought into abutment, that the gutter bodies are secured to one another in a direction perpendicular to the bottom. - a gutter body formed as a sheet metal part and having a bottom and side walls (12, 13), and - first connection elements at first ends of the gutter body which are connectable to corresponding second connection elements at second ends of the gutter body, wherein the first connection elements are formed to be integral with the gutter body,
A genetically modified pig, wherein the genetically modified genome comprises a bicistronic gene cassette flanked by inverted terminal repeats recognized by a DNA transposase and comprising (a) at least one recognition site for a site specific recombinase and (b) an IRES-driven selection gene.
An assembly set for a removable partial denture for a patient, the assembly set comprising one or more replacement teeth as well as a framework with one or more retention sections, each of the retention sections being configured to receive and retain one or more of the replacement teeth, each of the replacement teeth comprising a bottom face with a first surface structure configured to engage an assigned complementary first retention structure provided by one of the retention sections of the framework configured to receive the respective replacement tooth, each first surface structure in combination with the assigned complementary first retention structure providing a first non-destructive detachable direct connection between the replacement tooth comprising the respective surface structure and the retention section comprising the respective assigned complementary retention structure, the one or more retention sections of the framework further being configured to receive and retain one or more artificial gingiva parts. each of the retention sections being configured to receive and retain one or more of the replacement teeth, each of the replacement teeth comprising a bottom face with a first surface structure configured to engage an assigned complementary first retention structure provided by one of the retention sections of the framework configured to receive the respective replacement tooth, each first surface structure in combination with the assigned complementary first retention structure providing a first non-destructive detachable direct connection between the replacement tooth comprising the respective surface structure and the retention section comprising the respective assigned complementary retention structure, the one or more retention sections of the framework further being configured to receive and retain one or more artificial gingiva parts.
An apparatus for controlling a trajectory of a borehole (26, 226) being drilled into the earth, the apparatus comprising: a drilling system (10, 210) including a drill tubular, a disintegrating device, and a steering system coupled to the drill tubular configured to steer the drilling system (10, 210), and at least one control unit (40, 304, 306, 308, 408, 410, 412, 504, 506, 516, 518, 604, 606, 616, 618, 704, 710, 712, 804), the drilling system (10, 210) configured to drill the borehole (26, 226) by receiving control outputs from the at least one control unit (40,..., 804) for controlling parameters of the drilling system (10, 210), the at least one control unit (40,..., 804) configured to provide the control outputs to the steering system, and characterized in that: the at least one control unit is configured to provide depth-based control, wherein the control unit receives and uses data indicative of drilled distance to provide the depth-based control, wherein new control outputs are calculated at: (i) predetermined drilled distances; or (ii) predetermined drilled distance intervals; and wherein the control outputs are calculated using an equation that is time-independent. a drilling system (10, 210) including a drill tubular, a disintegrating device, and a steering system coupled to the drill tubular configured to steer the drilling system (10, 210), and at least one control unit (40, 304, 306, 308, 408, 410, 412, 504, 506, 516, 518, 604, 606, 616, 618, 704, 710, 712, 804), the drilling system (10, 210) configured to drill the borehole (26, 226) by receiving control outputs from the at least one control unit (40,..., 804) for controlling parameters of the drilling system (10, 210), the at least one control unit (40,..., 804) configured to provide the control outputs to the steering system, and characterized in that: the at least one control unit is configured to provide depth-based control, wherein the control unit receives and uses data indicative of drilled distance to provide the depth-based control, wherein new control outputs are calculated at: (i) predetermined drilled distances; or (ii) predetermined drilled distance intervals; and wherein the control outputs are calculated using an equation that is time-independent. the at least one control unit is configured to provide depth-based control, wherein the control unit receives and uses data indicative of drilled distance to provide the depth-based control, wherein new control outputs are calculated at: (i) predetermined drilled distances; or (ii) predetermined drilled distance intervals; and wherein the control outputs are calculated using an equation that is time-independent.
A device for generating electrical energy from soil degradation comprising a container, defining an upper compartment and a lower compartment, and a microbial fuel cell including an anode, a cathode, a separator material and anodophilic micro-organisms in said separator material, wherein the cathode is positioned at a transition area between the upper compartment and the lower compartment, said anode and said separator material being located in the lower compartment, soil having waste of a living plant being provided in the upper compartment, the transition area further comprising a draining layer configured for allowing water poured onto the soil in the upper compartment drain to the separator material in the of lower compartment while supporting said soil.
An epoxy resin that is a polyglycidyl ether of a polycondensate of an α-naphthol compound, a β-naphthol compound, and formaldehyde, the epoxy resin comprising: a trimer represented by a structural formula below in the formula, R 1 and R 2 each independently represent a hydrogen atom, an alkyl group having 1 to 4 carbon atoms, or an alkoxy group having 1 to 4 carbon atoms; and G represents a glycidyl group; a dimer represented by a structural formula below in the formula, R 1 and R 2 each independently represent a hydrogen atom, an alkyl group having 1 to 4 carbon atoms, or an alkoxy group having 1 to 4 carbon atoms; and G represents a glycidyl group; and a calixarene compound represented by a structural formula below in the formula, R 1 and R 2 each independently represent a hydrogen atom, an alkyl group having 1 to 4 carbon atoms, or an alkoxy group having 1 to 4 carbon atoms; G represents a glycidyl group; and n represents a number of the repeating unit and an integer of 2 to 10, wherein a content of the trimer is 15% to 35% in terms of area percentage in GPC measurement, a content of the dimer is 1% to 25% in terms of area percentage in GPC measurement, and a content of the calixarene compound in the epoxy resin is 1% to 40% in terms of area percentage in GPC measurement. a trimer represented by a structural formula below in the formula, R 1 and R 2 each independently represent a hydrogen atom, an alkyl group having 1 to 4 carbon atoms, or an alkoxy group having 1 to 4 carbon atoms; and G represents a glycidyl group; a dimer represented by a structural formula below in the formula, R 1 and R 2 each independently represent a hydrogen atom, an alkyl group having 1 to 4 carbon atoms, or an alkoxy group having 1 to 4 carbon atoms; and G represents a glycidyl group; and a calixarene compound represented by a structural formula below in the formula, R 1 and R 2 each independently represent a hydrogen atom, an alkyl group having 1 to 4 carbon atoms, or an alkoxy group having 1 to 4 carbon atoms; G represents a glycidyl group; and n represents a number of the repeating unit and an integer of 2 to 10, wherein a content of the trimer is 15% to 35% in terms of area percentage in GPC measurement, a content of the dimer is 1% to 25% in terms of area percentage in GPC measurement, and a content of the calixarene compound in the epoxy resin is 1% to 40% in terms of area percentage in GPC measurement.
A method for correcting satellite ephemeris error incorporating the steps of:- a) determining at least one of measured time difference and measured frequency difference associated with signal replicas received via at least two different satellites (34, 36) from a plurality of calibration transmitting means (42a, 42b, 42c, 42d) of known but different geographical locations; and b) obtaining estimates corresponding to satellite ephemeris elements and calculating changes thereto giving rise to at least one of time difference and frequency difference estimations in closer conformity with corresponding measured time difference and/or frequency difference; and c) calculating an ephemeris correction vector from a product -1, where is a vector having elements which are differences between measured and estimated values of time difference and frequency difference for a set of measurement/estimation times and -1 is an inverse of a matrix having elements which are changes to estimated satellite ephemeris elements for the set of measurement/estimation times, the changes resulting in being reduced in magnitude compared to its value associated with estimated satellite ephemeris elements prior to the changes. a) determining at least one of measured time difference and measured frequency difference associated with signal replicas received via at least two different satellites (34, 36) from a plurality of calibration transmitting means (42a, 42b, 42c, 42d) of known but different geographical locations; and b) obtaining estimates corresponding to satellite ephemeris elements and calculating changes thereto giving rise to at least one of time difference and frequency difference estimations in closer conformity with corresponding measured time difference and/or frequency difference; and c) calculating an ephemeris correction vector from a product -1, where is a vector having elements which are differences between measured and estimated values of time difference and frequency difference for a set of measurement/estimation times and -1 is an inverse of a matrix having elements which are changes to estimated satellite ephemeris elements for the set of measurement/estimation times, the changes resulting in being reduced in magnitude compared to its value associated with estimated satellite ephemeris elements prior to the changes.
A system of integrating baffles (500, 800) for enhanced cooling of CMC liners comprising CMC combustor liners (300, 700) with CMC liner flanges (310, 710), coupled with one or more baffles (500, 800) each having a forward end and an aft end; a baffle (500,800) of the one or more baffles is bolted at the forward end thereof, that end being a forward mount for a dome plate, the baffle (500,800) allowed to remain free at the aft end thereof; wherein the baffle (500, 800) of the one or more baffles is incorporated into a piston ring seal housing 840 at the aft end thereof, the baffle thereby supporting the seal housing, the piston ring seal housing 840 in turn capturing a piston ring seal (600,900) for sealing with a respective one of the liners (300, 700); wherein the baffle (500,800) of the one or more baffles comprising holes and/or cut-outs formed so as to allow air to pass therethrough whilst providing a controlled pressure drop across the baffle to thereby reduce cooling feed pressure for the respective liner (300,700).