mhurhangee/ep-ind-claims huggingface dataset:
A rotary machine, comprising: a bearing housing; a rotor radially supported by a plurality of bearings and configured to rotate within the bearing housing along an axis of rotor rotation, the rotor including a rotational pressure-changing wheel configured with a hub and with a plurality of blades, the plurality of blades being configured to exchange the pressure of gas passing through the blades and rotor kinetic rotational energy, the hub including a blade surface that carries and supports the blades, and a back-disk on an axially opposite side of the hub from the blade surface, wherein the bearing housing forms a chamber wall facing the back-disk, the chamber wall and back-disk defining a back-disk chamber; and a back-disk seal member extending from the chamber wall toward the back-disk and substantially between the back-disk and the chamber wall, the back-disk seal member extending circumferentially around the back-disk chamber; characterised in that the chamber wall radially supports a first radial-support bearing of the plurality of bearings at a first axial location, and a second radial-support bearing of the plurality of bearings at a second axial location, the first and second radial support bearings radially supporting the rotor at the first and second axial locations, respectively; and wherein the chamber wall is configured to off-axially flex with off-axis motion of the rotor so as to deflect the back-disk seal member and to minimize contact between the back-disk seal member and the back-disk. a bearing housing; a rotor radially supported by a plurality of bearings and configured to rotate within the bearing housing along an axis of rotor rotation, the rotor including a rotational pressure-changing wheel configured with a hub and with a plurality of blades, the plurality of blades being configured to exchange the pressure of gas passing through the blades and rotor kinetic rotational energy, the hub including a blade surface that carries and supports the blades, and a back-disk on an axially opposite side of the hub from the blade surface, wherein the bearing housing forms a chamber wall facing the back-disk, the chamber wall and back-disk defining a back-disk chamber; and a back-disk seal member extending from the chamber wall toward the back-disk and substantially between the back-disk and the chamber wall, the back-disk seal member extending circumferentially around the back-disk chamber; characterised in that the chamber wall radially supports a first radial-support bearing of the plurality of bearings at a first axial location, and a second radial-support bearing of the plurality of bearings at a second axial location, the first and second radial support bearings radially supporting the rotor at the first and second axial locations, respectively; and wherein the chamber wall is configured to off-axially flex with off-axis motion of the rotor so as to deflect the back-disk seal member and to minimize contact between the back-disk seal member and the back-disk.
A method for manufacturing a housing of a radiation detection cassette that houses a radiation detector in the housing, the method comprising: preparing a housing material that is formed of an alloy containing Mg and Li and contains 0.1 mass% or more of Li for a back housing part; forming a plurality of recesses using a working method other than cutting work on a surface of the housing material, the plurality of recesses being partitioned off by ribs on an inner surface side of the back housing part; and performing cutting work on the formed recesses to shape the recesses. preparing a housing material that is formed of an alloy containing Mg and Li and contains 0.1 mass% or more of Li for a back housing part; forming a plurality of recesses using a working method other than cutting work on a surface of the housing material, the plurality of recesses being partitioned off by ribs on an inner surface side of the back housing part; and performing cutting work on the formed recesses to shape the recesses.
A dental composition comprising (a) a compound having a polymerizable double bond, (b) a photoinitiator system comprising camphorquinone and a particulate carrier supporting a coinitiator covalently bonded to the surface of the carrier, wherein the coinitiator is selected from a compound having a tertiary amino group and/or a compound having a tertiary phosphino group, wherein the particulate carrier displays multiple covalently bonded tertiary amino groups and/or tertiary phosphine groups on the surface, for crosslinking monomers, oligomers and/or polymers having one or more polymerizable double bonds, wherein the covalently bonded tertiary amino groups and/or tertiary phosphine groups are selected from moieties of the following formulae and: wherein R 1 and R 2 which may be the same or different, independently represent a C 1-6 straight-chain alkyl group, C 3-6 branched or cyclic alkyl group; and wherein L is a single bond or a divalent linker group. (a) a compound having a polymerizable double bond, (b) a photoinitiator system comprising camphorquinone and a particulate carrier supporting a coinitiator covalently bonded to the surface of the carrier, wherein the coinitiator is selected from a compound having a tertiary amino group and/or a compound having a tertiary phosphino group, wherein the particulate carrier displays multiple covalently bonded tertiary amino groups and/or tertiary phosphine groups on the surface, for crosslinking monomers, oligomers and/or polymers having one or more polymerizable double bonds, wherein the covalently bonded tertiary amino groups and/or tertiary phosphine groups are selected from moieties of the following formulae and: wherein R 1 and R 2 which may be the same or different, independently represent a C 1-6 straight-chain alkyl group, C 3-6 branched or cyclic alkyl group; and wherein L is a single bond or a divalent linker group. camphorquinone and a particulate carrier supporting a coinitiator covalently bonded to the surface of the carrier, wherein the coinitiator is selected from a compound having a tertiary amino group and/or a compound having a tertiary phosphino group, wherein the particulate carrier displays multiple covalently bonded tertiary amino groups and/or tertiary phosphine groups on the surface, for crosslinking monomers, oligomers and/or polymers having one or more polymerizable double bonds,
A radiation curable coating composition comprising a (meth)acrylate functional polyether polyol prepared by a method comprising: a) reacting an epoxidized vegetable oil with a phosphoric acid compound to form an epoxy phosphate; b) reacting the epoxy phosphate with a hydroxyl functional (meth)acrylate in the presence of an acid catalyst to form the (meth)acrylate functional polyether polyol. a) reacting an epoxidized vegetable oil with a phosphoric acid compound to form an epoxy phosphate; b) reacting the epoxy phosphate with a hydroxyl functional (meth)acrylate in the presence of an acid catalyst to form the (meth)acrylate functional polyether polyol.
A bottle for sports use having operating parts delimited and visible on the outside of said bottle, adapted to be colored by means of an ink, said operating parts are grooved with respect to an outer surface of said bottle and having an operating surface substantially parallel to the outer surface of said bottle and an edge that surrounds said operating surface to counter the coloring of surfaces of said bottle different from said operating surface when it is colored by a user, wherein said bottle comprises a body and a cap, said cap comprising a lower part adapted to be coupled with an opening of said body, characterized in that said operating parts form a plurality of digits or letters and comprise a plurality of segments that are selectively colorable to form at least a digit or a letter, wherein said operating parts comprise at least a group of 7 rectilinear operating parts arranged to form a stylized 8, said cap comprising an upper part provided with a spout through which the user can drink the contents of the bottle. wherein said bottle comprises a body and a cap, said cap comprising a lower part adapted to be coupled with an opening of said body, characterized in that said operating parts form a plurality of digits or letters and comprise a plurality of segments that are selectively colorable to form at least a digit or a letter, wherein said operating parts comprise at least a group of 7 rectilinear operating parts arranged to form a stylized 8, said cap comprising an upper part provided with a spout through which the user can drink the contents of the bottle.
A method of transmitting reference signals by a base station in a communication system, the method comprising: determining subcarriers for respective analog beams to transmit the reference signals within a predetermined number of orthogonal frequency division multiplexing, OFDM, symbols (512, 514, 516, 518) based on indexes of analog beams that are formable by an array antenna of the base station; and transmitting, the reference signals on the determined subcarriers by using the analog beams corresponding to the determined subcarriers, wherein a first subcarrier corresponding to a first analog beam and a second subcarrier corresponding to a second analog beam contiguous to the first analog beam are adjacent to on a time axis or a frequency axis, and wherein a subcarrier on which an analog beam among the analog beams is used to transmit a reference signal, is determined based on a number of radio frequency, RF, chains, a number of subcarriers to be usable to transmit the reference signals, an index of a OFDM symbol in which the analog beam is used to transmit the reference signal, an index of the analog beam, the predetermined number of OFDM symbols for transmission of the reference signals and a frequency reuse factor. determining subcarriers for respective analog beams to transmit the reference signals within a predetermined number of orthogonal frequency division multiplexing, OFDM, symbols (512, 514, 516, 518) based on indexes of analog beams that are formable by an array antenna of the base station; and transmitting, the reference signals on the determined subcarriers by using the analog beams corresponding to the determined subcarriers, wherein a first subcarrier corresponding to a first analog beam and a second subcarrier corresponding to a second analog beam contiguous to the first analog beam are adjacent to on a time axis or a frequency axis, and wherein a subcarrier on which an analog beam among the analog beams is used to transmit a reference signal, is determined based on a number of radio frequency, RF, chains, a number of subcarriers to be usable to transmit the reference signals, an index of a OFDM symbol in which the analog beam is used to transmit the reference signal, an index of the analog beam, the predetermined number of OFDM symbols for transmission of the reference signals and a frequency reuse factor.
Method of operating a module for wireless communication, wherein in operation the module is connected to a device of an integrated circuit card, wherein - said operation is adapted for signaling between the module and the integrated circuit card device via an interface system, said interface system comprising: - at least one command interface instance (10.0, 10.1, 10.2, 10.3) adapted for direct command signaling between the module and at least one application (1, 2), and - a card application toolkit for direct command signaling between the module and the integrated circuit card device, characterized in that - an asynchronous event related communication between the module and the integrated circuit card device is provided in a downlink signaling from the module to the integrated circuit card device via the command interface instance, wherein - for routing said asynchronous event in the downlink signaling from the module to the integrated circuit card device via the command interface instance, a code is sent from the command interface instance (10.0, 10.1, 10.2, 10.3) adapted for direct command signaling between the module and the at least one application (1, 2), to the integrated circuit card device and - the code is definable by the module. - said operation is adapted for signaling between the module and the integrated circuit card device via an interface system, said interface system comprising: - at least one command interface instance (10.0, 10.1, 10.2, 10.3) adapted for direct command signaling between the module and at least one application (1, 2), and - a card application toolkit for direct command signaling between the module and the integrated circuit card device, characterized in that - at least one command interface instance (10.0, 10.1, 10.2, 10.3) adapted for direct command signaling between the module and at least one application (1, 2), and - a card application toolkit for direct command signaling between the module and the integrated circuit card device, characterized in that - an asynchronous event related communication between the module and the integrated circuit card device is provided in a downlink signaling from the module to the integrated circuit card device via the command interface instance, wherein - for routing said asynchronous event in the downlink signaling from the module to the integrated circuit card device via the command interface instance, a code is sent from the command interface instance (10.0, 10.1, 10.2, 10.3) adapted for direct command signaling between the module and the at least one application (1, 2), to the integrated circuit card device and - the code is definable by the module.
A method in connection with parallel-connected inverter modules, whereby two or more inverter modules (A, B, C) are connected in parallel to feed the same load, each inverter module (A, B, C) comprising two or more output phases (u, v, w) for supplying electric power into a two or more phase load, the method comprising: determining the temperature (T Au, T Av, T Aw, T Bu, T Bv, T Bw, T Cu, T Cv, T Cw) of each output phase (Au, Av, Aw, Bu, Bv, Bw, Cu, Cv, Cw) in each inverter module (A, B, C), characterized in that the method further comprises the steps of: comparing the temperature of each output phase in each inverter module with the temperatures of the same output phase in the other parallel-connected modules, and generating an alarm signal if the temperature of the output phase in an inverter module differs from the temperatures of the same output phase of the other inverter modules more than allowed by a predetermined limit. determining the temperature (T Au, T Av, T Aw, T Bu, T Bv, T Bw, T Cu, T Cv, T Cw) of each output phase (Au, Av, Aw, Bu, Bv, Bw, Cu, Cv, Cw) in each inverter module (A, B, C), characterized in that the method further comprises the steps of: comparing the temperature of each output phase in each inverter module with the temperatures of the same output phase in the other parallel-connected modules, and generating an alarm signal if the temperature of the output phase in an inverter module differs from the temperatures of the same output phase of the other inverter modules more than allowed by a predetermined limit.
Covering device which comprises a first shaped shelf part, which can be arranged in a motor vehicle and is at the rear in its installed position in the motor vehicle, and a second, front shaped shelf part which is coupled in a coupling region to the first shaped shelf part so as to be pivotable about a pivot axis and, in its installed position in the motor vehicle, faces an upper region of a rear seat back, and at least one resetting device which engages over the coupling region containing the pivot axis, has an elastic spring element, is fastened to the first and to the second shaped shelf part (5, 6) and, in the installed position of the first and second shaped shelf part (5, 6) in the motor vehicle, permits pivoting of the second shelf element from its basic position into a folded position counter to the resetting force, which is exerted by the elastic spring element, under the action of a pivoting force exerted on the second shaped shelf part from the rear seat back, wherein, when the pivoting force exerted by the rear seat back decreases or ceases, the prestressed resetting force emanating from the spring element moves the second shaped shelf part back into its basic position, wherein the second shaped shelf part, in its basic position, has and adopts a position which is brought about by the resetting force of the spring element, which is guided along a wedge-shaped sliding surface of the at least one resetting device, is aligned in a slightly inclined manner in order to align the first shaped shelf part and, in the installed position of the covering device in the motor vehicle, forms an alignment inclined slightly towards the rear seat back, and wherein the at least one resetting device engaging over the coupling region comprises two base plates (13, 14) which are spaced apart from each other and of which the first base plate is connected to the rear shaped shelf part and the second base plate is connected to the front shaped shelf part, wherein the first and the second base plate (14, 15) are coupled to each other so as to be pivotable in relation to each other by means of the spring element engaging over the coupling region, and wherein the wedge-shaped sliding surface is formed on the second base plate of the at least one resetting device and rises towards the first shaped shelf part and towards the first base plate with a slope of between 5° and 10°, and, when first and second shaped shelf part (5, 6) pivot in relation to each other, a leg of the spring element slides, supported via a hook portion, along the sliding surface, wherein the spring element which is guided along the wedge-shaped sliding surface has the hook portion at a free end of a leg, said hook portion interacting with a pin which is arranged at the highest point of the wedge-shaped sliding surface, on the side thereof which faces the first shaped shelf part and the first base plate, and, on reaching the basic position of the second shaped shelf part, acts as a stop for the hook portion, and is at least partially engaged around by the hook portion on reaching the basic position.
Process for purifying a polymerizable substance, wherein the polymerizable substance, in a column having at least one separation tray, is introduced through a feed as a substance liquid and converted to a substance gas phase in an interior, wherein the substance gas phase flows with an isotropic density toward a first separation tray disposed above the feed, wherein the maximum variation about an average isotropic density value within a layer between the feed and the first separation tray is at most 15%, wherein the separation tray comprises at least one base plate having a multitude of openings and at least one top part, characterized in that the top part divides the multitude of openings into groups, wherein passages through which a fluid can flow are formed by the at least one top part, and wherein the polymerizable substance is (meth)acrylic acid.
A resource configuration method, comprising: obtaining (201, 301, 401), by a virtualized network function manager, VNFM, a performance parameter that reflects a running status of a virtualized network function, VNF, instance, wherein the performance parameter is a performance indication parameter of the VNF instance and is a monitored value representing a running health index of the VNF instance; obtaining (202, 302, 402), by the VNFM, a mapping relationship in a VNF descriptor, VNFD, corresponding to the VNF instance, wherein the mapping relationship is a mapping relationship between the performance parameter and the deployment flavor; determining (203, 303, 403), by the VNFM based on the mapping relationship and the performance parameter that reflects the running status of the VNF instance, a target deployment flavor required by the VNF instance in the running status; and performing, by the VNFM, resource configuration for the VNF instance based on a currently configured deployment flavor of the VNF instance and the target deployment flavor; wherein the obtaining, by the VNFM, the performance indication parameter of the VNF instance comprises: receiving, by the VNFM, the performance indication parameter of the VNF instance from an element management system, EMS, of the VNF instance; or receiving, by the VNFM, the performance indication parameter of the VNF instance from the VNF instance. obtaining (201, 301, 401), by a virtualized network function manager, VNFM, a performance parameter that reflects a running status of a virtualized network function, VNF, instance, wherein the performance parameter is a performance indication parameter of the VNF instance and is a monitored value representing a running health index of the VNF instance; obtaining (202, 302, 402), by the VNFM, a mapping relationship in a VNF descriptor, VNFD, corresponding to the VNF instance, wherein the mapping relationship is a mapping relationship between the performance parameter and the deployment flavor; determining (203, 303, 403), by the VNFM based on the mapping relationship and the performance parameter that reflects the running status of the VNF instance, a target deployment flavor required by the VNF instance in the running status; and performing, by the VNFM, resource configuration for the VNF instance based on a currently configured deployment flavor of the VNF instance and the target deployment flavor; wherein the obtaining, by the VNFM, the performance indication parameter of the VNF instance comprises: receiving, by the VNFM, the performance indication parameter of the VNF instance from an element management system, EMS, of the VNF instance; or receiving, by the VNFM, the performance indication parameter of the VNF instance from the VNF instance. receiving, by the VNFM, the performance indication parameter of the VNF instance from an element management system, EMS, of the VNF instance; or receiving, by the VNFM, the performance indication parameter of the VNF instance from the VNF instance.
A metalloprotease polypeptide having metalloprotease activity and comprising a calcium binding region, wherein the polypeptide has at least 90% amino acid sequence identity to SEQ ID NO: 6, and wherein the polypeptide comprises a deletion at amino acid residue positions 179-183 in the calcium binding region Cal-2 of the polypeptide, wherein the amino acid positions of the polypeptide are numbered by correspondence with the amino acid sequence of Bacillus thermoproteolyticus metalloprotease set forth in SEQ ID NO: 13, and wherein the calcium binding region Cal-2 binds fewer than two calcium ions.
A structural component for wooden structures, in particular posts, flooring and/or ceiling and/or wall parts, essentially consisting of several layers of arranged bar or rod shaped wooden elements that are cut from small timbers and fitted together with each other by shape and friction, characterized in that the wooden elements are formed as hollow profiles with several longitudinal bores.
Fuel injection valve for internal combustion engines, having a housing in which a nozzle body is at least indirectly axially clamped against a holding body by means of a clamping nut, wherein the clamping nut radially surrounds the nozzle body, and wherein a threaded connection between the holding body and the clamping nut is formed between the clamping nut and the holding body in a region which is axially spaced apart from the nozzle body, characterized in that the threaded connection comprises at least two toothing regions (21, 22) which have different threaded dimensions and are arranged axially one behind the other in the longitudinal direction of the housing, and in that the thread dimensions differ in the thread diameters and the number of teeth, and the pitches of the toothing regions (21, 22) are of equal size.