mhurhangee/ep-ind-claims huggingface dataset:
A receiving method, comprising: receiving, by a network device, a first E-UTRAN Cell Global Identifier, ECGI and a second ECGI, wherein the first ECGI carries a base station identity of a first base station, the second ECGI carries a base station identity of a second base station, the first base station is a home base station type and the second base station is another base station type that is different from the home base station type, and positions of the bits occupied by the base station identity of the first base station and the second base station are the same and are the first 20 bits of the ECGI, and remained 8 bits of the ECGI are not used as the base station identity of the first base station or the second base station and are all filled with "1" in the first ECGI; and reading, by the network device, the first 20 bits from the first ECGI and the second ECGI respectively, and determining the first 20 bits, which are read from the first ECGI, as the base station identity of the first base station, and determining the first 20 bits, which are read from the second ECGI, as the base station identity of the second base station. receiving, by a network device, a first E-UTRAN Cell Global Identifier, ECGI and a second ECGI, wherein the first ECGI carries a base station identity of a first base station, the second ECGI carries a base station identity of a second base station, the first base station is a home base station type and the second base station is another base station type that is different from the home base station type, and positions of the bits occupied by the base station identity of the first base station and the second base station are the same and are the first 20 bits of the ECGI, and remained 8 bits of the ECGI are not used as the base station identity of the first base station or the second base station and are all filled with "1" in the first ECGI; and reading, by the network device, the first 20 bits from the first ECGI and the second ECGI respectively, and determining the first 20 bits, which are read from the first ECGI, as the base station identity of the first base station, and determining the first 20 bits, which are read from the second ECGI, as the base station identity of the second base station.
A monoclonal antibody which comprises the heavy chain constant region represented by SEQ ID NO:30, has an agonist activity, and binds to human CD40, wherein the monoclonal antibody comprises a heavy chain variable region comprising CDR1, CDR2 and CDR3 represented by SEQ ID NOs: 6, 8 and 10, respectively, and the light chain variable region comprising CDR1, CDR2 and CDR3 represented by SEQ ID NOs:16, 18 and 20, respectively.
A device utilized in reconstruction and fusion of a human spine providing direct rigid fixation of an anterior spinal column in flexion, extension and rotation, the device comprising: a housing with a leading deep surface conforming to a posterior aspect of an intervertebral disk and a trailing outer surface conforming to an anterior surface of the intervertebral disk, weight bearing sides and top and bottom surfaces with a plurality of openings (6,7) enabling ingrowths of bone; a shaft running from a center of the leading deep surface and perpendicular to the leading deep surface of the housing to the center of the trailing outer surface of the housing, the shaft being affixed at least to the leading deep surface of the housing; characterized in that a plurality of fixation members are individually disposed on the shaft of the housing, the plurality of fixation members including at least one first fixation member having at least one extension with a sharp leading edge in a first orientation about the axis of the shaft and at least one second fixation member having at least one extension with a sharp leading edge in a second orientation about the axis of the shaft that is opposite to the first orientation, wherein upon rotation of each fixation member about the axis of the shaft will break an endplate of a vertebra, hook into the vertebra and rigidly secure the vertebra to the device preventing separation of the vertebra from the device during spinal motion. a housing with a leading deep surface conforming to a posterior aspect of an intervertebral disk and a trailing outer surface conforming to an anterior surface of the intervertebral disk, weight bearing sides and top and bottom surfaces with a plurality of openings (6,7) enabling ingrowths of bone; a shaft running from a center of the leading deep surface and perpendicular to the leading deep surface of the housing to the center of the trailing outer surface of the housing, the shaft being affixed at least to the leading deep surface of the housing; characterized in that a plurality of fixation members are individually disposed on the shaft of the housing, the plurality of fixation members including at least one first fixation member having at least one extension with a sharp leading edge in a first orientation about the axis of the shaft and at least one second fixation member having at least one extension with a sharp leading edge in a second orientation about the axis of the shaft that is opposite to the first orientation, wherein upon rotation of each fixation member about the axis of the shaft will break an endplate of a vertebra, hook into the vertebra and rigidly secure the vertebra to the device preventing separation of the vertebra from the device during spinal motion.
A method for providing a sectional video view with a controllable zoom, pan and tilt defined by a boundary within a general video view captured by a first camera of an end-point comprising: consecutively capturing video images of the general view; generating a predicted video image of at least a first current video image of the general view; creating a residual of the general view by subtracting the predicted video image from the first current video image; creating a first coded video signal representing the general view by further compressing the residual of the general view; receiving a control signal defining the boundary within the general video view; extracting a first set of pixel values lying within the boundary in the first current video image so as to create a sectional video view; characterized by: extracting a second set of pixel values from the predicted video image lying within said boundary and corresponding to the first set of pixel values; creating a residual of the sectional video view by subtracting the second set of pixel values from said first set of pixel values; and creating a second coded video signal representing the sectional video view by further compressing the residual of the sectional view. consecutively capturing video images of the general view; generating a predicted video image of at least a first current video image of the general view; creating a residual of the general view by subtracting the predicted video image from the first current video image; creating a first coded video signal representing the general view by further compressing the residual of the general view; receiving a control signal defining the boundary within the general video view; extracting a first set of pixel values lying within the boundary in the first current video image so as to create a sectional video view; characterized by: extracting a second set of pixel values from the predicted video image lying within said boundary and corresponding to the first set of pixel values; creating a residual of the sectional video view by subtracting the second set of pixel values from said first set of pixel values; and creating a second coded video signal representing the sectional video view by further compressing the residual of the sectional view. extracting a second set of pixel values from the predicted video image lying within said boundary and corresponding to the first set of pixel values; creating a residual of the sectional video view by subtracting the second set of pixel values from said first set of pixel values; and creating a second coded video signal representing the sectional video view by further compressing the residual of the sectional view.
A prefabricated cable comprising a cable and an adapter (1; 1'; 1"; 1′′′; 1"") fastened to an end of the cable, wherein the cable has two pairs of internal conductors (7 v, 8 v, 11 v, 12 v), which are shielded and in each case carry a differential signal, wherein the adapter (1; 1'; 1"; 1′′′; 1ʺʺ) has a first connection region with two first pairs (5 1, 52) of contact regions each with a first and second contact region (6 11, 612, 621, 622), and a second connection region with two second pairs (10 1, 10 2) of contact regions, each with a third and fourth contact region (9 11, 9 12, 921, 922), wherein the two first pairs (5 1, 5 2) of contact regions are arranged parallel to each other, wherein the two second pairs (10 1, 10 2) of contact regions are arranged crossing one another, wherein the first and second contact regions (611, 621) of one first pair (5 1) of contact regions are electrically connected via in each case a different internal conductor of a pair (7 v, 8 v) of internal conductors of the cable to the third or fourth contact region (9 11, 9 21) of the one second pair (10 1) of contact regions and the first and second contact region (612, 622) of the other first pair (5 2) of contact regions is electrically connected via in each case a different internal conductor of the other pair (11 v, 12 v) of internal conductors to the third or fourth contact region (9 12, 9 22) of the other second pair (10 2) of contact regions, wherein two internal conductors (8 v, 12 v) are in each case arranged parallel to one another within the adapter (1; 1'; 1"; 1′′′; 1ʺʺ), wherein only two internal conductors (7 v, 11 v) are in each case arranged crossing one another within the adapter (1; 1'; 1"; 1′′′; 1ʺʺ), wherein within the adapter (1; 1'; 1"; 1′′′; 1ʺʺ) the internal conductors (7 v, 11 v) arranged crossing one another are surrounded by a material with a lower permittivity than the two internal conductors (8 v, 12 v), which are arranged parallel to one another.
An exhaust gas NOx removal device for a diesel engine, comprising a cylindrical container body that receives exhaust gas guided from the diesel engine and contains NOx removal catalyst elements, characterized in that the container body contains a plurality of catalyst units, each including a square, triangular or trapezoidal housing frame body and the catalyst elements disposed in the housing frame body, in a cross section of the container body, a horizontally and vertically symmetric octagon is assumed to be inscribed in the container body, and the octagon is assumed to contain a plurality of rectangular sections and a plurality of triangular sections and/or a plurality of trapezoidal sections between the rectangular sections and an outline of the octagon, and the housing frame bodies for the catalyst elements are formed with cross sections coinciding with the sections.
Motor vehicle structure, with - preferably a chassis comprising two longitudinal support members, - a drive axle, - at least one drive unit comprising a drive gear and/or a drive motor for driving the drive axle, and - at least one bearing structure, which is rotatably mounted about an axis of rotation and serves for supporting the drive axle, wherein: the drive unit is rotatably mounted about the axis of rotation, the drive unit has a gravity center and the gravity center substantially coincides with the axis of rotation, and the bearing structure is rotatably mounted about a first rotary bearing (4.1), characterized in that the drive unit is rotatably mounted about a second rotary bearing (3.1). - preferably a chassis comprising two longitudinal support members, - a drive axle, - at least one drive unit comprising a drive gear and/or a drive motor for driving the drive axle, and - at least one bearing structure, which is rotatably mounted about an axis of rotation and serves for supporting the drive axle, the drive unit is rotatably mounted about the axis of rotation, the drive unit has a gravity center and the gravity center substantially coincides with the axis of rotation, and the bearing structure is rotatably mounted about a first rotary bearing (4.1),
A sound restoration system, applied to a distributed optical fiber perimeter security system which monitors several protection areas, the sound restoration system comprising: a laser generation mechanism, configured to provide a laser signal; a beam splitting mechanism, configured to split the laser signal into a plurality of input optical signals; a plurality of optical fiber Michelson interference mechanisms, correspondingly arranged in the protection areas, each of the optical fiber Michelson interference mechanisms being configured to receive one of the input optical signals and output an interference signal in response to a surrounding sound pressure; the sound restoration system being characterized in that it further comprises: an audio output mechanism, configured to receive the interference signals, and after an alarm signal of any one of the protection areas is received, restore real-time audio signal in the any one of the protection areas based on the interference signals to assist the user in confirming whether the alarm signal is a real alarm signal, and output the restored audio signal to the user. a laser generation mechanism, configured to provide a laser signal; a beam splitting mechanism, configured to split the laser signal into a plurality of input optical signals; a plurality of optical fiber Michelson interference mechanisms, correspondingly arranged in the protection areas, each of the optical fiber Michelson interference mechanisms being configured to receive one of the input optical signals and output an interference signal in response to a surrounding sound pressure; the sound restoration system being characterized in that it further comprises: an audio output mechanism, configured to receive the interference signals, and after an alarm signal of any one of the protection areas is received, restore real-time audio signal in the any one of the protection areas based on the interference signals to assist the user in confirming whether the alarm signal is a real alarm signal, and output the restored audio signal to the user.
A spacer for a compressor of a gas turbine engine, comprising: a first side portion; a second side portion spaced apart from the first side portion; and a middle web arranged between the first and second side portions (82, 80), wherein the middle web includes at least one web orifice to communicate flow in a direction that is opposite from a core flowpath flow direction, characterised in that: one of the first and second side portions (82, 80) includes at least one side portion orifice in a direction that is perpendicular to the core flowpath direction, wherein the at least one web orifice or the at least one side portion orifice includes an inertia-activated valve, the inertia-activated valve configured to vary a flowrate of the flow through the at least one web or side portion orifice (86, 88). a first side portion; a second side portion spaced apart from the first side portion; and a middle web arranged between the first and second side portions (82, 80), wherein the middle web includes at least one web orifice to communicate flow in a direction that is opposite from a core flowpath flow direction, characterised in that: one of the first and second side portions (82, 80) includes at least one side portion orifice in a direction that is perpendicular to the core flowpath direction, wherein the at least one web orifice or the at least one side portion orifice includes an inertia-activated valve, the inertia-activated valve configured to vary a flowrate of the flow through the at least one web or side portion orifice (86, 88).
An injection-compression apparatus for manufacturing thermoplastic containers, in particular PET preforms, having a vertical rotation axis, comprising - a fixed supporting base, - a rotating carousel, rotating about the vertical rotation axis with respect to the fixed supporting base, - a plurality of injection-compression molds (9', 9", 9"') of the thermoplastic containers arranged along a periphery of the rotating carousel, - a plurality of lateral feeding conduits (27, 52) of the injection-compression molds (9', 9", 9"'), apt to rotate along with the rotating carousel, - a distribution device connecting the fixed supporting base to the rotating carousel to allow melted thermoplastic to be conveyed, comprising a passage channel, fixed and coaxial to the vertical rotation axis, having an inlet and an outlet, adapted to be connected at said inlet to an extruder and connected at said outlet to the plurality of lateral feeding conduits (27, 52), wherein said plurality of injection-compression molds (9', 9", 9"') are gathered together into molding modules of two or more injection-compression molds (9', 9", 9"') each, and characterized in that a single lateral conduit (27, 52) is provided for each molding module and in that the injection-compression apparatus is configured to carry out a sequence of steps of a molding process at the same time in the two or more injection-compression molds (9', 9", 9"') of each molding module. - a fixed supporting base, - a rotating carousel, rotating about the vertical rotation axis with respect to the fixed supporting base, - a plurality of injection-compression molds (9', 9", 9"') of the thermoplastic containers arranged along a periphery of the rotating carousel, - a plurality of lateral feeding conduits (27, 52) of the injection-compression molds (9', 9", 9"'), apt to rotate along with the rotating carousel, - a distribution device connecting the fixed supporting base to the rotating carousel to allow melted thermoplastic to be conveyed, comprising a passage channel, fixed and coaxial to the vertical rotation axis, having an inlet and an outlet, adapted to be connected at said inlet to an extruder and connected at said outlet to the plurality of lateral feeding conduits (27, 52), wherein said plurality of injection-compression molds (9', 9", 9"') are gathered together into molding modules of two or more injection-compression molds (9', 9", 9"') each, and characterized in that a single lateral conduit (27, 52) is provided for each molding module and in that the injection-compression apparatus is configured to carry out a sequence of steps of a molding process at the same time in the two or more injection-compression molds (9', 9", 9"') of each molding module.
An assembly comprising: a turbine housing (126, 310) that comprises a wastegate passage that extends to a wastegate seat; a wastegate valve that comprises a control arm coupled to a wastegate shaft that extends to a wastegate plug; a bore wherein the wastegate shaft is disposed at least in part in the bore; a bushing disposed at least in part in the bore; and a biasing cam operatively coupled to the control arm; characterized in that the biasing cam comprises a biasing member and the biasing cam provides an axial clearance that allows for axial movement of the wastegate shaft as the wastegate plug transitions to a closed state with respect to the wastegate seat and wherein the biasing cam reduces the axial clearance through contact of the biasing member with the bushing to exert a biasing force as the wastegate plug transitions to an open state with respect to the wastegate seat. a turbine housing (126, 310) that comprises a wastegate passage that extends to a wastegate seat; a wastegate valve that comprises a control arm coupled to a wastegate shaft that extends to a wastegate plug; a bore wherein the wastegate shaft is disposed at least in part in the bore; a bushing disposed at least in part in the bore; and a biasing cam operatively coupled to the control arm; characterized in that the biasing cam comprises a biasing member and the biasing cam provides an axial clearance that allows for axial movement of the wastegate shaft as the wastegate plug transitions to a closed state with respect to the wastegate seat and wherein the biasing cam reduces the axial clearance through contact of the biasing member with the bushing to exert a biasing force as the wastegate plug transitions to an open state with respect to the wastegate seat.
An apparatus of manufacturing an aerogel sheet, the apparatus comprising: a fixing vessel into which a blanket is inserted; and an impregnation device putting a silica sol precursor into the blanket inserted into the fixing vessel to impregnate and gelate the silica sol precursor, wherein the impregnation device comprises a rotation roller moving from one end to the other end of a top surface of the blanket while rotating to put the stored silica sol precursor into the blanket and thereby to impregnate and gelate the silica sol precursor, wherein the impregnation device comprises an elevation member allowing the rotation roller to descend to the top surface of the blanket or ascend from the top surface of the blanket, wherein a plurality of injection nozzles, which discharge the stored silica sol precursor, are provided on an outer circumferential surface of the rotation roller, and wherein each of the injection nozzles protrudes outward from the circumferential surface of the rotation roller. a fixing vessel into which a blanket is inserted; and an impregnation device putting a silica sol precursor into the blanket inserted into the fixing vessel to impregnate and gelate the silica sol precursor, wherein the impregnation device comprises a rotation roller moving from one end to the other end of a top surface of the blanket while rotating to put the stored silica sol precursor into the blanket and thereby to impregnate and gelate the silica sol precursor, wherein the impregnation device comprises an elevation member allowing the rotation roller to descend to the top surface of the blanket or ascend from the top surface of the blanket,
A direct reduction process using a vertical furnace, the process comprising: (a) providing a cement mixture comprising water and from about 12 wt% to about 20 wt% cement; (b) applying the cement mixture to iron oxide pellets to provide a coated iron oxide pellet having a sticking index of less than or equal to about 5%; (c) introducing the coated iron oxide pellet to a vertical furnace; and (d) reducing the coated iron oxide pellet in the vertical furnace to metallize the iron oxide in the coated iron oxide pellet at least about 92%; wherein the cement mixture is applied in a ratio of about 0.4 to about 1.0 kg cement/ton iron oxide pellets. (a) providing a cement mixture comprising water and from about 12 wt% to about 20 wt% cement; (b) applying the cement mixture to iron oxide pellets to provide a coated iron oxide pellet having a sticking index of less than or equal to about 5%; (c) introducing the coated iron oxide pellet to a vertical furnace; and (d) reducing the coated iron oxide pellet in the vertical furnace to metallize the iron oxide in the coated iron oxide pellet at least about 92%;
A monomer for use in making a homopolymer or a copolymer for stabilizing a biomolecule, the monomer having the general structure: R 1 R 2 C = CR 3 R 4, wherein R 1 and R 2 are hydrogen, R 3 is hydrogen or methyl and R 4 is a side chain of the formula -L-trehalose, wherein L is a linker that links trehalose to the monomer and L-trehalose has a structure selected from: