mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving network access selection information for a user equipment for a plurality of networks comprising at least one cellular network and at least one local wireless network, said network access selection information provided in dependence on a current priority associated with the user equipment by the cellular network from an RRC connection message; and using said network access selection information to select one of said plurality of networks. receiving network access selection information for a user equipment for a plurality of networks comprising at least one cellular network and at least one local wireless network, said network access selection information provided in dependence on a current priority associated with the user equipment by the cellular network from an RRC connection message; and using said network access selection information to select one of said plurality of networks.
Polyolefin resin expanded particles, obtainable by expanding polyolefin resin particles which contain, with respect to 100 parts by weight of polyolefin resin, (i) 0.03 part by weight to 5 parts by weight of a phosphorous flame retardant having a phosphorous content of 7% by weight or more, a melting point of 120°C or more, and a 5% by weight decomposition temperature within a range of 240°C to 320°C and (ii) 0.5 part by weight to 20 parts by weight of carbon black, wherein the phosphorous flame retardant having the phosphorous content of 7% by weight or more, the melting point of 120°C or more, and the 5% by weight decomposition temperature within the range of 240°C to 320°C is triphenyl phosphine oxide or 2-diphenyl phosphinyl hydroquinone, and wherein the polyolefin resin is polypropylene.
A method of generating a quantized block, comprising: deriving an intra prediction mode of a current prediction unit using a Most Probable Mode, MPM, group including three intra prediction modes which are determined according to left and above intra prediction modes of the current prediction unit; selecting an inverse scan pattern based on the intra prediction mode and a size of a transform unit; and generating the quantized block by inversely scanning significant flags, coefficient signs and coefficient levels according to the selected inverse scan pattern, wherein the inverse scan pattern is one of a diagonal scan, a vertical scan and a horizontal scan, wherein when the left intra prediction mode and the above intra prediction mode are same to each other and the left intra prediction mode is one of two non-directional intra prediction modes, the MPM group includes the two non-directional intra prediction modes and a vertical mode, and wherein when both of the left intra prediction mode and the above intra prediction mode are unavailable, the MPM group includes the two non-directional intra prediction modes and the vertical mode. deriving an intra prediction mode of a current prediction unit using a Most Probable Mode, MPM, group including three intra prediction modes which are determined according to left and above intra prediction modes of the current prediction unit; selecting an inverse scan pattern based on the intra prediction mode and a size of a transform unit; and generating the quantized block by inversely scanning significant flags, coefficient signs and coefficient levels according to the selected inverse scan pattern, wherein the inverse scan pattern is one of a diagonal scan, a vertical scan and a horizontal scan, wherein when the left intra prediction mode and the above intra prediction mode are same to each other and the left intra prediction mode is one of two non-directional intra prediction modes, the MPM group includes the two non-directional intra prediction modes and a vertical mode, and wherein when both of the left intra prediction mode and the above intra prediction mode are unavailable, the MPM group includes the two non-directional intra prediction modes and the vertical mode.
A multiple hearth furnace for thermal treatment at a temperature not exceeding 350°C, comprising an upper inlet for material to be thermally treated, a lower outlet for treated material, a rotating central shaft, a heating device (8, 17, 27) for the material to be thermally treated, an outer casing to which a plurality of hearths are fastened, at least one rabble arm provided with rabble tines above each hearth, rotated by the rotating central shaft, said hearths alternately and respectively having a material unloading opening proximal to the shaft and a material unloading opening distal to the shaft, so as to give the material to be treated a spiral path along the height of the furnace, the hearths being made up of flat discs fastened to the outer casing, the rabble arms being fastened to mechanically welded modules making up the central shaft, the rabble tines being welded to their respective rabble arms, all of these elements being made from metal sheets or plates, said multiple hearth furnace being characterized in that the aforementioned heating device comprises a radiant heat exchanger in the form of a flat heat exchange structure for the individual heating of each hearth comprising thermal fluid ducts (17, 27), secured to the face of each hearth not being in contact with the material to be treated, and in that the flat heat exchange structure comprising thermal fluid ducts (17, 27) comprises a set of individual ducts made from tubes in a single piece bent in the form of small sections in sector (37, 47) form.
A projective computing system, comprising: a vertical all-in-one computer to display a first interface; a horizontal touch sensitive mat communicatively coupled to the vertical all-in-one computer; a projector assembly to project a second interface on the horizontal touch sensitive mat; and a touch coordination module to receive a touch input modification request, and in response to the receiving the touch input modification request, automatically and without further input change the touch input association from the horizontal touch sensitive mat to the vertical all-in-one computer such that a touch input on the horizontal touch sensitive mat controls the first interface displayed on vertical all-in-one computer, wherein the touch coordination module is further to cause a marker to be shown on the vertical all-in-one computer when an input device is proximate to the horizontal touch sensitive mat, the marker providing an indication of a position of the input device on the mat with respect to the vertical all-in-one computer. a vertical all-in-one computer to display a first interface; a horizontal touch sensitive mat communicatively coupled to the vertical all-in-one computer; a projector assembly to project a second interface on the horizontal touch sensitive mat; and a touch coordination module to receive a touch input modification request, and in response to the receiving the touch input modification request, automatically and without further input change the touch input association from the horizontal touch sensitive mat to the vertical all-in-one computer such that a touch input on the horizontal touch sensitive mat controls the first interface displayed on vertical all-in-one computer, wherein the touch coordination module is further to cause a marker to be shown on the vertical all-in-one computer when an input device is proximate to the horizontal touch sensitive mat, the marker providing an indication of a position of the input device on the mat with respect to the vertical all-in-one computer.
A support for a washing machine with automatic leveling function comprising a sheath; a regulating mechanism being arranged in the sheath and axially movable relative to the sheath; and a flexible body assembly being arranged in the regulating mechanism and accommodating a hydraulic medium; wherein one end of the flexible body assembly is limited and arranged in the sheath, another end is a stretchable end which acts on the regulating mechanism, the stretchable end expands and contracts under an action of the hydraulic medium and drives the regulating mechanism to move axially for automatic leveling, characterized by the flexible body assembly comprises a flexible accommodating body, a mounting assembly for mounting the flexible accommodating body, and a protection mechanism provided between the mounting assembly and the flexible accommodating body for protecting the flexible accommodating body.
A secondary battery comprising: an electrode assembly; a first lead plate connected to the electrode assembly; a second lead plate disposed facing the first lead plate with a gap therebetween such that at least a portion of the second lead plate overlaps with at least a portion of the first lead plate; a metal bridge disposed within the gap to connect the first lead plate and the second lead plate; a first sealant disposed within the gap farther or closer to the electrode assembly than the metal bridge; a pouch case to receive the electrode assembly such that the second lead plate is drawn outside; and a second sealant interposed respectively between an inner surface of the pouch case and the first lead plate and between the inner surface of the pouch case and the second lead plate, characterized in that the metal bridge is made of a metal alloy having a lower melting point than the first lead plate and the second lead plate. an electrode assembly; a first lead plate connected to the electrode assembly; a second lead plate disposed facing the first lead plate with a gap therebetween such that at least a portion of the second lead plate overlaps with at least a portion of the first lead plate; a metal bridge disposed within the gap to connect the first lead plate and the second lead plate; a first sealant disposed within the gap farther or closer to the electrode assembly than the metal bridge; a pouch case to receive the electrode assembly such that the second lead plate is drawn outside; and a second sealant interposed respectively between an inner surface of the pouch case and the first lead plate and between the inner surface of the pouch case and the second lead plate, characterized in that the metal bridge is made of a metal alloy having a lower melting point than the first lead plate and the second lead plate.
A prophylactic, ameliorating or therapeutic agent for an oral disease, comprising: a lactic acid bacterial cell of one or more kinds selected from the group consisting of Lactobacillus rhamnosus strain KO3 (NITE BP-771), Lactobacillus casei strain YU3 (NITE BP-772) and Lactobacillus paracasei strain YU4 (NITE BP-775) or a culture of the cell as an active ingredient. a lactic acid bacterial cell of one or more kinds selected from the group consisting of Lactobacillus rhamnosus strain KO3 (NITE BP-771), Lactobacillus casei strain YU3 (NITE BP-772) and Lactobacillus paracasei strain YU4 (NITE BP-775) or a culture of the cell as an active ingredient.
A multijunction photovoltaic device comprising a set of semiconductor material layers, wherein the layers comprise: a first light absorbing layer of silicon germanium or silicon germanium tin material including a photocarrier separating p-n junction having an associated bandgap energy, a second light absorbing layer including a photocarrier separating p-n junction having an associated bandgap energy, which is between 0.8eV and 1.2eV, a third light absorbing layer including a photocarrier separating p-n junction having an associated bandgap energy, and a fourth light absorbing layer including a photocarrier separating p-n junction having an associated bandgap energy, wherein the bandgap energy of the first light absorbing layer is lower than the bandgap energy of the second light absorbing layer, which is lower than the bandgap energy of the third light absorbing layer, which is lower than the bandgap energy of the fourth light absorbing layer, the light absorbing layers are arranged in order of bandgap, the second light absorbing layer is of gallium nitride arsenide antimonide material, and all of the first, second, third, and fourth light absorbing layers (51, 52, 53, 54) are lattice matched to gallium arsenide. a first light absorbing layer of silicon germanium or silicon germanium tin material including a photocarrier separating p-n junction having an associated bandgap energy, a second light absorbing layer including a photocarrier separating p-n junction having an associated bandgap energy, which is between 0.8eV and 1.2eV, a third light absorbing layer including a photocarrier separating p-n junction having an associated bandgap energy, and a fourth light absorbing layer including a photocarrier separating p-n junction having an associated bandgap energy, wherein the bandgap energy of the first light absorbing layer is lower than the bandgap energy of the second light absorbing layer, which is lower than the bandgap energy of the third light absorbing layer, which is lower than the bandgap energy of the fourth light absorbing layer, the light absorbing layers are arranged in order of bandgap, the second light absorbing layer is of gallium nitride arsenide antimonide material, and all of the first, second, third, and fourth light absorbing layers (51, 52, 53, 54) are lattice matched to gallium arsenide.
Support structure for an energy storage device, in particular for a battery pack of a vehicle, comprising a. at least one base panel that has a first surface and a second surface and that is at least partially made from a composite material; and b. at least one thermal transfer member arranged on the first surface of the least one base panel, the thermal transfer member comprising at least one contact face configured to be in thermal contact with at least part of an energy storage device to be mounted on the support structure, characterized in that, c. the at least one base panel comprises a sandwich-type panel comprising a panel core and a first cover sheet and a second cover sheet arranged on two opposite sides of the panel core. a. at least one base panel that has a first surface and a second surface and that is at least partially made from a composite material; and b. at least one thermal transfer member arranged on the first surface of the least one base panel, the thermal transfer member comprising at least one contact face configured to be in thermal contact with at least part of an energy storage device to be mounted on the support structure,
Rotary electrical machine comprising a rotor provided with a body having an axis, the rotor body comprising a plurality of longitudinal cavities arranged to each receive at least one permanent magnet, - magnetic poles each formed by the permanent magnets housed in two adjacent cavities forming a V in a plane orthogonal to the axis of the rotor body, - the rotor comprising at least one part for holding the permanent magnets in the cavities, - the holding part comprises two elongate strips, each strip comprising at least one boss designed to apply a force for holding the corresponding permanent magnet in the cavity, characterized in that the holding part further comprises at least two connecting arms between the two strips, the boss extending axially between the two connecting arms. - magnetic poles each formed by the permanent magnets housed in two adjacent cavities forming a V in a plane orthogonal to the axis of the rotor body, - the rotor comprising at least one part for holding the permanent magnets in the cavities, - the holding part comprises two elongate strips, each strip comprising at least one boss designed to apply a force for holding the corresponding permanent magnet in the cavity,
A method for producing a ferrite powder for bonded magnet, the method comprising the steps of: mixing a complex oxide powder of iron, strontium, lanthanum and cobalt, with iron oxide to obtain a mixture; granulating the mixture to obtain a granulated mixture; and firing the granulated mixture, characterized in that the complex oxide powder is obtained by a method comprising the steps of: mixing strontium carbonate, lanthanum oxide, iron oxide and cobalt oxide to obtain a mixture; granulating the mixture to obtain a granulated mixture; firing the granulated mixture at a temperature of 1000 to 1250 °C to obtain a fired substance; and pulverizing the fired substance. mixing a complex oxide powder of iron, strontium, lanthanum and cobalt, with iron oxide to obtain a mixture; granulating the mixture to obtain a granulated mixture; and firing the granulated mixture, characterized in that the complex oxide powder is obtained by a method comprising the steps of: mixing strontium carbonate, lanthanum oxide, iron oxide and cobalt oxide to obtain a mixture; granulating the mixture to obtain a granulated mixture; firing the granulated mixture at a temperature of 1000 to 1250 °C to obtain a fired substance; and pulverizing the fired substance. mixing strontium carbonate, lanthanum oxide, iron oxide and cobalt oxide to obtain a mixture; granulating the mixture to obtain a granulated mixture; firing the granulated mixture at a temperature of 1000 to 1250 °C to obtain a fired substance; and pulverizing the fired substance.
A management apparatus for measurement equipment, the management apparatus comprising, a data-accepting part and a data-transmitting-receiving part, wherein the data-accepting part accepts, as an input, an identification information of a communication device attached to the measurement equipment to be connected to the management apparatus, and the data-transmitting-receiving part communicates with the communication device by using the accepted identification information of the communication device, and obtains identification information of the measurement equipment through the communication device, wherein the identification information is specific to the measurement equipment and held in the measurement equipment, the management apparatus further comprising a user-information-accepting part and a storage part, characterized in that the user-information-accepting part accepts, as an input, information relating to a user of the measurement equipment (100, and the storage part holds the information relating to the user and the identification information of the communication device, and the identification information of the measurement equipment in association with each other. a data-accepting part and a data-transmitting-receiving part, wherein the data-accepting part accepts, as an input, an identification information of a communication device attached to the measurement equipment to be connected to the management apparatus, and the data-transmitting-receiving part communicates with the communication device by using the accepted identification information of the communication device, and obtains identification information of the measurement equipment through the communication device, wherein the identification information is specific to the measurement equipment and held in the measurement equipment, the management apparatus further comprising a user-information-accepting part and a storage part, characterized in that the user-information-accepting part accepts, as an input, information relating to a user of the measurement equipment (100, and the storage part holds the information relating to the user and the identification information of the communication device, and the identification information of the measurement equipment in association with each other.
A composition for use in enhancing bone formation in a patient, said composition comprising a demineralized bone matrix extract having been extracted with a chaotropic solvent comprising urea, wherein the DBM extract has osteoinductive activity and has at least the endogenous inhibitor of osteogenic activity noggin removed therefrom.
A moisture-sensitive vacuum packing machine comprising: a device housing having a controller and a vacuum driving unit; a chamber unit positioned above the device housing and having a first chamber and a second chamber whose interiors are vacuumized when the vacuum driving unit operates; and a sensing unit installed in the chamber unit such that it is associated with the controller, and sensing the presence or absence of moisture within the second chamber, characterized in that the sensing unit senses the moisture through a movement of a part of the vacuum packing machine due to the moisture introduced to the second chamber. a device housing having a controller and a vacuum driving unit; a chamber unit positioned above the device housing and having a first chamber and a second chamber whose interiors are vacuumized when the vacuum driving unit operates; and a sensing unit installed in the chamber unit such that it is associated with the controller, and sensing the presence or absence of moisture within the second chamber,
A recombinant heteromultimer comprising an ALK4 polypeptide and an ActRIIB polypeptide; wherein the ALK4 polypeptide comprises an amino acid sequence that is at least 90% identical to a polypeptide that: a) begins at any one of amino acids 24, 25, 26, 27, 28, 29, 30, 31, 32, 33, or 34 of SEQ ID NO: 9, and b) ends at any one of amino acids 101, 102, 103, 104, 105, 106, 107, 108, 109, 110, 111, 112, 113, 114, 115, 116, 117, 118, 119, 120, 121, 122, 123, 124, 125, or 126 of SEQ ID NO: 9; wherein the ActRIIB polypeptide comprises an amino acid sequence that is at least 90% identical to a polypeptide that: a) begins at any one of amino acids 20, 21, 22, 23, 24, 25, 26, 27, 28, or 29 of SEQ ID NO: 1, and b) ends at any one of amino acids 109, 110, 111, 112, 113, 114, 115, 116, 117, 118, 119, 120, 121, 122, 123, 124, 125, 126, 127, 128, 129, 130, 131, 132, 133, or 134 of SEQ ID NO: 1; wherein the ALK4 polypeptide is a fusion protein further comprising a heterologous domain; wherein the ActRIIB polypeptide is a fusion protein further comprising a heterologous domain; wherein the heterologous domains each comprise an Fc immunoglobulin domain; wherein the Fc immunoglobulin domain of the heterologous domain fused to the ALK4 polypeptide and/or the Fc immunoglobulin domain of the heterologous domain fused to the ActRIIB polypeptide comprises one or more amino acid modifications that promotes heteromultimer formation; and wherein the heteromultimer is capable of binding to activin A, activin B and/or GDF11. a) begins at any one of amino acids 24, 25, 26, 27, 28, 29, 30, 31, 32, 33, or 34 of SEQ ID NO: 9, and b) ends at any one of amino acids 101, 102, 103, 104, 105, 106, 107, 108, 109, 110, 111, 112, 113, 114, 115, 116, 117, 118, 119, 120, 121, 122, 123, 124, 125, or 126 of SEQ ID NO: 9; a) begins at any one of amino acids 20, 21, 22, 23, 24, 25, 26, 27, 28, or 29 of SEQ ID NO: 1, and b) ends at any one of amino acids 109, 110, 111, 112, 113, 114, 115, 116, 117, 118, 119, 120, 121, 122, 123, 124, 125, 126, 127, 128, 129, 130, 131, 132, 133, or 134 of SEQ ID NO: 1;