mhurhangee/ep-ind-claims huggingface dataset:
A method of interference mitigation, comprising: receiving, by a controller in a network including small cells, information from the small cells, the information including a number of user equipments, UEs, in each of the small cells, and an aggregate downlink data rate in each of the small cells, in which the controller comprises one of the small cells; and responsive to the received information including the number of UEs and an aggregate downlink data rate in each of the small cells, coordinating, by the controller, allocation of resources for use by the small cells in communicating data with respective UEs, wherein the coordinating of the allocation of resources comprises dynamically adjusting assignments of almost blank subframes, ABS, to the small cells to reduce interference among the small cells; wherein the resources include reserved resources and dynamic resources, and wherein coordinating the allocating of resources comprises dynamically allocating the dynamic resources based on loading of the small cells; the method further including detecting by the one of the small cells that it has a high traffic load, and that no dynamic resource is available for dynamic assignment; and in response sending, by the one of the small cells, a resource borrow request to a neighbour small cell. receiving, by a controller in a network including small cells, information from the small cells, the information including a number of user equipments, UEs, in each of the small cells, and an aggregate downlink data rate in each of the small cells, in which the controller comprises one of the small cells; and responsive to the received information including the number of UEs and an aggregate downlink data rate in each of the small cells, coordinating, by the controller, allocation of resources for use by the small cells in communicating data with respective UEs, wherein the coordinating of the allocation of resources comprises dynamically adjusting assignments of almost blank subframes, ABS, to the small cells to reduce interference among the small cells; wherein the resources include reserved resources and dynamic resources, and wherein coordinating the allocating of resources comprises dynamically allocating the dynamic resources based on loading of the small cells; the method further including detecting by the one of the small cells that it has a high traffic load, and that no dynamic resource is available for dynamic assignment; and in response sending, by the one of the small cells, a resource borrow request to a neighbour small cell.
A rotary actuator assembly, the rotary actuator assembly comprising: an output shaft; an input drive assembly including an input shaft, wherein the output shaft is coupled to the input drive assembly; and a piston assembly comprising a body surrounding a piston moveable within the body, wherein the body defines a first end and a second end opposite thereof between which the piston is moveable within the body, and further wherein the piston assembly includes a spring disposed at the first end between the body and the piston, and wherein the piston assembly comprises a friction mechanism disposed at a second end of the piston opposite of a first end of the piston, wherein the friction mechanism is configured to engage the piston to the input drive assembly, wherein an adjustable area is defined within the body between the second end of the piston and the input drive assembly, and wherein the friction mechanism comprises a serrated geometry at the piston and the input shaft, wherein the serrated geometry is configured to statically couple together the piston and the input drive assembly, characterized in that the body defines a groove extended laterally between the first end and the second end, and wherein the piston is at least partially disposed in the groove to prevent rotation of the piston. an output shaft; an input drive assembly including an input shaft, wherein the output shaft is coupled to the input drive assembly; and a piston assembly comprising a body surrounding a piston moveable within the body, wherein the body defines a first end and a second end opposite thereof between which the piston is moveable within the body, and further wherein the piston assembly includes a spring disposed at the first end between the body and the piston, and wherein the piston assembly comprises a friction mechanism disposed at a second end of the piston opposite of a first end of the piston, wherein the friction mechanism is configured to engage the piston to the input drive assembly, wherein an adjustable area is defined within the body between the second end of the piston and the input drive assembly, and wherein the friction mechanism comprises a serrated geometry at the piston and the input shaft, wherein the serrated geometry is configured to statically couple together the piston and the input drive assembly, characterized in that the body defines a groove extended laterally between the first end and the second end, and wherein the piston is at least partially disposed in the groove to prevent rotation of the piston.
Connecting system for connecting a lattice tower and a gondola of a wind turbine having at least two blades, the connecting system being formed by a connecting piece attached on one hand to the tower and on the other to the gondola by means of an attachment with yawing capability, characterized in that the connecting piece is annular, cylindrical and modular, and: - it is made up of two rings, a top ring and a lower ring attached to one another with outer vertical plates and further comprises lower horizontal plates and top horizontal plates which form top and lower smooth faces respectively, each smooth face having a large opening in the center, the connecting piece having internally at least as many number of central ribs as the number of legs of the tower, the central ribs forming polygons inscribed inside the connecting piece, depending on the number of legs forming the lattice tower, - it is assembled from at least three circular sectors which are mutually attached by means of cylindrical attachment pieces, fixed to the central ribs and the outer vertical plates arranged between the top ring and lower ring, - and it is supportable on as many legs (5, 6, 7) as those forming the lattice tower. - it is made up of two rings, a top ring and a lower ring attached to one another with outer vertical plates and further comprises lower horizontal plates and top horizontal plates which form top and lower smooth faces respectively, each smooth face having a large opening in the center, the connecting piece having internally at least as many number of central ribs as the number of legs of the tower, the central ribs forming polygons inscribed inside the connecting piece, depending on the number of legs forming the lattice tower, - it is assembled from at least three circular sectors which are mutually attached by means of cylindrical attachment pieces, fixed to the central ribs and the outer vertical plates arranged between the top ring and lower ring, - and it is supportable on as many legs (5, 6, 7) as those forming the lattice tower.
An initiator assembly comprising: an outer body having a first end, an opposite second end, and forming an internal passage between the first and second ends, the outer body preferably including an electrically conductive outer body; an initiator canister joined to the outer body at the first end, the initiator canister defining a charge chamber having a reactive charge disposed therein and including a pair of electrically conductive pins (68, 72) extending therefrom; an insulative material molded within the internal passage to form an insulative structural member joining the initiator canister and pins (68, 72) to the outer body, the insulative material insulating the pins (68, 72) and a portion of the initiator canister from electrical contact with the outer body; characterized by an electrostatic discharge dissipater formed from an electrically conductive material and molded to the initiator canister and the outer body at the first end, the electrostatic discharge dissipater (120, 120A) electrically connecting the initiator canister to the outer body to provide a controlled dissipation path for electrostatic discharge energy carried by the initiator assembly. an outer body having a first end, an opposite second end, and forming an internal passage between the first and second ends, the outer body preferably including an electrically conductive outer body; an initiator canister joined to the outer body at the first end, the initiator canister defining a charge chamber having a reactive charge disposed therein and including a pair of electrically conductive pins (68, 72) extending therefrom; an insulative material molded within the internal passage to form an insulative structural member joining the initiator canister and pins (68, 72) to the outer body, the insulative material insulating the pins (68, 72) and a portion of the initiator canister from electrical contact with the outer body;
An oil scraper piston ring, comprising a base body having a radial outer bearing surface which forms two bearing surface webs (3, 4) which are axially spaced from each other and, if required, provided with a coating (9, 10), an inner circumferential surface as well as two upper and lower flank areas that extend radially between the outer areas of the bearing surface webs (3, 4) and the inner circumferential surface, wherein a groove having a pre-determinable width and depth is provided between the bearing surface webs (3, 4), wherein the bearing web flanks (11, 12), starting from the base of the groove, essentially extend parallel to the upper and lower flank areas (6, 7), wherein at a pre-determinable radial height of the groove a section (13, 14) is provided which extends in the direction of the free end of the bearing surface webs (3, 4) at a pre-determinable angle and reduces the width of the bearing surface webs (3, 4), wherein the section (13, 14) extends at an angle comprised between 20 and 40° with respect to the parallel bearing web flanks (11, 12) and that the bearing surface webs (3, 4) are provided with a pre-determinable profile, in particular a cusp profile (17, 18), onto which a wear-resistant coating having a pre-determinable layer thickness has been applied, characterized in that the parallel bearing web flanks (11, 12) run into the grove base of the groove while forming a radius, that the transition of the parallel bearing web flanks (11, 12) into the respective section (13, 14) takes place through a curved area, in particular through a radius, and the axial construction height of the base body is ≤ 2.5 mm, in particular ≤ 2 mm.
A refrigerant supply device for distributing, by force of gravity, liquid phase refrigerant to heat receivers disposed in a plurality of tiers, the device comprising: a first conduit for supplying the refrigerant to the heat receivers; a second conduit provided in parallel with the first conduit; a first aperture provided in the first conduit for supplying the refrigerant to one of the heat receivers; a first blocking means provided below the first aperture for blocking the first conduit; a first communication opening provided above the first aperture and communicating the first conduit and the second conduit; a second communication opening provided below the first blocking means and communicating the first conduit and the second conduit; and a second blocking means provided below the second communication opening for blocking the second conduit. a first conduit for supplying the refrigerant to the heat receivers; a second conduit provided in parallel with the first conduit; a first aperture provided in the first conduit for supplying the refrigerant to one of the heat receivers; a first blocking means provided below the first aperture for blocking the first conduit; a first communication opening provided above the first aperture and communicating the first conduit and the second conduit; a second communication opening provided below the first blocking means and communicating the first conduit and the second conduit; and a second blocking means provided below the second communication opening for blocking the second conduit.
Coriolis mass flowmeter with two curved measuring tubes (1,2), which are arranged opposite one another in mirror symmetry to a plane of symmetry E and which are set to vibrate essentially perpendicularly to the plane of symmetry, wherein the ends of the measuring tubes (1, 2) are interconnected via coupling elements (51, 52, 53, 54), characterized in that the two measuring tubes are arranged in such a way that their section planes (E1, E2) includes an angle α which is greater than zero and less than 3° in order to compensate for forces in the plane of symmetry that occur at the ends of the tubes.
A piston ring comprising an outer peripheral sliding surface having a first curved surface which is outwardly bulging in a cross-section along a centre axis of said piston ring, said first curved surface having a radius of curvature continuously increasing or continuously decreasing as going from a lower-surface side to an upper-surface side, characterised in that a curve of said first curved surface in said cross-section is a deformed involute curve expressed by the formulae x = a cos θ + θ b ⋅ sin θ / α, and y = a sin θ − θ cos θ / β, where a, b, α and β are constants.
A method for identifying a storage device, the storage device being composed of several disks, wherein the method comprises: obtaining, by a master control server, disk information of a storage device through a storage server; the disk information being the disk serial numbers of the disks of the storage device; determining, by the master control server, that there is a storage device matching a device identifier according to the disk information, and entering a monitoring state; and determining, by the master control server, that there is no storage device matching a device identifier according to the disk information, creating a unique device identifier for the storage device randomly and entering the monitoring state, wherein various storage devices are managed through unified device identifiers; wherein the determining that there is a storage device matching a device identifier comprises: comparing the received disk information of the storage device with disk information in an identifier table which stores the relationship between the device identifier of the storage device and the disk information of the storage device; determining that the storage device fully matches the device identifier in the identifier table when the disk information of the storage device fully matches the disk information in the identifier table; otherwise, determining that the storage device fuzzily matches the device identifier in the identifier table when a half or more of the disk information of the storage device matches the disk information in the identifier table. obtaining, by a master control server, disk information of a storage device through a storage server; the disk information being the disk serial numbers of the disks of the storage device; determining, by the master control server, that there is a storage device matching a device identifier according to the disk information, and entering a monitoring state; and determining, by the master control server, that there is no storage device matching a device identifier according to the disk information, creating a unique device identifier for the storage device randomly and entering the monitoring state, wherein various storage devices are managed through unified device identifiers; comparing the received disk information of the storage device with disk information in an identifier table which stores the relationship between the device identifier of the storage device and the disk information of the storage device; determining that the storage device fully matches the device identifier in the identifier table when the disk information of the storage device fully matches the disk information in the identifier table; otherwise, determining that the storage device fuzzily matches the device identifier in the identifier table when a half or more of the disk information of the storage device matches the disk information in the identifier table.
A device (100, 200) for manufacturing recycled carbon fibers using carbon fiber reinforced plastic containing carbon fibers and a matrix component as a source material, comprising: a dry distillation-carbonization furnace for dry distilling the carbon fiber reinforced plastic and converting a portion of the matrix component into fixed carbon to attach the fixed carbon to the surfaces of the carbon fibers, said dry distillation-carbonization furnace provided with a box-shaped main body (105, 205), a dry distillation-carbonization chamber which is arranged in the inside of the main body (105, 205) and accommodates the carbon fiber reinforced plastic, a combustion chamber (103, 203) which is arranged in the lower part of the dry distillation-carbonization chamber and equipped with a burner, and a heating chamber formed in the space between the main body (105, 205) and the dry distillation-carbonization chamber; and a continuous furnace for continuously heating the carbon fibers attached with the fixed carbon and removing a portion of the fixed carbon, said continuous furnace provided with a mesh transportation part for transporting the carbon fibers attached with the fixed carbon and an elongated tunnel-shaped heat treatment space, wherein a steam generator (105, 205) is provided to the dry distillation-carbonization furnace (101, 102) said steam generator providing steam at 100°C or higher and 700°C or lower to the dry distillation-carbonization chamber. a dry distillation-carbonization furnace for dry distilling the carbon fiber reinforced plastic and converting a portion of the matrix component into fixed carbon to attach the fixed carbon to the surfaces of the carbon fibers, said dry distillation-carbonization furnace provided with a box-shaped main body (105, 205), a dry distillation-carbonization chamber which is arranged in the inside of the main body (105, 205) and accommodates the carbon fiber reinforced plastic, a combustion chamber (103, 203) which is arranged in the lower part of the dry distillation-carbonization chamber and equipped with a burner, and a heating chamber formed in the space between the main body (105, 205) and the dry distillation-carbonization chamber; and a continuous furnace for continuously heating the carbon fibers attached with the fixed carbon and removing a portion of the fixed carbon, said continuous furnace provided with a mesh transportation part for transporting the carbon fibers attached with the fixed carbon and an elongated tunnel-shaped heat treatment space, wherein a steam generator (105, 205) is provided to the dry distillation-carbonization furnace (101, 102) said steam generator providing steam at 100°C or higher and 700°C or lower to the dry distillation-carbonization chamber.
A non-linear resistive element, comprising: at least a ceramic sheet formed by a plurality of ceramic pieces composed of ceramic sintered compact being consolidated in a plate like shape by an insulating resin, wherein one or a plurality of the ceramic pieces form each of a plurality of conductive paths which penetrate the ceramic sheet in a thickness direction thereof, and the ceramic pieces forming both ends of the conductive paths are partially projected from the insulating resin, wherein the ceramic pieces have a spherical shape or an oval sphere shape, the insulating resin has flexibility, characterized in that the insulating resin is a resin having a property of changing colors by heating. at least a ceramic sheet formed by a plurality of ceramic pieces composed of ceramic sintered compact being consolidated in a plate like shape by an insulating resin, wherein one or a plurality of the ceramic pieces form each of a plurality of conductive paths which penetrate the ceramic sheet in a thickness direction thereof, and the ceramic pieces forming both ends of the conductive paths are partially projected from the insulating resin, wherein the ceramic pieces have a spherical shape or an oval sphere shape, the insulating resin has flexibility, characterized in that the insulating resin is a resin having a property of changing colors by heating.
A steel sheet, comprising, in wt%: 0.05 to 0.12% of C, 0.01 to 0.5% of Si, 0.8 to 2.0% of Mn, 0.01 to 0.1% of Al, 0.005 to 1.2% of Cr, 0.005 to 0.5% of Mo, 0.001 to 0.01% of P, 0.001 to 0.01% of S, 0.001 to 0.01% of N, 0.001 to 0.03% of Nb, 0.005 to 0.03% of Ti, 0.001 to 0.2% of V, 0.0003 to 0.003% of B, and a remainder of Fe and unavoidable impurities, a microstructure consists of tempered martensite as a main structure, and a remainder thereof comprises one or more of bainite, tempered bainite and ferrite, the number of one or more of carbides and nitrides having an equivalent circular diameter of 0.1 μm or more observed in a 1 cm 2 unit area is 1×10 3 or less, and the number of precipitates having a diameter of 50 nm or more including one or more of Ti, Nb, V, and Mo observed in a 1 cm 2 unit area is 1×10 7 or less, wherein the steel sheet has a yield strength of 900 MPa or more, measured by taking specimens of JIS 5 standard specimens in a direction perpendicular to a rolling direction, and a Charpy V-Notched energy at -40°C of 30 J or more. 0.05 to 0.12% of C, 0.01 to 0.5% of Si, 0.8 to 2.0% of Mn, 0.01 to 0.1% of Al, 0.005 to 1.2% of Cr, 0.005 to 0.5% of Mo, 0.001 to 0.01% of P, 0.001 to 0.01% of S, 0.001 to 0.01% of N, 0.001 to 0.03% of Nb, 0.005 to 0.03% of Ti, 0.001 to 0.2% of V, 0.0003 to 0.003% of B, and a remainder of Fe and unavoidable impurities, a microstructure consists of tempered martensite as a main structure, and a remainder thereof comprises one or more of bainite, tempered bainite and ferrite, the number of one or more of carbides and nitrides having an equivalent circular diameter of 0.1 μm or more observed in a 1 cm 2 unit area is 1×10 3 or less, and the number of precipitates having a diameter of 50 nm or more including one or more of Ti, Nb, V, and Mo observed in a 1 cm 2 unit area is 1×10 7 or less,
A cleaning appliance of the cylinder type comprising a floor engaging rolling assembly comprising a fluid inlet for receiving a fluid flow and means for acting (200,204) on the fluid flow received through the inlet, a chassis connected to and projecting from the rolling assembly, a steering mechanism comprising a plurality of floor engaging steering members connected to the chassis and a control mechanism (42,44,58) for changing simultaneously the orientation of the steering members relative to the chassis and a separating apparatus for separating dirt from the fluid flow wherein the separating apparatus is external to the rolling assembly.
A shaped charge comprising: - charge case; - a liner; and - a main body of explosive disposed between the charge case and the liner, - an energetic material forming the charge case and liner, and - the energetic material being selected from the list consisting of a propellant, an oxidizer, and a combination thereof, ammonium perchlorate and potassium perchlorate or a combination thereof, so that when the energetic material is initiated, the state of the energetic material changes from a solid material to a substantially vapor phase composition characterized in that - tungsten and cement particles are added to the energetic material. - charge case; - a liner; and - a main body of explosive disposed between the charge case and the liner, - an energetic material forming the charge case and liner, and - the energetic material being selected from the list consisting of a propellant, an oxidizer, and a combination thereof, ammonium perchlorate and potassium perchlorate or a combination thereof, so that when the energetic material is initiated, the state of the energetic material changes from a solid material to a substantially vapor phase composition - tungsten and cement particles are added to the energetic material.