mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: receiving, by a router (16, 18,50) from an ingress router (14, 50) of a label switched path, LSP, established between the ingress router and an egress router (18, 50), a first message requesting establishment of a second LSP instance (26, 28) of the LSP, the second LSP instance having a second path that at least partially overlaps a first path of a first LSP instance of the LSP; determining, by the router, whether to reuse a first label previously allocated by the router for the first LSP instance as a second label used to identify incoming traffic associated with the second LSP instance; reusing, by the router, a label route installed in a forwarding plane of the router for the first LSP instance to forward the incoming traffic identified by the second label along the second path of the second LSP instance without updating the label route, based on the router determining to reuse the first label as the second label; sending, by the router to an upstream router along the second path of the second LSP instance, a second message including the second label for the second LSP instance, wherein, responsive to determining to reuse the first label, the second label included in the second message is the same as the first label previously allocated by the router; and upon establishment of the second LSP instance and tear down of the first LSP instance by the ingress router, receiving, by the router from the upstream router along the second path of the second LSP instance, incoming traffic including the second label. receiving, by a router (16, 18,50) from an ingress router (14, 50) of a label switched path, LSP, established between the ingress router and an egress router (18, 50), a first message requesting establishment of a second LSP instance (26, 28) of the LSP, the second LSP instance having a second path that at least partially overlaps a first path of a first LSP instance of the LSP; determining, by the router, whether to reuse a first label previously allocated by the router for the first LSP instance as a second label used to identify incoming traffic associated with the second LSP instance; reusing, by the router, a label route installed in a forwarding plane of the router for the first LSP instance to forward the incoming traffic identified by the second label along the second path of the second LSP instance without updating the label route, based on the router determining to reuse the first label as the second label; sending, by the router to an upstream router along the second path of the second LSP instance, a second message including the second label for the second LSP instance, wherein, responsive to determining to reuse the first label, the second label included in the second message is the same as the first label previously allocated by the router; and upon establishment of the second LSP instance and tear down of the first LSP instance by the ingress router, receiving, by the router from the upstream router along the second path of the second LSP instance, incoming traffic including the second label.
A motor-operated valve configured to be attached to a flow passage block, the motor-operated valve comprising: a valve body unit comprising an upper cylindrical portion and a lower cylindrical portion, in which a valve chamber provided with a valve seat is formed; a can having a cylindrical shape and coupled to the valve body unit; a rotor provided in an interior of the can; a conversion mechanism configured to convert a rotary movement of the rotor to an axial direction movement; a valve shaft passed through the upper cylindrical portion, that is attached to the conversion mechanism and configured to be displaced in an axial direction to thereby move toward or away from the valve seat; a first gasket having a sheet-like shape that is arranged between the upper cylindrical portion and the lower cylindrical portion and that extends in a direction orthogonal to an axis of the motor-operated valve; and a second gasket having a sheet-like shape that is arranged between the lower cylindrical portion and the flow passage block and that extends in a direction orthogonal to the axis of the motor-operated valve, wherein the first gasket and the second gasket are superposed when viewed in the axial direction of the motor-operated valve, characterized in that the second gasket is pressed from both sides by a pressing surface of the lower cylindrical portion and a pressing surface of the flow passage block using an axial force generated by screw-engaging and relatively rotating a screw formed on the lower cylindrical portion and a screw formed on the flow passage block at an outer side in a radial direction of the second gasket. a valve body unit comprising an upper cylindrical portion and a lower cylindrical portion, in which a valve chamber provided with a valve seat is formed; a can having a cylindrical shape and coupled to the valve body unit; a rotor provided in an interior of the can; a conversion mechanism configured to convert a rotary movement of the rotor to an axial direction movement; a valve shaft passed through the upper cylindrical portion, that is attached to the conversion mechanism and configured to be displaced in an axial direction to thereby move toward or away from the valve seat; a first gasket having a sheet-like shape that is arranged between the upper cylindrical portion and the lower cylindrical portion and that extends in a direction orthogonal to an axis of the motor-operated valve; and a second gasket having a sheet-like shape that is arranged between the lower cylindrical portion and the flow passage block and that extends in a direction orthogonal to the axis of the motor-operated valve, wherein the first gasket and the second gasket are superposed when viewed in the axial direction of the motor-operated valve, characterized in that the second gasket is pressed from both sides by a pressing surface of the lower cylindrical portion and a pressing surface of the flow passage block using an axial force generated by screw-engaging and relatively rotating a screw formed on the lower cylindrical portion and a screw formed on the flow passage block at an outer side in a radial direction of the second gasket.
Switch, in particular a power switch for low voltages, which for turning on and off has an actuator, having an actuating device that is located on the actuator side on the switch and which at least turns the switch on, in particular remotely controlled by means of electric control signals, with the actuating device having a motor drive which by way of a gear that actuates a mechanical system tensions at least one spring (4a or 5a) which is held in the tensioned state by a latch, and with the latch unlatching for actuating the actuator and the actuator being swivelled by the at least one spring (4a or 5a) as it detensions by means of an actuating element (38a, 39a), wherein two spring pairs (4, 5) are provided, one pair for turning on and the other for turning off, and the two spring pairs (4, 5) are connected to each other in each case via a bridge (24, 25), wherein the spring pairs (4, 5) are supported in each case on the sides of the bridges (24, 25) facing away from each other, wherein the two bridges (24, 25) are arranged displaceably relative to each other, wherein the mutually facing bridges (24, 25) are pushed apart to tension the spring pairs (4, 5), and wherein an actuating element for turning on is arranged on one bridge and an actuating element for turning off is arranged on the other bridge.
A visual prosthesis comprising a camera (2, 16, 18) for producing a visual image; a depth sensing device determining a depth of elements in the visual image; a video processor receiving data from the camera and the depth sensing device and producing stimulation signals based on a portion of the visual image found within a range of depths; an implantable neurostimulator configured to stimulate visual neural tissue in accordance to the stimulation signals, wherein the range of depths is controllable by a user. a camera (2, 16, 18) for producing a visual image; a depth sensing device determining a depth of elements in the visual image; a video processor receiving data from the camera and the depth sensing device and producing stimulation signals based on a portion of the visual image found within a range of depths; an implantable neurostimulator configured to stimulate visual neural tissue in accordance to the stimulation signals, wherein the range of depths is controllable by a user.
Process for the realization of a biologically compatible prosthesis component (50;60;90), characterized by comprising the steps of - providing at least two materials (20, 22, 26) with different physical/chemical features; - defining in forming means the component (50;60;90) as a composition of at least two volumes of said at least two materials (20,22,26), wherein one or each of said at least two materials (20,22,26) is initially available in form of powder and wherein said volumes of said materials (20, 22, 26) are made by adjoining layers; - sintering the component (50,60,90) in said forming means at a certain sintering temperature through the Spark Plasma sintering that uses pulsating currents or through any sintering method that uses temperature and pressure simultaneously and that uses pulsating currents, wherein a voltage generator is connected between a punch and a die of said forming means inducing a current between said materials (20,22), wherein said current flows in said materials (20,22) and locally generates plasmas between the particles thereof, optimizing the densification of said powders and obtaining said layers of said materials (20,22) that are dense. - providing at least two materials (20, 22, 26) with different physical/chemical features; - defining in forming means the component (50;60;90) as a composition of at least two volumes of said at least two materials (20,22,26), wherein one or each of said at least two materials (20,22,26) is initially available in form of powder and wherein said volumes of said materials (20, 22, 26) are made by adjoining layers; - sintering the component (50,60,90) in said forming means at a certain sintering temperature through the Spark Plasma sintering that uses pulsating currents or through any sintering method that uses temperature and pressure simultaneously and that uses pulsating currents, wherein a voltage generator is connected between a punch and a die of said forming means inducing a current between said materials (20,22), wherein said current flows in said materials (20,22) and locally generates plasmas between the particles thereof, optimizing the densification of said powders and obtaining said layers of said materials (20,22) that are dense.
A color stable phosphor composition comprising particles of a phosphor of formula I, said particles having a coating composition disposed on surfaces thereof; ((Sr 1-z M z) 1-(x+w) A w Ce x) 3 (Al 1-y Si y)O 4+y+3(x-w) F 1-y-3(x-w) I wherein the coating composition comprises: a material selected from aluminum oxide, magnesium oxide, calcium oxide, barium oxide, strontium oxide, zinc oxide, aluminum hydroxide, magnesium hydroxide, calcium hydroxide, barium hydroxide, strontium hydroxide, zinc hydroxide, aluminum phosphate, calcium phosphate, barium phosphate, strontium phosphate, and combinations thereof; and magnesium phosphate; wherein A is Li, Na, K, or Rb, or a combination thereof; M is Ca, Ba, Mg, Zn, or a combination thereof; and 0<x≤0.10, 0≤y≤0.5, 0≤z≤0.5, 0≤w≤x. a material selected from aluminum oxide, magnesium oxide, calcium oxide, barium oxide, strontium oxide, zinc oxide, aluminum hydroxide, magnesium hydroxide, calcium hydroxide, barium hydroxide, strontium hydroxide, zinc hydroxide, aluminum phosphate, calcium phosphate, barium phosphate, strontium phosphate, and combinations thereof; and magnesium phosphate; wherein A is Li, Na, K, or Rb, or a combination thereof; M is Ca, Ba, Mg, Zn, or a combination thereof; and 0<x≤0.10, 0≤y≤0.5, 0≤z≤0.5, 0≤w≤x.
A method for generating a terminal log, comprising: obtaining sensor information and/or user use information of a mobile terminal; generating first log information according to the sensor information and/or the user use information; receiving second log information input by a user; and combining the first log information with the second log information to generate terminal log information; wherein the generating first log information according to the sensor information and/or the user use information comprises: obtaining an activity and/or an event of the user by performing analysis using a set analysis policy according to the sensor information and/or the user use information; and generating the first log information for describing the activity and/or the event of the user by using a set generation policy according to the activity and/or the event of the user obtained by performing analysis characterized in that after the generating first log information according to the sensor information and/or the user use information, the method further comprises: receiving modification information input by the user; and updating the first log information according to the modification information; after the updating the first log information according to the modification information, the method further comprises: comparing the modification information with the first log information before the updating; and adjusting the set analysis policy according to a result of the comparing, and/or adjusting the generation policy according to a result of the comparing. obtaining sensor information and/or user use information of a mobile terminal; generating first log information according to the sensor information and/or the user use information; receiving second log information input by a user; and combining the first log information with the second log information to generate terminal log information; obtaining an activity and/or an event of the user by performing analysis using a set analysis policy according to the sensor information and/or the user use information; and generating the first log information for describing the activity and/or the event of the user by using a set generation policy according to the activity and/or the event of the user obtained by performing analysis receiving modification information input by the user; and updating the first log information according to the modification information; comparing the modification information with the first log information before the updating; and adjusting the set analysis policy according to a result of the comparing, and/or adjusting the generation policy according to a result of the comparing.
Device (15, 115) for mounting and driving a rotatable part of a gantry of a computed tomography unit relative to a stationary part of the gantry of the computed tomography unit, said gantry having a system axis, having - means (22, 24, 30) for magnetically mounting the rotatable part of the gantry relative to the stationary part of the gantry and - means (22, 24) for electromagnetically driving the rotatable part of the gantry relative to the stationary part of the gantry, wherein the means (22, 24, 30) for the magnetic mounting of the rotatable part of the gantry relative to the stationary part of the gantry form at least one radial bearing (20, 200) and at least one axial bearing (18, 19) and wherein the means (22, 24) for electromagnetically driving the rotatable part of the gantry relative to the stationary part of the gantry are integrated into the radial bearing. - means (22, 24, 30) for magnetically mounting the rotatable part of the gantry relative to the stationary part of the gantry and - means (22, 24) for electromagnetically driving the rotatable part of the gantry relative to the stationary part of the gantry,
A communication and control system for a high voltage electric power line operating at a line voltage, comprising: a transceiver maintained at ground potential powered via the electric power line; communication equipment maintained at the line voltage comprising one or more low power transducers for obtaining measured parameters indicating operating conditions of the power line, a microcontroller for processing the measured parameters, an antenna for communicating the measured parameters via a beam of energy propagating through ambient atmosphere to the transceiver maintained at ground potential, and a battery-free energy harvesting power supply providing electric power to electronic components of the communication equipment maintained at the line voltage; response equipment coupled to the transceiver maintained at ground potential for implementing one or more response actions in response to the measured parameters; and wherein the transceiver maintained at ground potential and the communication equipment maintained at the line voltage both obtain operating power via the electric power line and operate continuously whenever the electric power line is energized under a loaded condition. a transceiver maintained at ground potential powered via the electric power line; communication equipment maintained at the line voltage comprising one or more low power transducers for obtaining measured parameters indicating operating conditions of the power line, a microcontroller for processing the measured parameters, an antenna for communicating the measured parameters via a beam of energy propagating through ambient atmosphere to the transceiver maintained at ground potential, and a battery-free energy harvesting power supply providing electric power to electronic components of the communication equipment maintained at the line voltage; response equipment coupled to the transceiver maintained at ground potential for implementing one or more response actions in response to the measured parameters; and wherein the transceiver maintained at ground potential and the communication equipment maintained at the line voltage both obtain operating power via the electric power line and operate continuously whenever the electric power line is energized under a loaded condition.
A measuring device, configured to determine a fill level of a medium, the measuring device comprising: a direction-selective detector, which is configured to detect particles of the secondary cosmic radiation after at least partial passage through the medium and to determine a detector counting rate correlating with a flow rate of the particles of secondary cosmic radiation at the location of the measuring device; and an evaluation unit, which is configured to: - based on the detector counting rate determined by the detector and based on measurement data in connection with at least one influence on the flux rate of the particles of secondary cosmic radiation at the location of the measuring device, to determine a counting rate corrected for the at least one influence; - determining the fill level of the medium based on the corrected counting rate; and wherein the measuring device comprises a single direction-selective detector for detecting the particles of secondary cosmic radiation, which are muons, electrons, positrons, photons, pions and/or neutrons. a direction-selective detector, which is configured to detect particles of the secondary cosmic radiation after at least partial passage through the medium and to determine a detector counting rate correlating with a flow rate of the particles of secondary cosmic radiation at the location of the measuring device; and an evaluation unit, which is configured to: - based on the detector counting rate determined by the detector and based on measurement data in connection with at least one influence on the flux rate of the particles of secondary cosmic radiation at the location of the measuring device, to determine a counting rate corrected for the at least one influence; - determining the fill level of the medium based on the corrected counting rate; and - based on the detector counting rate determined by the detector and based on measurement data in connection with at least one influence on the flux rate of the particles of secondary cosmic radiation at the location of the measuring device, to determine a counting rate corrected for the at least one influence; - determining the fill level of the medium based on the corrected counting rate; and wherein the measuring device comprises a single direction-selective detector for detecting the particles of secondary cosmic radiation, which are muons, electrons, positrons, photons, pions and/or neutrons.
A mobile aggregate processing plant for screening aggregate material comprising a mobile chassis, a vibrating screening unit mounted on the mobile chassis and able to provide at least one aggregate discharge stream therethrough, and an underscreen conveyor located wholly or substantially beneath the vibrating screening unit to wholly or substantially receive said at least one aggregate discharge stream, wherein the underscreen conveyor is moveable relative to the vibrating screening unit between a first position to work in co-operation with the vibrating screening unit in use, and at least a second position able to provide an access portal below the vibrating screen unit when not in use: and wherein the mobile chassis has a main frame and a sub-frame, and the underscreen conveyor is mounted on the main frame, and the vibrating screening unit is mounted on the sub-frame; characterised in that the underscreen conveyor is mounted on the mobile chassis independently of the mounting of the vibrating screening unit on the mobile chassis, and is vertically moveable and laterally moveable relative to the vibrating screening unit between the operating and non-operating configurations. wherein the underscreen conveyor is moveable relative to the vibrating screening unit between a first position to work in co-operation with the vibrating screening unit in use, and at least a second position able to provide an access portal below the vibrating screen unit when not in use: and wherein the mobile chassis has a main frame and a sub-frame, and the underscreen conveyor is mounted on the main frame, and the vibrating screening unit is mounted on the sub-frame; characterised in that the underscreen conveyor is mounted on the mobile chassis independently of the mounting of the vibrating screening unit on the mobile chassis, and is vertically moveable and laterally moveable relative to the vibrating screening unit between the operating and non-operating configurations.
A sidelink information transmission method, applied to a terminal and comprising: mapping sidelink information to target notification information, wherein the sidelink information comprises at least one of sidelink hybrid automatic repeat request acknowledgement, sidelink HARQ-ACK, information corresponding to one or more sidelink transmissions, a sidelink scheduling request, and channel state information; and transmitting the target notification information on a target resource; characterized in that a mode of mapping the sidelink information to the target notification information comprises: mapping N3 bits to W second bits according to a preset mode, W is a positive integer, N3 is an integer greater than 1, and N3 is greater than W. mapping sidelink information to target notification information, wherein the sidelink information comprises at least one of sidelink hybrid automatic repeat request acknowledgement, sidelink HARQ-ACK, information corresponding to one or more sidelink transmissions, a sidelink scheduling request, and channel state information; and transmitting the target notification information on a target resource; characterized in that a mode of mapping the sidelink information to the target notification information comprises: mapping N3 bits to W second bits according to a preset mode, W is a positive integer, N3 is an integer greater than 1, and N3 is greater than W.