mhurhangee/patent-ind-claim-en huggingface dataset:
A method for detecting if a fastener is already tightened or not using a tightening tool with a pulse mechanism characterized by the steps of: - placing (S01) the tightening tool on the fastener; - accelerating (S02) the rotational parts of the tightening tool ; - limiting (S03) rotational speed of the rotational parts to a first rotational threshold value (R1) in revolutions per minute during an initial tightening phase (ITP), the first rotational threshold value being chosen to be in a range of 20% to 80% of a second rotational threshold value (R2) in revolutions per minute needed in a secondary tightening phase to provide a target fastening value (T2) for said fastener; - detecting (S04) whether a pulse (P1', P1") occurs during the initial tightening phase, said initial tightening phase being measured from a moment when the rotational parts are accelerated; characterized by the step of: - accelerating (S05, S07) the rotational parts of the tightening tool up to the second rotational threshold value (R2) if no pulse is detected. - placing (S01) the tightening tool on the fastener; - accelerating (S02) the rotational parts of the tightening tool ; - limiting (S03) rotational speed of the rotational parts to a first rotational threshold value (R1) in revolutions per minute during an initial tightening phase (ITP), the first rotational threshold value being chosen to be in a range of 20% to 80% of a second rotational threshold value (R2) in revolutions per minute needed in a secondary tightening phase to provide a target fastening value (T2) for said fastener; - detecting (S04) whether a pulse (P1', P1") occurs during the initial tightening phase, said initial tightening phase being measured from a moment when the rotational parts are accelerated; characterized by the step of: - accelerating (S05, S07) the rotational parts of the tightening tool up to the second rotational threshold value (R2) if no pulse is detected. - accelerating (S05, S07) the rotational parts of the tightening tool up to the second rotational threshold value (R2) if no pulse is detected.
A method of accommodating non-responsiveness of an online charging node in a networked system, the method comprising: receiving a request from a subscriber; identifying that an online charging node is non-responsive, wherein the step of identifying that the online charging node is non-responsive comprises at least one of detecting a lack of a heartbeat from the online charging node or identifying a timeout of a request to the online charging node; assigning a default quota to the subscriber by a charging enforcement node while the online charging node is non-responsive, the default quota defining a service usage threshold for the subscriber; providing service to the subscriber based on the default quota wherein the providing service to the subscriber based on the default quota includes tracking a usage associated with the service; identifying that the online charging node has become responsive; and reconciling with the online charging node the usage associated with the service by reporting one or more of the tracked usage associated with the service or the default quota to the online charging node. receiving a request from a subscriber; identifying that an online charging node is non-responsive, wherein the step of identifying that the online charging node is non-responsive comprises at least one of detecting a lack of a heartbeat from the online charging node or identifying a timeout of a request to the online charging node; assigning a default quota to the subscriber by a charging enforcement node while the online charging node is non-responsive, the default quota defining a service usage threshold for the subscriber; providing service to the subscriber based on the default quota wherein the providing service to the subscriber based on the default quota includes tracking a usage associated with the service; identifying that the online charging node has become responsive; and reconciling with the online charging node the usage associated with the service by reporting one or more of the tracked usage associated with the service or the default quota to the online charging node.
Boat with an electronic driving system boat being equipped with an electric water-jet engine connected to a series of supply batteries , with a paddle, oar, fin or other palm-like extension , and being movable by a user through said paddle, oar, fin or other palm-like extension , characterized in that said driving system comprises: - a first electronic device composed of an electronic circuit , provided with a power supply , a first processor , a first Bluetooth or Wi-Fi circuit , a first accelerometer and at least one helix-like sensor arranged on a surface of said paddle oar, fin or other palm-like extension for detecting a pushing force of the user , said first electronic device being positioned on said paddle, oar, fin or other palm-like extension of the boat and said first Bluetooth or Wi-Fi circuit being able to communicate the information relating to said pushing force to a second electronic device placed on the boat ; - said second electronic device placed on the boat and composed of a second electronic circuit , provided with a power supply , a second processor , a second Bluetooth or Wi-Fi circuit , a second accelerometer , a gyroscope , a GPS chip and at least a second sensor for detecting a thrusting force of said electric water-jet engine of the boat , said second processor and said second Bluetooth or Wi-Fi circuit being able to receive and process the information sent by said at least one helix-like sensor and said first accelerometer of said first electronic device and to manage, based on said information, the power of said electric water-jet engine of the boat . - a first electronic device composed of an electronic circuit , provided with a power supply , a first processor , a first Bluetooth or Wi-Fi circuit , a first accelerometer and at least one helix-like sensor arranged on a surface of said paddle oar, fin or other palm-like extension for detecting a pushing force of the user , said first electronic device being positioned on said paddle, oar, fin or other palm-like extension of the boat and said first Bluetooth or Wi-Fi circuit being able to communicate the information relating to said pushing force to a second electronic device placed on the boat ; - said second electronic device placed on the boat and composed of a second electronic circuit , provided with a power supply , a second processor , a second Bluetooth or Wi-Fi circuit , a second accelerometer , a gyroscope , a GPS chip and at least a second sensor for detecting a thrusting force of said electric water-jet engine of the boat , said second processor and said second Bluetooth or Wi-Fi circuit being able to receive and process the information sent by said at least one helix-like sensor and said first accelerometer of said first electronic device and to manage, based on said information, the power of said electric water-jet engine of the boat .
A communication control method which is performed by a mobility management entity included in a communication system comprising a terminal wherein the terminal has moved from a first tracking area (TA13) to a second tracking area (TA14), the communication control method comprising: an acquisition step of acquiring correlation information in which a control plane serving gateway that transmits and receives a control signal for a communication service used by the terminal using a control plane which is a path for transmitting the control signal, a user plane serving gateway that transmits and receives a user signal for a communication service using a user plane which is a path for transmitting the user signal, and a tracking area of the user plane serving gateway are correlated with one another; a determination step of determining the user plane serving gateway corresponding to the second tracking area with reference to the correlation information acquired in the acquisition step; and a connection request step of issuing a request for connection between the user plane serving gateway determined in the determination step and a eNodeB. wherein the determination step is performed on the basis of a paging response; wherein there are a plurality of user plane serving gateways, wherein the connection request step includes: issuing a request for connection between the user plane serving gateway corresponding to the first tracking area and the user plane serving gateway determined in the determination step, before issuing a request for connection between the user plane serving gateway and the eNodeB; and transmitting buffered data from the user plane serving gateway corresponding to the tracking area before the movement to the determined user plane serving gateway, after the connection has been set up. issuing a request for connection between the user plane serving gateway corresponding to the first tracking area and the user plane serving gateway determined in the determination step, before issuing a request for connection between the user plane serving gateway and the eNodeB; and transmitting buffered data from the user plane serving gateway corresponding to the tracking area before the movement to the determined user plane serving gateway, after the connection has been set up.
A power reception apparatus comprising: a power reception coil (L 2 ) configured to wirelessly receive transmissions of the electrical power from a power transmission apparatus , the power reception apparatus configured to send a Q-value of the power reception apparatus to the power transmission apparatus in response to receiving one of the transmissions from the power transmission apparatus , wherein the Q-value is measurable when no foreign matter is near the power receiver, and the power reception apparatus is configured to store the Q-value prior to receiving the transmissions from the power transmission apparatus . a power reception coil (L 2 ) configured to wirelessly receive transmissions of the electrical power from a power transmission apparatus , the power reception apparatus configured to send a Q-value of the power reception apparatus to the power transmission apparatus in response to receiving one of the transmissions from the power transmission apparatus , wherein the Q-value is measurable when no foreign matter is near the power receiver, and the power reception apparatus is configured to store the Q-value prior to receiving the transmissions from the power transmission apparatus .
Method for federating a first communication network (B-1) for mobile terminals and a second communication network (B-2) for mobile terminals, each communication network comprising a base station (eNB-1, eNB-2), a mobility manager (MME-1, MME-2), a serving gateway (SGW-1, SGW-2), a user database (HSS-1, HSS-2), a communication policy manager (PCRF-1, PCRF-2), a packet gateway (PGW-1, PGW-2), each of said networks further comprising a router (R-1, R-2) and an orchestrator (0-1,0-2), the method comprising the following steps: - Establishing a dedicated connection between the two communication networks by establishing a connection between the routers; - Electing a master orchestrator from among the orchestrators of the networks to federate, defining a master network and a slave network; - Updating the user database of the master network from the user database of the slave network; - Configuring the links between: ∘ The serving gateway of the master network and the mobility manager of the slave network; ∘ The serving gateway of the slave network and the mobility manager of the master network; ∘ The mobility manager of the master network and the mobility manager of the slave network; - Configuring the slave network so that it uses: ∘ The user database of the master network; ∘ The communication policy manager of the master network. - Updating the list of serving gateways of each network, each serving gateway being associated with a zone code as a function of its original network. - Updating each mobility manager as a function of the configuration of the mobility manager of the neighbouring network. - Establishing a dedicated connection between the two communication networks by establishing a connection between the routers; - Electing a master orchestrator from among the orchestrators of the networks to federate, defining a master network and a slave network; - Updating the user database of the master network from the user database of the slave network; - Configuring the links between: ∘ The serving gateway of the master network and the mobility manager of the slave network; ∘ The serving gateway of the slave network and the mobility manager of the master network; ∘ The mobility manager of the master network and the mobility manager of the slave network; ∘ The serving gateway of the master network and the mobility manager of the slave network; ∘ The serving gateway of the slave network and the mobility manager of the master network; ∘ The mobility manager of the master network and the mobility manager of the slave network; - Configuring the slave network so that it uses: ∘ The user database of the master network; ∘ The communication policy manager of the master network. ∘ The user database of the master network; ∘ The communication policy manager of the master network. - Updating the list of serving gateways of each network, each serving gateway being associated with a zone code as a function of its original network. - Updating each mobility manager as a function of the configuration of the mobility manager of the neighbouring network.
A tracking system for conductive material pressurized composite tanks, the system comprising: a composite pressurized tank vessel comprising; a carbon plastic liner surrounded by a wrapping region ; an interior volumetric space ; a plastic, non-carbon, blind boss with a closed distal end and an open proximal end wherein the blind boss is added to the end of the carbon plastic liner ; a cavity in the blind boss surrounded by an annular wall ; an anchor material affixed within the cavity of the blind boss; and, an RFID device affixed within the anchor material . a composite pressurized tank vessel comprising; a carbon plastic liner surrounded by a wrapping region ; an interior volumetric space ; a plastic, non-carbon, blind boss with a closed distal end and an open proximal end wherein the blind boss is added to the end of the carbon plastic liner ; a cavity in the blind boss surrounded by an annular wall ; an anchor material affixed within the cavity of the blind boss; and, an RFID device affixed within the anchor material .
A switch cabinet light , having a device base for being fastened on a device carrier of a switch cabinet, the device base having at least two fastening units each of which has a fastener which is disposed at a support side of the device base , for being connected to retainers disposed in a fastening plane of the device carrier , at least one fastening unit being transferable from a release position to a locking position in order to change a fastening distance a formed between the fasteners , characterized in that the fastening unit has a fastening lever which is pivotably mounted at the device base in a first pivot bearing about a first pivot axis formed parallel to the support side of the device base , said fastening lever having a first lever end projecting from the support side and being formed as a fastener , and in that the fastening unit has an actuating lever which is pivotably mounted in a second pivot bearing about a second pivot axis parallel to the first pivot axis and which is realized as an eccentric lever, said actuating lever acting on the fastening lever with an eccentric extension in such a manner that a forward motion of the eccentric extension directed toward the fastening lever causes, as a result of a pivoting movement of the actuating lever , a pivoting movement of the fastening lever and that the fastening distance a of the fasteners is reduced.
A wireless electric power transmission system comprising: two antennas having the ability to transmit electric power by a non-contact method via resonant magnetic coupling, one of the two antennas being a series resonant circuit the other antenna being a parallel resonant circuit; and an oscillator which is connected to one of the two antennas configured to transmit RF power; and; a control section adapted for controlling a transmission frequency; characterized by the control section is adapted for controling a transmission frequency according to the magnitude of the electric power to be transmitted from one of the two antennas to the other , wherein if a coupling coefficient between the two antennas is k, then the resonant frequency fs of the series resonant circuit and the resonant frequency fp of the parallel resonant circuit are set so as to satisfy the inequality fs / fp < − 0.6074 × k 2 + 0.0466 × k + 0.9955 . two antennas having the ability to transmit electric power by a non-contact method via resonant magnetic coupling, one of the two antennas being a series resonant circuit the other antenna being a parallel resonant circuit; and an oscillator which is connected to one of the two antennas configured to transmit RF power; and; a control section adapted for controlling a transmission frequency; characterized by the control section is adapted for controling a transmission frequency according to the magnitude of the electric power to be transmitted from one of the two antennas to the other , wherein if a coupling coefficient between the two antennas is k, then the resonant frequency fs of the series resonant circuit and the resonant frequency fp of the parallel resonant circuit are set so as to satisfy the inequality fs / fp < − 0.6074 × k 2 + 0.0466 × k + 0.9955 .
A subaqueous underground survey system using a reflection seismic survey method, the subaqueous underground survey system comprising multiple sound sources for generating sound waves in water; a controller for controlling phases of the sound waves; a geophone for receiving reflected waves of the sound waves; and survey equipment equipped with the sound sources , wherein the controller controls heights in the water or phases of the sound sources so that the sound waves generated from the respective sound sources have a phase difference at a water bottom surface (B), characterized in that the controller controls the heights of the sound sources in the water so that the height of the sound sources deviates from each other by a half-wavelength of a sound wave to be generated, or controls the sound sources so that their phase difference is a half cycle, thereby controlling generation of shear waves to propagate into the ground.
An ultrasonic instrument comprising: (a) an ultrasonic transducer , wherein the ultrasonic transducer is operable to convert electrical power into ultrasonic vibrations; (b) an acoustic waveguide in acoustic communication with the ultrasonic transducer, wherein the acoustic waveguide defines a longitudinal axis; and (c) an ultrasonic blade in acoustic communication with the acoustic waveguide such that the ultrasonic transducer is operable to drive the ultrasonic blade to vibrate ultrasonically via the acoustic waveguide; wherein the ultrasonic blade includes a pair of obliquely extending edges , wherein the obliquely extending edges diverge away from the longitudinal axis and away from each other along respective paths extending distally in relation to the acoustic waveguide; wherein the ultrasonic blade further comprises a laterally presented concave surface located between the obliquely extending edges, wherein the ultrasonic blade further comprises a laterally presented convex surface on the opposite side of the blade to the concave surface, wherein the ultrasonic blade further includes a convexly curved distal edge extending between the obliquely extending edges, wherein the ultrasonic blade further includes a first laterally presented surface extending proximally from the distal edge, wherein the first laterally presented surface is partially bound by a curved proximal edge , and wherein the concave surface is proximal to the first laterally presented surface ; characterized in that either: the first laterally presented surface is flat; or the first laterally presented surface is convex and has a curvature along a first plane defined by a first radius, wherein the concave surface has a curvature along a second plane defined by a second radius, wherein the first plane and the second plane are parallel, wherein the first and second plane are perpendicular to the longitudinal axis, wherein the first radius is greater than the second radius, wherein the first and second radii extend away from their respective surfaces in opposite directions. (a) an ultrasonic transducer , wherein the ultrasonic transducer is operable to convert electrical power into ultrasonic vibrations; (b) an acoustic waveguide in acoustic communication with the ultrasonic transducer, wherein the acoustic waveguide defines a longitudinal axis; and (c) an ultrasonic blade in acoustic communication with the acoustic waveguide such that the ultrasonic transducer is operable to drive the ultrasonic blade to vibrate ultrasonically via the acoustic waveguide; the first laterally presented surface is flat; or the first laterally presented surface is convex and has a curvature along a first plane defined by a first radius, wherein the concave surface has a curvature along a second plane defined by a second radius, wherein the first plane and the second plane are parallel, wherein the first and second plane are perpendicular to the longitudinal axis, wherein the first radius is greater than the second radius, wherein the first and second radii extend away from their respective surfaces in opposite directions.
Nanothermocouple detector using thermoelectric effect, the nanothermocouple detector comprising: an amplifier ; two electrodes (112, 114; 212, 214) electrically connected to the amplifier, the two electrodes (112, 114; 212, 214) having a separation of between about 5 micrometers to about 30 micrometers; a nanowire (120; 220) coupled across the two electrodes (112, 114; 212, 214); and a pinhole disposed to admit photons (140; 440), which are incident through the pinhole , onto the nanowire (120; 220), to heat the nanowire (120; 220); wherein the amplifier is configured to detect a voltage change across the two electrodes in response to heating of the nanowire (120; 220) in response to photon impingement on the nanowire (120; 220); wherein the pinhole is disposed to admit the photons to be incident onto a spot located on the nanowire (120; 220), the spot being closer to a nanowire contact (124; 224) with one of the two electrodes (114; 214) with respect to another nanowire contact (122; 222) with the other of the two electrodes (112; 212) so that the spot is adjacent to or overlaps with the nanowire contact (124; 224). an amplifier ; two electrodes (112, 114; 212, 214) electrically connected to the amplifier, the two electrodes (112, 114; 212, 214) having a separation of between about 5 micrometers to about 30 micrometers; a nanowire (120; 220) coupled across the two electrodes (112, 114; 212, 214); and a pinhole disposed to admit photons (140; 440), which are incident through the pinhole , onto the nanowire (120; 220), to heat the nanowire (120; 220); wherein the amplifier is configured to detect a voltage change across the two electrodes in response to heating of the nanowire (120; 220) in response to photon impingement on the nanowire (120; 220); wherein the pinhole is disposed to admit the photons to be incident onto a spot located on the nanowire (120; 220), the spot being closer to a nanowire contact (124; 224) with one of the two electrodes (114; 214) with respect to another nanowire contact (122; 222) with the other of the two electrodes (112; 212) so that the spot is adjacent to or overlaps with the nanowire contact (124; 224).