mhurhangee/ep-ind-claims huggingface dataset:
A method for near field communication NFC radio frequency communication for a first NFC host of an NFC device, the NFC device being under a multi-host architecture, wherein the NFC device is formed by an near field communication controller, NFCC, the first NFC host and a second NFC host, wherein the first and the second NFC hosts are allowed to share one radio frequency link between the NFCC and a remote NFC endpoint, further wherein the NFCC is a shared resource, and the first and the second hosts control the NFCC to perform NFC radio frequency communication, the method comprising: acquiring, by the first NFC host, second configuration information of a established radio frequency communication, wherein the established radio frequency communication is a radio frequency communication that the second NFC host performs with the remote NFC endpoint by using the near field communication controller NFCC; and if the second configuration information matches first configuration information of a radio frequency communication to be initiated by the first NFC host, sending, by the first NFC host, to the NFCC, an activate request command used to activate a radio frequency interface corresponding to the first configuration information, so that the NFCC activates the radio frequency interface and the first NFC host performs the radio frequency communication with the remote NFC endpoint through the radio frequency interface. acquiring, by the first NFC host, second configuration information of a established radio frequency communication, wherein the established radio frequency communication is a radio frequency communication that the second NFC host performs with the remote NFC endpoint by using the near field communication controller NFCC; and
A load arm for a fork of a low lift industrial truck, with an arm frame which is approximately C-shaped in cross section with upward pointing bridge and downward pointing legs and an arm tip which is tapered towards the free end and comprises bearing openings for the bearing of a load roller and, on the lower side, introduction and withdrawal surfaces, which ascend or fall off, respectively, towards the free end of the arm tip with respect to the lower edges of the arm frame, wherein the arm tip comprises, at the rear end, an abutting surface which abuts against the blunt end of the arm frame, the arm tip comprising arm sections on the end facing the arm frame, which extend below the associated edges of the arm frame and lie against the lower edges of the arm frame when arm frame and arm tip cling together, wherein the withdrawal surfaces are provided on the lower side of the arm sections, characterized in that the arm tip is formed from a one-piece molded part and is connected to the arm frame via a welding connection, wherein the abutting surface of the arm tip has a chamfer, which is formed in that angular lugs (82, 84) are formed on the rear end of the arm tip in extension of its side walls, the upper and side surfaces of the angular lugs (82, 84) are offset towards the inside with respect to the outer upper surface and the outer side surfaces of the arm tip and which sit snugly against the inner surfaces of the arm frame, which is thrusted over the lugs (82, 84) sitting snugly to the chamfer, wherein the bent lower brims of the arm frame near the arm tip taper towards the same, and the end of the lower brims sits snugly against the end surface of the lugs (82, 84), so that the brims end at a distance to the otherwise blunt end of the arm frame.
A data transmission method, comprising: receiving, by a first gateway, an activation request of a roaming location network device, wherein the activation request at least comprises a subscriber identity and an access point name, APN, and the subscriber identity is used to identify an identity of a user equipment; acquiring, by the first gateway, a gateway address of a gateway of a subscription home location according to the subscriber identity and the APN in the activation request as well as a mapping relationship stored in advance in the first gateway, wherein the mapping relationship is a relationship of the subscriber identity and the APN corresponding to the gateway address of the gateway of the subscription home location; and transmitting, by the first gateway, data by using the gateway of the subscription home location. receiving, by a first gateway, an activation request of a roaming location network device, wherein the activation request at least comprises a subscriber identity and an access point name, APN, and the subscriber identity is used to identify an identity of a user equipment; acquiring, by the first gateway, a gateway address of a gateway of a subscription home location according to the subscriber identity and the APN in the activation request as well as a mapping relationship stored in advance in the first gateway, wherein the mapping relationship is a relationship of the subscriber identity and the APN corresponding to the gateway address of the gateway of the subscription home location; and transmitting, by the first gateway, data by using the gateway of the subscription home location.
A method for forming a lightweight cavity filter structure, comprising: providing a mold having a contoured surface inversely shaped to that of a cavity filter structure; depositing one or more layers of metal onto the mold, the one or more layers of the metal having a total thickness of one skin depth associated with the operating radio frequency of the cavity filter structure; depositing multiple layers of laminate onto the layer of metal, wherein the layers of laminate comprise an insulating material and are adapted for providing mechanical support to the cavity filter structure, wherein each layer of laminate has a thermal expansion coefficient opposite to that of an adjacent layer of laminate; and, separating the one or more layers of metal from the mold to provide the cavity filter structure. providing a mold having a contoured surface inversely shaped to that of a cavity filter structure; depositing one or more layers of metal onto the mold, the one or more layers of the metal having a total thickness of one skin depth associated with the operating radio frequency of the cavity filter structure; depositing multiple layers of laminate onto the layer of metal, wherein the layers of laminate comprise an insulating material and are adapted for providing mechanical support to the cavity filter structure, wherein each layer of laminate has a thermal expansion coefficient opposite to that of an adjacent layer of laminate; and, separating the one or more layers of metal from the mold to provide the cavity filter structure.
A diaphragm pump comprising:a pump head, a fluid chamber adjacent to the pump head, a diaphragm defining a wall of the fluid chamber and reciprocatingly movable by a driving means, at least a suction check valve and a dosing check valve, a control unit, and a detector unit for detecting a fluid inside the fluid chamber, characterized in that the detector unit comprises at least a first oscillator means with a first sensor element and a comparator means for measuring the frequency of the first oscillator means, wherein a frequency of the oscillator means is affected at least by a dielectric constant of a fluid inside the fluid chamber.
An aircraft, comprising: a rotor blade; and a rotor hub system, having: a lead-lag damper having a rod end and being operably associated with the rotor blade; a blade adapter, having: a first arm and an opposing second arm; a pin carried by the blade adapter and configured to secure the lead-lag damper in position via the first arm and the second arm; and characterized in that the rotor hub system further has: an actuator secured to the pin and configured to autonomously adjust the position of the lead-lag rod end relative to the first arm and the second arm during flight. a rotor blade; and a rotor hub system, having: a lead-lag damper having a rod end and being operably associated with the rotor blade; a blade adapter, having: a first arm and an opposing second arm; a pin carried by the blade adapter and configured to secure the lead-lag damper in position via the first arm and the second arm; and a lead-lag damper having a rod end and being operably associated with the rotor blade; a blade adapter, having: a first arm and an opposing second arm; a first arm and an opposing second arm; a pin carried by the blade adapter and configured to secure the lead-lag damper in position via the first arm and the second arm; and an actuator secured to the pin and configured to autonomously adjust the position of the lead-lag rod end relative to the first arm and the second arm during flight.
Method of manufacturing a motor vehicle component by hot forming and hot cutting and press hardening: - providing a blank made from a hardenable steel alloy sheet, - complete heating to a temperature greater than Ac1, in particular greater than Ac3, - laying into a combined forming and cutting tool, wherein the forming and cutting tool comprises a bottom tool and a top tool; wherein the bottom dead point is achieved when the top tool is completely lowered or when the forming tool is completely closed, - fixing the laid-in blank in the forming and cutting tool using a stamp arranged in the interior of the tool, - carrying out an at least partially peripheral edge cut prior to starting the forming or carrying out the edge cut at least 20 mm prior to reaching the bottom dead point, wherein the cutting tool is driven exclusively by a pressing stroke of the forming and cutting tool, - hot forming in the pressing stroke with the edge cut and press hardening. - providing a blank made from a hardenable steel alloy sheet, - complete heating to a temperature greater than Ac1, in particular greater than Ac3, - laying into a combined forming and cutting tool, wherein the forming and cutting tool comprises a bottom tool and a top tool; wherein the bottom dead point is achieved when the top tool is completely lowered or when the forming tool is completely closed, - fixing the laid-in blank in the forming and cutting tool using a stamp arranged in the interior of the tool, - carrying out an at least partially peripheral edge cut prior to starting the forming or carrying out the edge cut at least 20 mm prior to reaching the bottom dead point, wherein the cutting tool is driven exclusively by a pressing stroke of the forming and cutting tool, - hot forming in the pressing stroke with the edge cut and press hardening.
A communication method, wherein the method comprises: connecting, by a micro base station, to an intra-enterprise Ethernet using a switch and a border router wherein the intra-enterprise Ethernet comprises the switch, the border router, a proxy server, and a micro base station controller deployed near the border router at an enterprise egress, wherein the micro base station controller is externally connected to a core network, and obtaining (410, S705, S710) an Internet Protocol, IP, address of the micro base station; obtaining (420, S705, S710), by the micro base station, an IP address of the micro base station controller; sending (430, S715, by the micro base station, a connection request to the micro base station controller according to the obtained IP address of the micro base station controller, wherein the connection request comprises the IP address of the micro base station, so that the micro base station controller connects to the micro base station according to the connection request; and sending (440, S730), by the micro base station, a first resource request message to the micro base station controller, wherein the first resource request message comprises a first destination address of a requested resource, so that the micro base station controller forwards the first resource request message to a server corresponding to the first destination address. connecting, by a micro base station, to an intra-enterprise Ethernet using a switch and a border router wherein the intra-enterprise Ethernet comprises the switch, the border router, a proxy server, and a micro base station controller deployed near the border router at an enterprise egress, wherein the micro base station controller is externally connected to a core network, and obtaining (410, S705, S710) an Internet Protocol, IP, address of the micro base station; obtaining (420, S705, S710), by the micro base station, an IP address of the micro base station controller; sending (430, S715, by the micro base station, a connection request to the micro base station controller according to the obtained IP address of the micro base station controller, wherein the connection request comprises the IP address of the micro base station, so that the micro base station controller connects to the micro base station according to the connection request; and sending (440, S730), by the micro base station, a first resource request message to the micro base station controller, wherein the first resource request message comprises a first destination address of a requested resource, so that the micro base station controller forwards the first resource request message to a server corresponding to the first destination address.
A method for activating a card with a communication network, comprising a step consisting of: receiving a mission request (41, 61) relating to said communication network, said method being characterized in that it further comprises the following steps: searching (42, 62) within a search range comprising multiple receptacles, for one or more cards (16, 36a 2, 36a 3, 56a 2, 56b 3, 56c 4) capable of fulfilling said mission, a receptacle being a structural element of a switching node of said communication network capable of housing multiple cards and the search range covers receptacles from one or more switching nodes of said network, activating a capable card (49b, 69b) within an already-activated receptacle if there is one, or if there are no capable cards within an already-activated receptacle and if there is a capable card in a non-activated receptacle, activating said card (49b, 69b) in a non-activated receptacle and also activating said receptacle. receiving a mission request (41, 61) relating to said communication network, said method being characterized in that it further comprises the following steps: searching (42, 62) within a search range comprising multiple receptacles, for one or more cards (16, 36a 2, 36a 3, 56a 2, 56b 3, 56c 4) capable of fulfilling said mission, a receptacle being a structural element of a switching node of said communication network capable of housing multiple cards and the search range covers receptacles from one or more switching nodes of said network, activating a capable card (49b, 69b) within an already-activated receptacle if there is one, or if there are no capable cards within an already-activated receptacle and if there is a capable card in a non-activated receptacle, activating said card (49b, 69b) in a non-activated receptacle and also activating said receptacle. searching (42, 62) within a search range comprising multiple receptacles, for one or more cards (16, 36a 2, 36a 3, 56a 2, 56b 3, 56c 4) capable of fulfilling said mission, a receptacle being a structural element of a switching node of said communication network capable of housing multiple cards and the search range covers receptacles from one or more switching nodes of said network, activating a capable card (49b, 69b) within an already-activated receptacle if there is one, or if there are no capable cards within an already-activated receptacle and if there is a capable card in a non-activated receptacle, activating said card (49b, 69b) in a non-activated receptacle and also activating said receptacle.
An inflator with an air guiding sleeve, comprising a chassis, and a core and a drive motor installed in the chassis, and the drive motor being provided for driving the core to inflate an external object, wherein the inflator further comprises an air guiding sleeve and a cooling fan, and the air guiding sleeve has an air guiding hole penetrating through the air guiding sleeve, and the drive motor comprises a main body and a shaft rotatably installed to the main body, and the shaft has an end protruded from the main body for driving the core to move, and the other end protruded from the main body for coupling the cooling fan, and the air guiding sleeve includes a positioning shell and an air guiding ring coupled to the positioning shell, the positioning shell and the air guiding ring being integral formed as a one-piece structure and the positioning shell is installed to the chassis and the drive motor, and the air guiding ring is sheathed onto an external side of the cooling fan around the cooling fan, the positioning shell has a cross-section in a rectangular shape, and the air guiding ring has a cross-section in a circular shape, and the positioning shell has a hole diameter greater than a hole diameter of the air guiding ring, and a flat external surface of the positioning shell abuts against the chassis preventing the positioning shell from rotating with respect to the chassis, and wherein the positioning shell has a notch concavely formed at an end of the positioning shell away from the air guiding ring, and the chassis has a latching block extending into the notch of the positioning shell for latching the chassis to the positioning shell and wherein the positioning shell has a plurality of limiting arms extending inwards into the air guiding hole, and installed around the central axis of the air guiding sleeve, disposed around the main body of the motor, and disposed on the same side of the cooling fan, and a free end of each limiting arm away from the cooling fan is provided for abutting against an external surface of the main body of the drive motor to prevent the drive motor from moving along a radial direction of the air guiding sleeve and the plurality of limiting arms have blocking protrusions formed by extending a free end of the limiting arms towards the central axis of the air guiding sleeve, and the blocking protrusions are provided for abutting against an end surface of an end of the main body of the drive motor to limit the assembling position in an axial direction between the main body of the drive motor and the air guiding sleeve.
Plant for exploiting the energy of a wave motion of water of an ocean or a sea or a lake, comprising a structure that is fastened to the ground and that is adapted to transform said wave motion of water into an oscillatory motion of a water column, a vessel adapted to float on said water column, and a pumping unit; wherein said vessel comprises a hull; wherein said pumping unit is housed at least partially in the hull and constrained to said structure; wherein said pumping unit has inlets for water to be pumped fluidly connected to the bottom of said hull, and outlets for pumped water; wherein a pumping pipe is fluidly connected to said outlets of said pumping unit and is adapted to supply pumped water to an artificial basin or a tank; wherein said vessel further comprises cavities associated with said hull; wherein said cavities are adapted to receive water from said water column while said vessel rises and to return water to said water column while said vessel descends; wherein said pumping unit comprises a part fastened to said structure and a part fastened to said vessel.
Shrink chuck cooling installation having a cooling member which is capable of being placed onto a shrink chuck, an installation (58, 59, 60) for the supply of a coolant to the cooling member, and a suction installation which is connected to the cooling member, characterized in that the suction installation contains a liquid-bath separator.
A wellbore system, comprising: a first deflector assembly, comprising: a first upper deflector arranged within a main bore of a wellbore and defining first and second interconnected channels (114a, b) that extend longitudinally through the upper deflector; and a first lower deflector arranged within the main bore and spaced from the upper deflector by a predetermined distance, the lower deflector defining a first conduit that communicates with a first lower portion of the main bore and a second conduit that communicates with a first lateral bore; and a bullnose assembly (402a, 402b) including a body, a bullnose tip arranged at a distal end of the body, and a sleeve member arranged about the body, wherein one of the bullnose tip and the sleeve member is axially movable in order to vary a length (408a, 408b) of the bullnose tip, wherein the upper and lower deflectors are configured to direct the bullnose assembly into either the lateral bore or the lower portion of the main bore based on the length of the bullnose tip as compared to the predetermined distance. a first deflector assembly, comprising: a first upper deflector arranged within a main bore of a wellbore and defining first and second interconnected channels (114a, b) that extend longitudinally through the upper deflector; and a first lower deflector arranged within the main bore and spaced from the upper deflector by a predetermined distance, the lower deflector defining a first conduit that communicates with a first lower portion of the main bore and a second conduit that communicates with a first lateral bore; and a first upper deflector arranged within a main bore of a wellbore and defining first and second interconnected channels (114a, b) that extend longitudinally through the upper deflector; and a first lower deflector arranged within the main bore and spaced from the upper deflector by a predetermined distance, the lower deflector defining a first conduit that communicates with a first lower portion of the main bore and a second conduit that communicates with a first lateral bore; and a bullnose assembly (402a, 402b) including a body, a bullnose tip arranged at a distal end of the body, and a sleeve member arranged about the body, wherein one of the bullnose tip and the sleeve member is axially movable in order to vary a length (408a, 408b) of the bullnose tip, wherein the upper and lower deflectors are configured to direct the bullnose assembly into either the lateral bore or the lower portion of the main bore based on the length of the bullnose tip as compared to the predetermined distance.
A suspension of a motorcycle comprising: a front suspension for axially supporting a front wheel; a spring for giving a reactive force to an expansion movement and a contraction movement of the front suspension; a damping force generator for giving a damping force to the expansion movement and contraction movement of the front suspension; a front wheel brake device for giving a braking force to the front wheel; and a brake sensor for sensing an operation state of the front wheel brake device, wherein the front suspension is so configured that a control device controls the damping force at the time of the expansion movement and contraction movement, and characterized in that when detecting at least that the motorcycle is in a state of making a stop and the brake sensor shows an output of more than or equal to a predetermined value, the control device carries out a damping force reducing control for reducing the damping force of the front suspension. a front suspension for axially supporting a front wheel; a spring for giving a reactive force to an expansion movement and a contraction movement of the front suspension; a damping force generator for giving a damping force to the expansion movement and contraction movement of the front suspension; a front wheel brake device for giving a braking force to the front wheel; and a brake sensor for sensing an operation state of the front wheel brake device, wherein the front suspension is so configured that a control device controls the damping force at the time of the expansion movement and contraction movement, and characterized in that when detecting at least that the motorcycle is in a state of making a stop and the brake sensor shows an output of more than or equal to a predetermined value, the control device carries out a damping force reducing control for reducing the damping force of the front suspension.