mhurhangee/patent-ind-claim-en huggingface dataset:
A communication method of a terminal , the method comprising: transmitting, to a macro vehicle-to-everything, V2X, server performing a V2X communication with the terminal , mobility information of the terminal ; receiving, from the macro V2X server , provision information associated with a connection to a local V2X server controlling an area predicted as a next-hop area to which the terminal moves, the provision information being generated based on the mobility information; and establishing, when the terminal enters the next-hop area, the connection to the local V2X server for the V2X communication based on the provision information. transmitting, to a macro vehicle-to-everything, V2X, server performing a V2X communication with the terminal , mobility information of the terminal ; receiving, from the macro V2X server , provision information associated with a connection to a local V2X server controlling an area predicted as a next-hop area to which the terminal moves, the provision information being generated based on the mobility information; and establishing, when the terminal enters the next-hop area, the connection to the local V2X server for the V2X communication based on the provision information.
A steering-wheel power generation device comprising: a gripping portion having a circular outer shape and formed into a cylindrical shape; a curved guide case which is provided inside the gripping portion; a ring-shaped rack which is provided on an inner wall of the gripping portion; a case-side pinion gear which is fitted to the rack; and a gear power generator which is provided in the guide case.
A method of compensating for a thermal deflection artifact of a probe of a scanning probe microscope (SPM) operating in an oscillating mode, wherein the probe is a coated bimorph probe and comprises a cantilever , the method comprising: generating relative oscillating motion between the probe and a sample ; providing relative scanning motion between the probe and the sample ; detecting motion of the probe as the probe and the sample interact during the providing step; controlling probe-sample proximity based on the detected motion, the controlling step generating SPM scanner measured height, wherein the change in SPM scanner measured height is representative of the sample surface and the SPM scanner measured height is the distance between a fixed end of the scanner and a probe holder that accommodates the probe , wherein the probe holder is supported by the SPM scanner and wherein the controlling step includes using an intermittent contact mode of SPM operation; determining a DC component of a cantilever shape change during the scanning step; converting the DC component of cantilever shape change to a displacement, wherein the displacement is at least one of vertical displacement and lateral displacement; and adding the displacement with the SPM scanner measured height at each scan location either post scan or on a point-by-point scan position basis to compensate for the thermal deflection artifact so that the true topology of the sample is yielded. generating relative oscillating motion between the probe and a sample ; providing relative scanning motion between the probe and the sample ; detecting motion of the probe as the probe and the sample interact during the providing step; controlling probe-sample proximity based on the detected motion, the controlling step generating SPM scanner measured height, wherein the change in SPM scanner measured height is representative of the sample surface and the SPM scanner measured height is the distance between a fixed end of the scanner and a probe holder that accommodates the probe , wherein the probe holder is supported by the SPM scanner and wherein the controlling step includes using an intermittent contact mode of SPM operation; determining a DC component of a cantilever shape change during the scanning step; converting the DC component of cantilever shape change to a displacement, wherein the displacement is at least one of vertical displacement and lateral displacement; and adding the displacement with the SPM scanner measured height at each scan location either post scan or on a point-by-point scan position basis to compensate for the thermal deflection artifact so that the true topology of the sample is yielded.
A laser-induced dispensing system, comprising: a cartridge assembly having a supply reel for supplying a foil having a light transmissive layer wound around the supply reel, and a take-up reel for taking up the foil; a coating device for coating the foil by a donor material during a motion of the foil; an irradiation head having optics configured for focusing a laser beam; and a controller for controlling (i) the cartridge assembly to establish the motion of the foil, and (ii) the optics to focus the laser beam onto the foil at a location downstream of an outlet of the coating device so as to release droplets of the donor material from the foil, characterized in that the foil further comprises a sacrificial protective layer above the light transmissive layer, and wherein the cartridge assembly further comprises a lift off reel for lifting off the sacrificial protective layer during the supply of the foil. a cartridge assembly having a supply reel for supplying a foil having a light transmissive layer wound around the supply reel, and a take-up reel for taking up the foil; a coating device for coating the foil by a donor material during a motion of the foil; an irradiation head having optics configured for focusing a laser beam; and a controller for controlling (i) the cartridge assembly to establish the motion of the foil, and (ii) the optics to focus the laser beam onto the foil at a location downstream of an outlet of the coating device so as to release droplets of the donor material from the foil, characterized in that the foil further comprises a sacrificial protective layer above the light transmissive layer, and wherein the cartridge assembly further comprises a lift off reel for lifting off the sacrificial protective layer during the supply of the foil.
A discharge head comprising: multiple nozzles from each of which a liquid is discharged; multiple pressure chambers respectively communicating with the multiple nozzles ; multiple supply branch channels each communicating with two or more of the multiple pressure chambers to supply the liquid to the two or more of the pressure chambers ; multiple collection branch channels each communicating with two or more of the multiple pressure chambers to collect the liquid from the two or more of the pressure chambers ; a supply main channel communicating with each of the multiple supply branch channels to supply the liquid to the multiple supply branch channels ; a collection main channel communicating with each of the multiple collection branch channels to collect the liquid from the multiple collection branch channels ; a first bypass channel communicating with each of the supply main channel and the collection main channel to connect the supply main channel and the collection main channel ; and a first open-close unit configured to: openably close the first bypass channel ; and characterized in that the first open-close unit is also configured to decrease a flow rate of the liquid flowing through the first bypass channel with an increase in a first pressure difference between an upstream side and a downstream side of the first open-close unit . multiple nozzles from each of which a liquid is discharged; multiple pressure chambers respectively communicating with the multiple nozzles ; multiple supply branch channels each communicating with two or more of the multiple pressure chambers to supply the liquid to the two or more of the pressure chambers ; multiple collection branch channels each communicating with two or more of the multiple pressure chambers to collect the liquid from the two or more of the pressure chambers ; a supply main channel communicating with each of the multiple supply branch channels to supply the liquid to the multiple supply branch channels ; a collection main channel communicating with each of the multiple collection branch channels to collect the liquid from the multiple collection branch channels ; a first bypass channel communicating with each of the supply main channel and the collection main channel to connect the supply main channel and the collection main channel ; and a first open-close unit configured to: openably close the first bypass channel ; and characterized in that the first open-close unit is also configured to decrease a flow rate of the liquid flowing through the first bypass channel with an increase in a first pressure difference between an upstream side and a downstream side of the first open-close unit . openably close the first bypass channel ; and characterized in that the first open-close unit is also configured to decrease a flow rate of the liquid flowing through the first bypass channel with an increase in a first pressure difference between an upstream side and a downstream side of the first open-close unit .
High-voltage plug assembly with a fixedly arranged first plug connector having a first plug connector housing , with a movably arranged second plug connector having a second plug connector housing , wherein the first and second plug connectors have plug contact elements that are complementary to one another and can be connected to one another and the second plug connector has connecting lines connected to its plug contact elements, the outgoing direction of which connecting lines extends perpendicularly to the connection direction of the two plug connectors , and wherein the second plug connector has a position-securing element that can be displaced perpendicular to the connection direction and that, when the plug connectors are mated, mechanically locks the two plug connectors to one another in a sliding position, characterized in that the position-securing element has at least two pairs of pins (43, 44; 45, 46), the longitudinal axes of which are aligned in the direction of displacement of the position-securing element , and which, with respect to the direction of displacement of the positioning elements are arranged in pairs one behind the other, and that in the sliding position in which the plug connectors are locked, each of the pins of the position-securing element engages in each case in a recess on the first plug connector and in each case in a recess on the second plug connector . wherein the first and second plug connectors have plug contact elements that are complementary to one another and can be connected to one another and the second plug connector has connecting lines connected to its plug contact elements, the outgoing direction of which connecting lines extends perpendicularly to the connection direction of the two plug connectors , and wherein the second plug connector has a position-securing element that can be displaced perpendicular to the connection direction and that, when the plug connectors are mated, mechanically locks the two plug connectors to one another in a sliding position, characterized in that the position-securing element has at least two pairs of pins (43, 44; 45, 46), the longitudinal axes of which are aligned in the direction of displacement of the position-securing element , and which, with respect to the direction of displacement of the positioning elements are arranged in pairs one behind the other, and that in the sliding position in which the plug connectors are locked, each of the pins of the position-securing element engages in each case in a recess on the first plug connector and in each case in a recess on the second plug connector .
Instrument for use with a bone anchoring device in spinal surgery, wherein the bone anchoring device includes a bone anchoring section and a receiving part having a bottom end adjacent to the bone anchoring section, a top end opposite to the bottom end and channel for receiving a rod , the channel having a bottom for supporting the rod, the instrument including a holding member (10, 10', 10") that is configured to hold the receiving part , wherein the holding member (10, 10', 10") comprises a first arm and a second arm that are movable relative to each other between an open position in which the receiving part is insertable between the first arm and the second arm into a closed position in which the receiving part is held between the first arm and the second arm , and a rod contacting member that is configured to contact the rod , wherein the rod contacting member is movable between the first arm and the second arm such that in the closed position of the first arm and second arm the rod contacting member can be advanced to move the rod towards the bottom of the channel; characterized in that the holding member comprises an engagement portion at each of the arms that is adapted to engage the receiving part at the bottom end . wherein the bone anchoring device includes a bone anchoring section and a receiving part having a bottom end adjacent to the bone anchoring section, a top end opposite to the bottom end and channel for receiving a rod , the channel having a bottom for supporting the rod, the instrument including a holding member (10, 10', 10") that is configured to hold the receiving part , wherein the holding member (10, 10', 10") comprises a first arm and a second arm that are movable relative to each other between an open position in which the receiving part is insertable between the first arm and the second arm into a closed position in which the receiving part is held between the first arm and the second arm , and a rod contacting member that is configured to contact the rod , wherein the rod contacting member is movable between the first arm and the second arm such that in the closed position of the first arm and second arm the rod contacting member can be advanced to move the rod towards the bottom of the channel; characterized in that the holding member comprises an engagement portion at each of the arms that is adapted to engage the receiving part at the bottom end .
A device comprising: a housing ; and a tissue conduction communication, TCC, transmitter enclosed by the housing and configured to generate a plurality of TCC signals, the TCC transmitter comprising: a coupling capacitor for coupling the generated TCC signals to a transmitting electrode vector to transmit the plurality of TCC signals via a conductive tissue pathway; and a voltage holding circuit configured to hold the coupling capacitor at a direct current, DC, voltage for a time interval between two consecutively transmitted TCC signals of the plurality of TCC signals. a housing ; and a tissue conduction communication, TCC, transmitter enclosed by the housing and configured to generate a plurality of TCC signals, the TCC transmitter comprising: a coupling capacitor for coupling the generated TCC signals to a transmitting electrode vector to transmit the plurality of TCC signals via a conductive tissue pathway; and a voltage holding circuit configured to hold the coupling capacitor at a direct current, DC, voltage for a time interval between two consecutively transmitted TCC signals of the plurality of TCC signals. a coupling capacitor for coupling the generated TCC signals to a transmitting electrode vector to transmit the plurality of TCC signals via a conductive tissue pathway; and a voltage holding circuit configured to hold the coupling capacitor at a direct current, DC, voltage for a time interval between two consecutively transmitted TCC signals of the plurality of TCC signals.
An electrochemical element comprising: a metal substrate having a plurality of through holes ; an electrode layer provided over a front face of the metal substrate; and an electrolyte layer provided over the electrode layer, wherein the through holes are provided passing through the front face and a back face of the metal substrate, the electrode layer is provided in a region larger than a region, of the metal substrate, in which the through holes are provided, the electrolyte layer has a first portion coating the electrode layer, and a second portion that is in contact with the front face of the metal substrate, characterised in that an upper part , of the electrode layer, that is adjacent to the electrolyte layer has a density higher than that of a lower part thereof adjacent to the metal substrate. a metal substrate having a plurality of through holes ; an electrode layer provided over a front face of the metal substrate; and an electrolyte layer provided over the electrode layer, wherein the through holes are provided passing through the front face and a back face of the metal substrate, the electrode layer is provided in a region larger than a region, of the metal substrate, in which the through holes are provided, the electrolyte layer has a first portion coating the electrode layer, and a second portion that is in contact with the front face of the metal substrate, characterised in that an upper part , of the electrode layer, that is adjacent to the electrolyte layer has a density higher than that of a lower part thereof adjacent to the metal substrate. the electrode layer is provided in a region larger than a region, of the metal substrate, in which the through holes are provided, the electrolyte layer has a first portion coating the electrode layer, and a second portion that is in contact with the front face of the metal substrate, characterised in that an upper part , of the electrode layer, that is adjacent to the electrolyte layer has a density higher than that of a lower part thereof adjacent to the metal substrate.
A puller comprising: a collar comprising slots and pivotal connectors located corresponding to the slots ;_ claws pivotally connected to the pivotal connectors , wherein each of the claws comprises a protuberance movable in and along a corresponding one of the slots ;_ a synchronizer comprising a receiving portion for receiving the protuberances , wherein the synchronizer is movable in the collar between an opening position and a closing position, wherein the synchronizer opens the claws by the protuberances in the opening position, wherein the synchronizer closes the claws by the protuberances in the closing position; and an abutting element extensible from the collar characterized by further comprising a first disc connected to the collar and a second disc connected to the synchronizer , wherein the first and second discs are pushed toward each other to move the collar toward the synchronizer and further comprising at least one screw for interconnecting the first and second discs . a collar comprising slots and pivotal connectors located corresponding to the slots ;_ claws pivotally connected to the pivotal connectors , wherein each of the claws comprises a protuberance movable in and along a corresponding one of the slots ;_ a synchronizer comprising a receiving portion for receiving the protuberances , wherein the synchronizer is movable in the collar between an opening position and a closing position, wherein the synchronizer opens the claws by the protuberances in the opening position, wherein the synchronizer closes the claws by the protuberances in the closing position; and an abutting element extensible from the collar characterized by further comprising a first disc connected to the collar and a second disc connected to the synchronizer , wherein the first and second discs are pushed toward each other to move the collar toward the synchronizer and further comprising at least one screw for interconnecting the first and second discs .
Image projection device for a head-up display comprising an image generation unit and a protective conduit connecting this image generation unit to an opening that allows the image generated by the generation unit to be projected out of the protective conduit and that comprises a protective flap able to pivot between a closing-off position in which it closes off said opening and a non-obstructing position in which it is housed in the protective conduit and is clear of said opening so as to allow said images to be projected, characterized in that said flap comprises two parts able to move one relative to the other.
A method for a machine implementing a gateway datapath, the method comprising: receiving a first packet from a network; executing, at a processor of the machine, a run-to-completion thread to perform a first plurality of function calls (351-354) based on content of the first packet , wherein at least one of the function calls configures the processor to operate as a logical router for performing routing operations based on header of the received first packet ; providing configuration data to the run-to-completion thread, the configuration data comprising a routing table when the processor is configured to operate as the logical router; receiving a second packet from the network; and executing, at the processor , the run-to-completion thread to perform a second plurality of function calls (361-364) based on content of the second packet , wherein the second plurality of function calls (361-364) are different from the first plurality of function calls (351-354). receiving a first packet from a network; executing, at a processor of the machine, a run-to-completion thread to perform a first plurality of function calls (351-354) based on content of the first packet , wherein at least one of the function calls configures the processor to operate as a logical router for performing routing operations based on header of the received first packet ; providing configuration data to the run-to-completion thread, the configuration data comprising a routing table when the processor is configured to operate as the logical router; receiving a second packet from the network; and executing, at the processor , the run-to-completion thread to perform a second plurality of function calls (361-364) based on content of the second packet , wherein the second plurality of function calls (361-364) are different from the first plurality of function calls (351-354).