mhurhangee/ep-ind-claims huggingface dataset:
A self-cooled reactor apparatus comprising: a pair of opposed frames to attach to a vehicular mount of a vehicle; a coil fixed to the frames and disposed between the pair of frames; a cover (13, 17) disposed between the pair of frames to cover the coil, characterized in that the cover (13, 17) having through-holes (14, 18, 22) formed in at least a portion thereof; a protective member to, while retaining a flow passage for air from the through-holes (14, 18, 22) to the coil, block a space between the through-holes (14, 18, 22) and the coil in a penetration direction of the through-holes (14, 18, 22); and a gap between the cover and the vehicular mount; wherein the protective member is at least a pair of members extending so as to approach one another from an air-intake surface in a travel direction of the vehicle, the air-intake surface being a surface of the cover (13, 17) positioned opposite to the vehicle relative to the coil. a pair of opposed frames to attach to a vehicular mount of a vehicle; a coil fixed to the frames and disposed between the pair of frames; a cover (13, 17) disposed between the pair of frames to cover the coil, characterized in that the cover (13, 17) having through-holes (14, 18, 22) formed in at least a portion thereof; a protective member to, while retaining a flow passage for air from the through-holes (14, 18, 22) to the coil, block a space between the through-holes (14, 18, 22) and the coil in a penetration direction of the through-holes (14, 18, 22); and a gap between the cover and the vehicular mount; wherein the protective member is at least a pair of members extending so as to approach one another from an air-intake surface in a travel direction of the vehicle, the air-intake surface being a surface of the cover (13, 17) positioned opposite to the vehicle relative to the coil.
A wire installation apparatus comprising: a body; a reel installed in the body to support a wire; a wire guide member guiding the wire; and an external force transfer member to transfer an external force, applied from the outside, to a peg so that the peg is driven into a ground, wherein the wire is installed by the peg driven into the ground, characterized in that: the wire installation apparatus further comprises the peg configured to pass through the body, and in that the external force transfer member is provided to protrude from the inside of the body to the outside of the body. a body; a reel installed in the body to support a wire; a wire guide member guiding the wire; and an external force transfer member to transfer an external force, applied from the outside, to a peg so that the peg is driven into a ground, wherein the wire is installed by the peg driven into the ground, characterized in that: the wire installation apparatus further comprises the peg configured to pass through the body, and in that the external force transfer member is provided to protrude from the inside of the body to the outside of the body. the wire installation apparatus further comprises the peg configured to pass through the body, and in that the external force transfer member is provided to protrude from the inside of the body to the outside of the body.
A water pump, comprising a pump body, a pump house with a water inlet and a water outlet, and a pump seat, wherein a circular mounting hole penetrating the pump seat is disposed in the pump seat, an annular mounting stage seated in the mounting hole is disposed at one end of the pump body, the pump body is configured to rotate around an axis of the mounting hole relative to the pump seat when the mounting stage disposed at the one end of the pump body is inserted into the mounting hole, and the pump house is disposed at one side of the pump seat away from the pump body and is connected with the pump body; characterized in that an outer diameter of the mounting stage is less than a diameter of the pump body, a stop surface is provided between the mounting stage and the pump body, and the stop surface is configured to: in the case where the mounting stage is inserted into the mounting hole of the pump seat, abut against one end surface of the pump seat facing to the pump body.
A driving system for a vehicle, comprising: an input unit for receiving user input; an interface; and a processor configured to: acquire information, via the interface, from devices provided in the vehicle, determine whether the vehicle needs to start autonomous driving in a state in which there is no preset destination, based on at least one of the user input and the acquired information, determine a time limit based on the acquired information when it is determined that the vehicle needs to start autonomous driving in a state in which there is no preset destination, identify a limited area based on the time limit, and provide a control signal, via the interface, to a vehicle drive device for controlling the vehicle to autonomously travel within the limited area, characterized in that the time limit is defined as a time value for limiting a time required for autonomous driving to return to a start point after the start of autonomous driving. an input unit for receiving user input; an interface; and a processor configured to: acquire information, via the interface, from devices provided in the vehicle, determine whether the vehicle needs to start autonomous driving in a state in which there is no preset destination, based on at least one of the user input and the acquired information, determine a time limit based on the acquired information when it is determined that the vehicle needs to start autonomous driving in a state in which there is no preset destination, identify a limited area based on the time limit, and provide a control signal, via the interface, to a vehicle drive device for controlling the vehicle to autonomously travel within the limited area, characterized in that the time limit is defined as a time value for limiting a time required for autonomous driving to return to a start point after the start of autonomous driving. acquire information, via the interface, from devices provided in the vehicle, determine whether the vehicle needs to start autonomous driving in a state in which there is no preset destination, based on at least one of the user input and the acquired information, determine a time limit based on the acquired information when it is determined that the vehicle needs to start autonomous driving in a state in which there is no preset destination, identify a limited area based on the time limit, and provide a control signal, via the interface, to a vehicle drive device for controlling the vehicle to autonomously travel within the limited area, characterized in that the time limit is defined as a time value for limiting a time required for autonomous driving to return to a start point after the start of autonomous driving.
An automatic uncoupling mechanism for couplers, comprising a coupler knuckle spindle and a driving unit; the driving unit comprises a cylinder body hinged to a coupler body, and a telescopic member axially movable along the cylinder body; whereby it further comprises a first rotating member, a boss and a boss stopper; the first rotating member comprises a crank hinged to the telescopic member, and a rotating part fixedly connected to the crank, with the rotating part being sheathed on the coupler knuckle spindle; it further comprises a second rotating member for limiting the movement of the rotating part in an axis direction of the coupler knuckle spindle; and the second rotating member is fixedly connected to the coupler knuckle spindle; the boss is fixedly mounted on the rotating part; the boss stopper is arranged on the coupler knuckle spindle or on the second rotating member; the driving unit unidirectionally drives the telescopic member so that the rotating part drives the coupler knuckle spindle to unidirectionally rotate by a contact of the boss with the boss stopper, so as to realize coupler uncoupling; and, after the driving unit drives the telescopic member to return to its position, the rotation of the coupler knuckle spindle for achieving coupler coupling is not limited by the rotating part.
Microtubes having a diameter of from 0.4 μm to 2 μm, comprising components of the outer membrane of E. coli cells and recombinantly expressed S-layer proteins.
A method for aligning a stress sensor with a conductive target material, said method comprising: inducing a first magnetic flux in the conductive target material to generate a first magnetic field state; receiving a first signal at a first signal output level from a first detector of the stress sensor and a second signal at a second signal output level from a second detector of the stress sensor at the first magnetic field state; inducing a second magnetic flux in the conductive target material to generate a second magnetic field state; receiving a third signal at a third signal output level from the first detector of the stress sensor and a fourth signal at a fourth signal output level from the second detector of the stress sensor at the second magnetic field state; and based on changes in the signal output levels adjusting a position of the stress sensor relative to the conductive target material to adjust the signal output levels to desired levels. inducing a first magnetic flux in the conductive target material to generate a first magnetic field state; receiving a first signal at a first signal output level from a first detector of the stress sensor and a second signal at a second signal output level from a second detector of the stress sensor at the first magnetic field state; inducing a second magnetic flux in the conductive target material to generate a second magnetic field state; receiving a third signal at a third signal output level from the first detector of the stress sensor and a fourth signal at a fourth signal output level from the second detector of the stress sensor at the second magnetic field state; and based on changes in the signal output levels adjusting a position of the stress sensor relative to the conductive target material to adjust the signal output levels to desired levels.
High-voltage circuit-breaker having a holder in the form of a suspension system for a vacuum interrupter, wherein the vacuum interrupter is arranged in a column-shaped insulator, and the vacuum interrupter is spatially fixed in the insulator by means of the holder and is electrically connected to an outer connection of the high-voltage circuit-breaker, and wherein the holder comprises a hollow cylindrical region, comprising a wall that has at least one opening (7, 8), characterized in that the hollow cylindrical region of the holder comprises a filter material. wherein the holder comprises a hollow cylindrical region, comprising a wall that has at least one opening (7, 8), characterized in that the hollow cylindrical region of the holder comprises a filter material.
A method of manufacture of a carbon fibre article comprising: providing a preform mold having a region that is shaped to compliment a shape of a preform part that is to be produced the surface being provided with at least one bore or groove that is connected to at least one conduit that passes through the mold to a manifold, (a) Laying a sheet of release material onto the surface covering at least some of the plurality of bores or grooves, (b) Applying reduced pressure to the manifold to cause the sheet to be sucked down onto the mold surface, (c) Laying carbon fibre material into the mold on top of the sheet of release material, (d) Applying an increase pressure to the manifold to push the preform free from the mold surface, and (e) removing the preform from the mold, characterised by further comprising feeding a chilled liquid into the mold through the manifold to cool the mold. (a) Laying a sheet of release material onto the surface covering at least some of the plurality of bores or grooves, (b) Applying reduced pressure to the manifold to cause the sheet to be sucked down onto the mold surface, (c) Laying carbon fibre material into the mold on top of the sheet of release material, (d) Applying an increase pressure to the manifold to push the preform free from the mold surface, and (e) removing the preform from the mold, characterised by further comprising feeding a chilled liquid into the mold through the manifold to cool the mold.
A mobile device for carrier aggregation, comprising: a first antenna interface circuit (423a, 424a) coupled to a first antenna and comprising a first quadplexer and a first multiplexer (449, 440), the first quadplexer comprising a first transmit filter and a first receive filter for a first band and a second transmit filter and a second receive filter for a second band, and the first multiplexer (449, 440) configured to filter transmit and receive signals for third and fourth bands; and a second antenna interface circuit (423b, 424b) coupled to a second antenna and comprising a second quadplexer and a second multiplexer (479, 470), the second quadplexer comprising a third transmit filter and a third receive filter for the first band and a fourth transmit filter and a fourth receive filter for the second band, and the second multiplexer (479, 470) configured to filter transmit and receive signals for the third and fourth bands. a first antenna interface circuit (423a, 424a) coupled to a first antenna and comprising a first quadplexer and a first multiplexer (449, 440), the first quadplexer comprising a first transmit filter and a first receive filter for a first band and a second transmit filter and a second receive filter for a second band, and the first multiplexer (449, 440) configured to filter transmit and receive signals for third and fourth bands; and a second antenna interface circuit (423b, 424b) coupled to a second antenna and comprising a second quadplexer and a second multiplexer (479, 470), the second quadplexer comprising a third transmit filter and a third receive filter for the first band and a fourth transmit filter and a fourth receive filter for the second band, and the second multiplexer (479, 470) configured to filter transmit and receive signals for the third and fourth bands.
A method comprising: flowing a sample through a filter device comprising a filter assembly to filter the sample, wherein particulates are captured by a filter material of the filter assembly, wherein the filter device comprises a sonotrode having a plurality of piezoelectric discs attached to the filter assembly, and wherein the filter assembly further comprises (a) a first filter body adjacent the sonotrode, the first filter body defining a first fluid port which fluidly connects to an internal fluid passage within the first filter body, (b) a second filter body mated to the first filter body, the second filter body defining a second fluid port which fluidly connects to an internal passage within the second filter body, and (c) a filter element having an outer compressible seal, wherein the internal passages of the filter bodies form a singular passage defining a filter chamber when the first and second filter bodies (108, 110) are mated, and the filter element is disposed within the filter chamber with the outer seal supporting and surrounding the filter element; and vibrating the filter device at or near a resonant frequency of the filter device to remove the particulates from the filter material, wherein the sonotrode is operated at an impedance of 20 Ohms to 500 Ohms to vibrate the filter assembly, wherein vibrating the filter device comprises monitoring the resonant or near-resonant frequency and altering power input to the filter device to maintain resonance or near-resonance. flowing a sample through a filter device comprising a filter assembly to filter the sample, wherein particulates are captured by a filter material of the filter assembly, wherein the filter device comprises a sonotrode having a plurality of piezoelectric discs attached to the filter assembly, and wherein the filter assembly further comprises (a) a first filter body adjacent the sonotrode, the first filter body defining a first fluid port which fluidly connects to an internal fluid passage within the first filter body, (b) a second filter body mated to the first filter body, the second filter body defining a second fluid port which fluidly connects to an internal passage within the second filter body, and (c) a filter element having an outer compressible seal, wherein the internal passages of the filter bodies form a singular passage defining a filter chamber when the first and second filter bodies (108, 110) are mated, and the filter element is disposed within the filter chamber with the outer seal supporting and surrounding the filter element; and vibrating the filter device at or near a resonant frequency of the filter device to remove the particulates from the filter material, wherein the sonotrode is operated at an impedance of 20 Ohms to 500 Ohms to vibrate the filter assembly, wherein vibrating the filter device comprises monitoring the resonant or near-resonant frequency and altering power input to the filter device to maintain resonance or near-resonance.
A conductive paste comprising from 30 to 97 % by weight of electrically conductive particles, from 1 to 20 % by weight of a glass frit, from 3 to 70 % by weight of an organic medium and from 0.1 to 67 % by weight of a silicone oil, each based on the total mass of the paste, wherein the silicone oil has a boiling point or a boiling range in the range between 180 °C and 350 °C.
Refrigeration appliance with an inner container, with an air duct element, which is arranged on an inner wall of the inner container and has an air duct for supplying cold air into the inner container, and with a cover element for covering the air duct element, wherein a seal is arranged on the air duct element, and wherein the cover element is connected to the inner wall by means of a latching connection and the air duct element presses against the inner wall, wherein the inner wall has a first guide element, and the air duct element has a second guide element, wherein the first guide element rests against the second guide element, in order to position the air duct element in a first direction, and the first guide element further rests against a side of the air duct element, in order to position the air duct element in a second direction, wherein the first direction and the second direction are different, characterised in that the inner wall has a latch cam, and that the cover element has a latching element, wherein the latching element engages behind the latch cam in a latching connection, the inner wall further has a securing cam, wherein the securing cam is arranged at a distance from the latch cam, and that a securing element is arranged on the latching element, wherein the securing element engages into a recess formed between the securing cam and the latch cam, in order to fix the latching element on the latch cam, the securing cam is arranged offset from the latch cam, the recess formed between the securing cam and the latch cam has an insertion opening, wherein a size of the insertion opening is smaller than a size of the securing element, and that the cover element is resiliently deformable, at least in sections, in order to enable an insertion of the securing element into the recess formed between the securing cam and the latch cam.
Hotplate with a cooking plate (7; 15) and a plurality of energy transfer elements which are arranged below the cooking plate (7; 15) and can be activated independently of one another, wherein each energy transfer element is equipped with a pan detection system and at least one first marker is present on the cooking plate (7; 15) for each of the energy transfer elements, wherein the energy transfer elements are distributed across the surface of the cooking plate (7; 15) at least partly in a level pattern with an at least 3-digit symmetry characterised in that the at least one first marker indicates a centre of the respective energy transfer element and each of the energy transfer elements can be switched on if the pan detection system identifies a covering of its centre.
A method for performing a handover from a source cell to a target cell in a mobile communication system, the method comprising: sending, by a user equipment, UE, a measurement report on received signal strengths of adjacent cells, to a Node B of the source cell; receiving, by the UE, a handover preparation message from the Node B of the source cell; after receiving the handover preparation message, sending, by the UE, to the Node B of the source cell, a status report including a sequence number of successfully received packet data and a sequence number of missing packet data; receiving, by the UE, the missing packet data from the Node B of the source cell; and upon a receipt of a handover command from the Node B of the source cell, performing a handover by the UE. sending, by a user equipment, UE, a measurement report on received signal strengths of adjacent cells, to a Node B of the source cell; receiving, by the UE, a handover preparation message from the Node B of the source cell; after receiving the handover preparation message, sending, by the UE, to the Node B of the source cell, a status report including a sequence number of successfully received packet data and a sequence number of missing packet data; receiving, by the UE, the missing packet data from the Node B of the source cell; and upon a receipt of a handover command from the Node B of the source cell, performing a handover by the UE.
A method for extinguishing objects or devices, comprising the following method steps that are preferably carried out sequentially: (a) sensing a first fire signal by means of at least one event detector and fire panel and/or extinguishing control panel at the time t 1, (b) driving a first extinguishing-agent supply device by means of the fire detection panel and/or extinguishing control panel for discharging a liquid synthetic extinguishing agent via a joint pipeline and at least one nozzle, (c) sensing a second fire signal at the time t 2 and (d) driving a second extinguishing-agent supply device and discharging water or a water-based extinguishing agent by means of the joint pipeline and the at least one nozzle, for extinguishing purposes, wherein discharging the liquid synthetic extinguishing agent and discharging the water or the water-based extinguishing agent are carried out via a separation unit and further prior to the method step (b) driving the separation unit by means of the fire detection panel and/or extinguishing control panel for generating a switching position takes place, that releases the transportation path of the liquid synthetic extinguishing agent in the direction of the joint pipeline and the at least one nozzle and completely blocks the transportation path of the water or of the water-based extinguishing agent from the second extinguishing-agent supply device in the direction of the joint pipeline and of the at least one nozzle and prior to method step (d) driving the separation unit by means of the fire detection panel and/or extinguishing control panel takes place to produce a switching position of the separation unit that releases the transportation path of the water or of the water-based extinguishing agent in the direction of the joint pipeline and of the at least one nozzle and completely blocks the transportation path of the liquid synthetic extinguishing agent from the first extinguishing-agent supply device in the direction of the joint pipeline and the at least one nozzle. (a) sensing a first fire signal by means of at least one event detector and fire panel and/or extinguishing control panel at the time t 1, (b) driving a first extinguishing-agent supply device by means of the fire detection panel and/or extinguishing control panel for discharging a liquid synthetic extinguishing agent via a joint pipeline and at least one nozzle, (c) sensing a second fire signal at the time t 2 and (d) driving a second extinguishing-agent supply device and discharging water or a water-based extinguishing agent by means of the joint pipeline and the at least one nozzle, for extinguishing purposes,