mhurhangee/ep-ind-claims huggingface dataset:
A folding landing gear assembly comprising: a main fitting configured to couple to a hinge positioned at a proximal end; a swing arm rotatably coupled at a proximal end to a distal end of the main fitting; a shock coupled at a distal end to a distal end of the swing arm; a bellcrank coupled at a distal end to a proximal end of the shock, and coupled at a proximal end to the main fitting; a wheel coupled to the swing arm; a drivelink coupled at a distal end to the bellcrank and configured to couple to a wing at a proximal end, the drivelink being configured in an orientation off-parallel from the main fitting and off-normal from the main fitting; and a lock solenoid coupled to the main fitting and configured to lock the bellcrank into a deployed position when locked, and configured to release the bellcrank when unlocked. a main fitting configured to couple to a hinge positioned at a proximal end; a swing arm rotatably coupled at a proximal end to a distal end of the main fitting; a shock coupled at a distal end to a distal end of the swing arm; a bellcrank coupled at a distal end to a proximal end of the shock, and coupled at a proximal end to the main fitting; a wheel coupled to the swing arm; a drivelink coupled at a distal end to the bellcrank and configured to couple to a wing at a proximal end, the drivelink being configured in an orientation off-parallel from the main fitting and off-normal from the main fitting; and a lock solenoid coupled to the main fitting and configured to lock the bellcrank into a deployed position when locked, and configured to release the bellcrank when unlocked.
A fluid catalytic cracking flue hot gas expander comprising a hot gas expander shroud wherein the internal surface of the hot gas expander shroud is not coated with an abradable material and at least one rotor blade having a body, wherein the tips of the at least one rotor blade and the internal wall of the shroud are arranged distanced from each other in the steady state during operation and characterized by the at least one rotor blade bearing an abrasive material, different from the material of the body, on the tip of the at least one rotor blade, wherein said abrasive material is composed of hard abrasive particles embedded in a metallic matrix or in an oxidant-resistant matrix and the thickness of the abrasive material layer is from 0.5 to 5 mm.
A venting valve for venting the interior of a vehicle, comprising a housing (10, 110, 210, 310, 410, 510) having at least one passage opening (14, 114, 214, 314, 414, 514), and comprising at least one venting flap (16, 116, 216, 316, 416, 516) which is mounted on the housing (10, 110, 210, 310, 410, 510) by means of a pivot mounting so as to be pivotable between a closed position and an open position, wherein, in the closed position, the at least one venting flap (16, 116, 216, 316, 416, 516) closes off the at least one passage opening (14, 114, 214, 314, 414, 514) and, in the open position, opens up the at least one passage opening (14, 114, 214, 314, 414, 514) for an air stream from the interior of the vehicle to the outside, wherein the pivot mounting is arranged on an inner side of the housing (10, 110, 210, 310, 410, 510), which inner side, in the assembled state, faces the interior of the vehicle, wherein the pivot mounting comprises at least one pivot arm (20, 120, 220, 320, 420, 520) which is connected to the at least one venting flap (16, 116, 216, 316, 416, 516) and is pivotably articulated on at least one pivot bearing arranged on the inner side of the housing (10, 110, 210, 310, 410, 510), wherein, in the closed position of the at least one venting flap (16, 116, 216, 316, 416, 516), the at least one pivot arm (20, 120, 220, 320, 420, 520) guides in the direction of at least one venting flap (16, 116, 216, 316, 416, 516) an air stream coming from the vehicle interior, and wherein, in the open position, the at least one pivot arm (20, 120, 220, 320, 420, 520) guides in the direction of at least one passage opening (14, 114, 214, 314, 414, 514) of the housing (10, 110, 210, 310, 410, 510) an air stream coming from the vehicle interior.
A mosaic tile paving device, comprising: a plurality of suckers and a handle; the plurality of suckers are installed on a vacuuming shell; the plurality of suckers and a plurality of mosaic tiles are fixed together or separated by changing an air volume in the vacuuming shell; the handle is connected on the vacuuming shell; wherein a deflation module is arranged on the vacuuming shell; the deflation module includes a long extended one-way valve shaft that is connected with the vacuuming shell and a button that controls a motion of the one-way valve shaft; the deflation module further includes a control rod and a reset spring, wherein the control rod is clamped on the one-way valve shaft and controls its vertical motion, and the reset spring is connected with an end, far away from the one-way valve shaft, of the control rod, characterized in that, wherein the deflation module is partially arranged in the handle; wherein the control rod includes a clip joint that clamps the one-way valve shaft, a rotating groove that extends from a side, far away from the one-way valve shaft, of the clip joint and a rotating arm that extends from a side, far away from the clip joint, of the rotating groove; wherein the rotating arm is connected with the reset spring and the button on its lower and upper sides respectively; wherein the control rod is so configured that when the button is pressed, the rotating arm is then pressed and the rotating groove rotates, the clip joint drives the one-way valve shaft to move upward, the air enters the suckers and the suckers release the mosaic tiles. a plurality of suckers and a handle; the plurality of suckers are installed on a vacuuming shell; the plurality of suckers and a plurality of mosaic tiles are fixed together or separated by changing an air volume in the vacuuming shell; the handle is connected on the vacuuming shell; wherein a deflation module is arranged on the vacuuming shell; the deflation module includes a long extended one-way valve shaft that is connected with the vacuuming shell and a button that controls a motion of the one-way valve shaft; the deflation module further includes a control rod and a reset spring, wherein the control rod is clamped on the one-way valve shaft and controls its vertical motion, and the reset spring is connected with an end, far away from the one-way valve shaft, of the control rod, characterized in that, wherein the deflation module is partially arranged in the handle; wherein the control rod includes a clip joint that clamps the one-way valve shaft, a rotating groove that extends from a side, far away from the one-way valve shaft, of the clip joint and a rotating arm that extends from a side, far away from the clip joint, of the rotating groove; wherein the rotating arm is connected with the reset spring and the button on its lower and upper sides respectively; wherein the control rod is so configured that when the button is pressed, the rotating arm is then pressed and the rotating groove rotates, the clip joint drives the one-way valve shaft to move upward, the air enters the suckers and the suckers release the mosaic tiles.
A water distribution and water treating architecture system comprising a light grey water tank, said light grey water tank being connected to a fresh water inlet, said light grey water tank further being connected to a heater so that both cold and hot water may be fed to a water treating and distributing unit from the light grey water tank, said water treating and distributing unit comprising a water treating unit, wherein the water distribution and water treating architecture system also comprises a user unit with a user outlet and a sensor unit tank, which sensor unit tank comprises at least one sensor directed to measuring water quality and sending information to a control unit, wherein the water distribution and water treating architecture system comprises a user water recirculation loop enabling recirculation of water from the sensor unit tank into the water treating and distributing unit and water treating unit and further to the user outlet, said sensor unit tank also being connected to a grey water outlet unit; wherein the water distribution and water treating architecture system also comprises a water feeding recirculation loop enabling recirculation of water from the light grey water tank into the water treating and distributing unit and water treating unit and back to the light grey water tank, and wherein the water treating unit comprises a heater, characterized in that the water distribution and water treating architecture system also comprises an additional recirculation loop for recirculation of water from the user unit and to the light grey water tank. wherein the water distribution and water treating architecture system comprises a user water recirculation loop enabling recirculation of water from the sensor unit tank into the water treating and distributing unit and water treating unit and further to the user outlet, said sensor unit tank also being connected to a grey water outlet unit; wherein the water distribution and water treating architecture system also comprises a water feeding recirculation loop enabling recirculation of water from the light grey water tank into the water treating and distributing unit and water treating unit and back to the light grey water tank, and wherein the water treating unit comprises a heater, characterized in that the water distribution and water treating architecture system also comprises an additional recirculation loop for recirculation of water from the user unit and to the light grey water tank.
A crosslinked rubber composition having a volume of the low density region of 35% or more at elongation by an applied stress of 1.5 MPa, a volume of the void portion of 7.5% or less at elongation by an applied stress of 3.0 MPa and a ratio of 40% by mass or more of a component having a weight-average molecular weight of not less than 1,000,000 in a molecular weight distribution measured by gel permeation chromatography, wherein the low density region is a region having a density of 0.1 to 0.8 time the density of a crosslinked rubber composition before the elongation, wherein the void portion is a region having a density of 0 to 0.1 time the density of a crosslinked rubber composition before the elongation, wherein volumes of the low density region and the void portion are evaluated using an X-ray computerized tomography, wherein a decay time of a phosphor for converting the X-ray into a visible light is 100 ms or less, and wherein a luminance of the X-ray is 10 10 photons/s/mrad 2 /mm 2 /0.1% bw or more.
A Coriolis flow meter comprising: a first U-shaped flow tube and a second U-shaped flow tube adapted to be vibrated in phase opposition relative to a plane of symmetry between the first flow tube and the second flow tube; a drive system adapted to vibrate each flow tube about bending axes connecting end nodes of each flow tube and comprising a first and a second vibrating component; said first vibrating components (D, LPO, RPO) including a first vibrating drive system component affixed to said first flow tube; said second vibrating components including second vibrating drive system component affixed to said second flow tube; said first and second vibrating drive system components are of equivalent size and position such that a moment of inertia of said first flow tube plus said first vibrating drive system component is substantially equal to a moment of inertia of said second flow tube plus said second vibrating drive system component; characterized in that the bending axis (W') of said first flow tube and the combined center of mass of said first flow tube plus said first vibrating drive system component lie on a first plane parallel to said plane of symmetry; and the bending axis of said second flow tube and the combined center of mass of said second flow tube plus said second vibrating drive system component lie on a second plane parallel to said plane of symmetry, wherein the first plane is not positioned on a center line or a center of mass of the first flow tube, and the second plane is not positioned on a center line or a center of mass of the second flow tube. a first U-shaped flow tube and a second U-shaped flow tube adapted to be vibrated in phase opposition relative to a plane of symmetry between the first flow tube and the second flow tube; a drive system adapted to vibrate each flow tube about bending axes connecting end nodes of each flow tube and comprising a first and a second vibrating component; said first vibrating components (D, LPO, RPO) including a first vibrating drive system component affixed to said first flow tube; said second vibrating components including second vibrating drive system component affixed to said second flow tube; said first and second vibrating drive system components are of equivalent size and position such that a moment of inertia of said first flow tube plus said first vibrating drive system component is substantially equal to a moment of inertia of said second flow tube plus said second vibrating drive system component; characterized in that the bending axis (W') of said first flow tube and the combined center of mass of said first flow tube plus said first vibrating drive system component lie on a first plane parallel to said plane of symmetry; and the bending axis of said second flow tube and the combined center of mass of said second flow tube plus said second vibrating drive system component lie on a second plane parallel to said plane of symmetry, wherein the first plane is not positioned on a center line or a center of mass of the first flow tube, and the second plane is not positioned on a center line or a center of mass of the second flow tube.
Assembled camshaft for valve-controlled internal combustion engines, in which a hub body, which comprises at least one cam, is interlockingly held on a shaft by means of a positive fit by means of a spline in the circumferential direction, the spline comprising a shaft toothing which is formed on the shaft and cooperates with a hub body toothing formed in a hub body recess, and the at least one hub body being held on the shaft by an interference fit in addition to the circumferential positive fit, which interference fit is produced by a press fit formed between a tip circle of the shaft toothing and a root circle of the hub body toothing, characterised in that the shaft comprises at least one further shaft toothing which forms a component of a spline forming a sliding fit, and with which a sliding fit hub body, which comprises at least one cam, cooperates by means of a hub body toothing, which is formed in the hub body recess, in such a way that the sliding fit hub body is held so as to be axially displaceable on the shaft and in such a way that the respective spline regions of the at least one interference fit hub body and the at least one sliding fit hub body have approximately the same dimensions and an approximately identical shape in order to form identical or uniform toothing parameters.
A remote unit for wireless communication, the remote unit comprising at least one memory, and at least one processor coupled with the at least one memory and configured to cause the remote unit to: receive a downlink data packet from a first data connection over the mobile communication network, the first data connection providing the remote unit access to a remote data network; determine from the downlink data packet whether the first data connection provides access to a local data network in addition to the remote data network, the determination made by examining a local access availability flag in a header of the downlink data packet, the local access availability flag indicating whether the first data connection provides access to the local data network; and access one or more services in the local data network in response to determining that the first data connection provides access to the local data network. receive a downlink data packet from a first data connection over the mobile communication network, the first data connection providing the remote unit access to a remote data network; determine from the downlink data packet whether the first data connection provides access to a local data network in addition to the remote data network, the determination made by examining a local access availability flag in a header of the downlink data packet, the local access availability flag indicating whether the first data connection provides access to the local data network; and access one or more services in the local data network in response to determining that the first data connection provides access to the local data network.
A method for preparing a customized polymeric article comprising: (a) providing two mold half-sections, each half-section having an outer surface and an inner surface; (b) assembling the two mold half-sections to form a mold assembly such that the inner surfaces of the two mold half-sections oppose one another, thereby defining a cavity therebetween; (c) prior to or subsequent to (b) applying one or more magnetic fluids to the inner surface of at least one mold half-section; (d) inserting a fluid polymeric material into the cavity formed in (b); (e) prior to or subsequent to (d), controllably applying a magnetic field to the one or more magnetic fluids to form a customized reversible surface in accordance with a predetermined specific surface topography; (f) subjecting the mold assembly containing the fluid polymeric material to conditions sufficient to effect at least partial polymerization or hardening of the fluid polymeric material; and (g) separating the two mold half-sections to provide a polymeric article having at least one surface corresponding to the predetermined specific surface topography of the magnetic fluid. (a) providing two mold half-sections, each half-section having an outer surface and an inner surface; (b) assembling the two mold half-sections to form a mold assembly such that the inner surfaces of the two mold half-sections oppose one another, thereby defining a cavity therebetween; (c) prior to or subsequent to (b) applying one or more magnetic fluids to the inner surface of at least one mold half-section; (d) inserting a fluid polymeric material into the cavity formed in (b); (e) prior to or subsequent to (d), controllably applying a magnetic field to the one or more magnetic fluids to form a customized reversible surface in accordance with a predetermined specific surface topography; (f) subjecting the mold assembly containing the fluid polymeric material to conditions sufficient to effect at least partial polymerization or hardening of the fluid polymeric material; and (g) separating the two mold half-sections to provide a polymeric article having at least one surface corresponding to the predetermined specific surface topography of the magnetic fluid.
A head-mounted display device comprising: an image display unit configured to emit image light; a light guide member configured to guide the image light and emit the image light to eyes of a wearer who wears the head-mounted display device; and a relay optical system arranged between the image display unit and the light guide member, and configured to relay the image light from the image display unit to the light guide member, and form an intermediate image at least once before the image light enters the light guide member; wherein the image display unit is located posterior to a plane that is in contact with both eyeballs of the wearer. an image display unit configured to emit image light; a light guide member configured to guide the image light and emit the image light to eyes of a wearer who wears the head-mounted display device; and a relay optical system arranged between the image display unit and the light guide member, and configured to relay the image light from the image display unit to the light guide member, and form an intermediate image at least once before the image light enters the light guide member; wherein the image display unit is located posterior to a plane that is in contact with both eyeballs of the wearer.
A textile fabric layer having an air-permeable structure, with the fabric layer having a multiplicity of spaced apart elevations (8; 11; 12a-12c) and a multiplicity of airing holes which are located in at least some of the depressions present between the elevations, with the fabric layer also being air-permeable in the depressions between the airing holes, characterized in that the depressions form flow channels open on the upper side which extend from the airing holes through between the elevations as far as the outer edge of the fabric layer.
A method performed in a network node in communication with a wireless communication device, WCD, and a plurality of base stations (102, 104, 106), the method comprising: the network node receiving, from the WCD, location information including position reference signal, PRS, correlation function characteristics of a cross-correlation between a received downlink signal and a transmitted PRS for each base station from the plurality of base stations, wherein the received downlink signal is a PRS signal received from one of the base stations from the plurality of base stations, and the transmitted PRS is a predetermined waveform or set of values transmitted from each base station to the WCD and stored on the WCD, and wherein the PRS correlation function characteristics include a time lag, wherein the time lag is determined based on a time difference between a first peak and a second peak, and wherein the first peak and the second peak are peaks from the cross-correlation; and the network node determining a position of the WCD using the PRS correlation function characteristics. the network node receiving, from the WCD, location information including position reference signal, PRS, correlation function characteristics of a cross-correlation between a received downlink signal and a transmitted PRS for each base station from the plurality of base stations, wherein the received downlink signal is a PRS signal received from one of the base stations from the plurality of base stations, and the transmitted PRS is a predetermined waveform or set of values transmitted from each base station to the WCD and stored on the WCD, and wherein the PRS correlation function characteristics include a time lag, wherein the time lag is determined based on a time difference between a first peak and a second peak, and wherein the first peak and the second peak are peaks from the cross-correlation; and the network node determining a position of the WCD using the PRS correlation function characteristics.