mhurhangee/ep-ind-claims huggingface dataset:
Winding unit comprising a spool changing device, for changing spools comprising yarn wound on a tube supported by a plate, the spool changing device being provided with: - a tube locking pusher, provided with a locking stem configured to pass from a retracted configuration, in which it does not interfere with the tube of the spool, to an extracted configuration in which it obtains a constraint at a lower portion of the tube of the spool, facing said plate, - a plate centring pusher configured to influence, in an extracted configuration, the plate abutting against a frame of the spool changing device, - characterized in that the spool changing device is provided with at least one nozzle positioned and configured so as to direct, through at least one delivery hole, a jet of compressed air near said lower portion of the tube of the spool influenced by the tube locking pusher, to prevent said tube locking pusher from clamping a thread of said yarn wound on the tube, wherein said nozzle is integrally fixed to said locking stem. - a tube locking pusher, provided with a locking stem configured to pass from a retracted configuration, in which it does not interfere with the tube of the spool, to an extracted configuration in which it obtains a constraint at a lower portion of the tube of the spool, facing said plate, - a plate centring pusher configured to influence, in an extracted configuration, the plate abutting against a frame of the spool changing device, - characterized in that the spool changing device is provided with at least one nozzle positioned and configured so as to direct, through at least one delivery hole, a jet of compressed air near said lower portion of the tube of the spool influenced by the tube locking pusher, to prevent said tube locking pusher from clamping a thread of said yarn wound on the tube,
A method of monitoring a banknote store comprising at least one winding means and at least one elongate support means (24, 26) which can be wound and/or unwound from the winding means for storing and/or transporting a banknote, the method comprising sensing indicia on the at least one elongate support means (24, 26) to determine an amount of movement of the at least one elongate support means (24, 26); determining a diameter of a spool at different times; comparing the measured diameters of the spool at different times; and determining whether banknotes have been removed from the banknote store based on the comparison.
A method for a reset rocker arm braking, comprising a process of utilizing an exhaust valve actuator of an engine to open an exhaust valve, the engine comprising an engine brake control mechanism, the exhaust valve actuator comprising a cam and a rocker arm, the cam comprising an exhaust cam lobe and at least one brake cam lobe (232, 233), the exhaust cam lobe being higher than the brake cam lobe (232, 233), the rocker arm being provided with a brake oil supply passage, characterized in that, the method for a reset rocker arm braking comprises: arranging a brake piston bore opened downward at a lower side of one end of the rocker arm, slidably disposing a brake piston in the brake piston bore, the brake piston having an extended position and a retracted position in the brake piston bore, communicating the brake oil supply passage in the rocker arm with the brake piston bore, arranging a one-way oil supply valve between the brake piston bore and the brake oil supply passage or within the brake oil supply passage, the one-way oil supply valve having an oil supply direction from the brake oil supply passage to the brake piston bore, arranging an oil drain piston bore opened upwards at an upper side of the same end of the rocker arm, slidably disposing an oil drain piston in the oil drain piston bore, arranging an oil drain passage between the oil drain piston bore and the brake piston bore, wherein the process of utilizing the exhaust valve actuator of the engine to open the exhaust valve comprises the following steps: firstly, turning on the brake control mechanism, supplying oil to the oil drain piston bore and the brake piston bore simultaneously through the brake oil supply passage, placing the oil drain piston at a position for closing the oil drain passage and placing the brake piston at the extended position; then, utilizing the brake cam lobe (232, 233) of the cam to drive the rocker arm and the brake piston at the extended position to open at least one exhaust valve under the brake piston; and then utilizing a rising section at a top portion of the exhaust cam lobe which is higher than the brake cam lobe (232, 233) to keep driving the rocker arm, and at the same time, utilizing a motion of the rocker arm to change a position of the oil drain piston in the oil drain piston bore so as to open the oil drain passage to drain oil out of the brake piston bore, moving the brake piston from the extended position to the retracted position, and skipping a part of the actuation onto the exhaust valve from the top portion of the exhaust cam lobe; finally, utilizing a descending section of the exhaust cam lobe of the cam to drive the rocker arm to rotate backwards, utilizing the backward motion of the rocker arm to change the position of the oil drain piston in the oil drain piston bore so as to close the oil drain passage, and at the same time, supplying oil to the brake piston bore through the brake oil supply passage and the one-way oil supply valve, re-placing the brake piston at the extended position, and starting a new engine braking cycle.
Sprocket-chain drive with a sprocket chain and a drive sprocket (AR, AR1, AR2, 100-600) for the sprocket chain, the drive sprocket containing: a) a first side wall (SW, SW1, 120-620), that can be mounted rotatably around an axis; b) a second side wall (SW, SW2, 130-630), that is axially spaced from and coupled with the first side wall by forming a space; c) an intermediate body (ZK, ZK1, 150-650), that is positioned in the mentioned space; d) a liner (LB, 110-410), that is clamped between the first side wall and the second side wall and at which the intermediate body is movably mounted, characterized in that e) the intermediate body (ZK, ZK1, 150-650) is mounted rotatably on the liner (LB, 110-410), f) the first side wall and the second side wall of the drive sprocket have a sprocket (121, 131, 221, 231, 321, 331), that engages into the sprocket chain during operation of the sprocket-chain drive, wherein the intermediate body (ZK, ZK1, 150-650) is mounted at this sprocket. a) a first side wall (SW, SW1, 120-620), that can be mounted rotatably around an axis; b) a second side wall (SW, SW2, 130-630), that is axially spaced from and coupled with the first side wall by forming a space; c) an intermediate body (ZK, ZK1, 150-650), that is positioned in the mentioned space; d) a liner (LB, 110-410), that is clamped between the first side wall and the second side wall and at which the intermediate body is movably mounted, e) the intermediate body (ZK, ZK1, 150-650) is mounted rotatably on the liner (LB, 110-410), f) the first side wall and the second side wall of the drive sprocket have a sprocket (121, 131, 221, 231, 321, 331), that engages into the sprocket chain during operation of the sprocket-chain drive, wherein the intermediate body (ZK, ZK1, 150-650) is mounted at this sprocket.
A method in a communication network, the method comprising: receiving, from a communication device, a trigger frame that includes a request to transmit an aggregate data unit to the communication device and a duration of time during which the communication device can receive the aggregate data unit; and in response to receiving the trigger frame, generating an aggregate data unit for transmission to the communication device, wherein: the aggregate data unit includes a plurality of component data units, each having a respective media access channel, MAC, header, and the aggregate data unit is generated in accordance with the duration of time. receiving, from a communication device, a trigger frame that includes a request to transmit an aggregate data unit to the communication device and a duration of time during which the communication device can receive the aggregate data unit; and in response to receiving the trigger frame, generating an aggregate data unit for transmission to the communication device, wherein: the aggregate data unit includes a plurality of component data units, each having a respective media access channel, MAC, header, and the aggregate data unit is generated in accordance with the duration of time. the aggregate data unit includes a plurality of component data units, each having a respective media access channel, MAC, header, and the aggregate data unit is generated in accordance with the duration of time.
A method for simultaneous heating a first fluid and cooling a second fluid using a primary fluid including use of at least one of an air source and a source of fluid, the method comprising: compressing the primary fluid into a heated gaseous state that flows in a first flow direction with a compressor having at least one component rotatable in a first direction; transferring heat from the primary fluid to the first fluid with a first heat exchanger via a first secondary fluid, wherein the first fluid is heated; condensing the primary fluid from the first heat exchanger with a condenser; expanding the primary fluid to a gaseous state with an expansion device; and transferring heat from the second fluid to the primary fluid with a second heat exchanger, via a second secondary fluid, that receives the primary fluid output from the expansion device, wherein the second fluid is cooled; characterized in that: while maintaining rotation of the at least one component in the first direction and the first flow direction of the primary fluid, using at least one processor to calculate and select in real-time whether to use the air source or the source of fluid as the first fluid and the second fluid in order to optimize an efficiency of transferring the heat from the primary fluid to the first fluid in the first heat exchanger via the first secondary fluid and from the second fluid to the primary fluid in the second heat exchanger via the second secondary fluid, and, automatically and in real-time activating at least one controller to supply the first heat exchanger with the selected first fluid and to supply the second heat exchanger with the selected second fluid. compressing the primary fluid into a heated gaseous state that flows in a first flow direction with a compressor having at least one component rotatable in a first direction; transferring heat from the primary fluid to the first fluid with a first heat exchanger via a first secondary fluid, wherein the first fluid is heated; condensing the primary fluid from the first heat exchanger with a condenser; expanding the primary fluid to a gaseous state with an expansion device; and transferring heat from the second fluid to the primary fluid with a second heat exchanger, via a second secondary fluid, that receives the primary fluid output from the expansion device, wherein the second fluid is cooled; characterized in that: while maintaining rotation of the at least one component in the first direction and the first flow direction of the primary fluid, using at least one processor to calculate and select in real-time whether to use the air source or the source of fluid as the first fluid and the second fluid in order to optimize an efficiency of transferring the heat from the primary fluid to the first fluid in the first heat exchanger via the first secondary fluid and from the second fluid to the primary fluid in the second heat exchanger via the second secondary fluid, and, automatically and in real-time activating at least one controller to supply the first heat exchanger with the selected first fluid and to supply the second heat exchanger with the selected second fluid.
A sole structure (12, 212, 412, 612, 812, 1012) for an article of footwear (10, 410, 610, 1010, 1110), the sole structure (12, 212, 412, 612, 812, 1012) comprising: a first plate (40, 240, 640, 840, 1040, 1140); a fluid-filled bladder supported on the first plate (40, 240, 640, 840, 1040, 1140); a second plate (42, 242, 842, 1042) supported on the fluid-filled bladder with the fluid-filled bladder disposed between the first plate (40, 240, 640, 840, 1040, 1140) and the second plate (42, 242, 842, 1042); and wherein the first plate (40, 240, 640, 840, 1040, 1140) ascends rearward of the fluid-filled bladder and the second plate (42, 242, 842, 1042) descends rearward of the fluid-filled bladder with a posterior portion (54, 1154) of the first plate (40, 240, 640, 840, 1040, 1140) above a posterior portion (54, 1154) of the second plate (42, 242, 842, 1042) rearward of the fluid-filled bladder, the sole structure further comprising a midsole unit (48, 848, 1048, 1148) extending in a heel region of the sole structure (12, 212, 412, 612, 812, 1012); wherein the midsole unit (48, 848, 1048, 1147, 1148) has a through hole (807, 1188) in the heel region; and wherein the posterior portion (54, 1154) of the first plate (40, 240, 640, 840, 1040, 1140) extends through the through hole ( 807, 1188) in the midsole unit and is seated on a foot-facing surface of the midsole unit. a first plate (40, 240, 640, 840, 1040, 1140); a fluid-filled bladder supported on the first plate (40, 240, 640, 840, 1040, 1140); a second plate (42, 242, 842, 1042) supported on the fluid-filled bladder with the fluid-filled bladder disposed between the first plate (40, 240, 640, 840, 1040, 1140) and the second plate (42, 242, 842, 1042); and wherein the first plate (40, 240, 640, 840, 1040, 1140) ascends rearward of the fluid-filled bladder and the second plate (42, 242, 842, 1042) descends rearward of the fluid-filled bladder with a posterior portion (54, 1154) of the first plate (40, 240, 640, 840, 1040, 1140) above a posterior portion (54, 1154) of the second plate (42, 242, 842, 1042) rearward of the fluid-filled bladder, the sole structure further comprising a midsole unit (48, 848, 1048, 1148) extending in a heel region of the sole structure (12, 212, 412, 612, 812, 1012); wherein the midsole unit (48, 848, 1048, 1147, 1148) has a through hole (807, 1188) in the heel region; and wherein the posterior portion (54, 1154) of the first plate (40, 240, 640, 840, 1040, 1140) extends through the through hole ( 807, 1188) in the midsole unit and is seated on a foot-facing surface of the midsole unit.
Seeder (1, 101) including a chassis (2, 102) resting on the ground by means of at least two wheels and carrying a tamping roller (5, 105) positioned transversely relative to the direction of advance and seeder elements distributed across the overall working width, the diameter of said wheels being greater than the diameter of said tamping roller (5, 105), characterised in that said tamping roller (5, 105) is comprised of at least two directly adjacent sections (5a, 5b; 5b, 5c) which are positioned in an offset manner relative to each other considering the direction of advance.
A solenoid fluid control valve, comprising: a solenoid coil; an armature movable in response to electrical current applied to the solenoid coil; a valve member for controlling fluid flow to a fluid passage; an actuator pin disposed between the armature and the valve member for moving the valve member in response to armature movement; and a damping member associated with the armature proximate an end thereof so as to move therewith and received in a fluid-containing damping chamber; the fluid-containing damping chamber formed by a tubular actuator pin support body disposed in a housing of said fluid control valve; wherein the actuator pin support body includes a first tubular sleeve section and a second tubular sleeve section; wherein the first tubular sleeve section is disposed about the damping member for forming the damping chamber, and wherein the second tubular sleeve section is narrower than the first tubular sleeve section and disposed about the actuator pin for forming a bearing sleeve that extends coaxially along a longitudinal axis of the actuator pin to receive a first cylindrical end region of the actuator pin in a bearing fit. a solenoid coil; an armature movable in response to electrical current applied to the solenoid coil; a valve member for controlling fluid flow to a fluid passage; an actuator pin disposed between the armature and the valve member for moving the valve member in response to armature movement; and a damping member associated with the armature proximate an end thereof so as to move therewith and received in a fluid-containing damping chamber; the fluid-containing damping chamber formed by a tubular actuator pin support body disposed in a housing of said fluid control valve; wherein the actuator pin support body includes a first tubular sleeve section and a second tubular sleeve section; wherein the first tubular sleeve section is disposed about the damping member for forming the damping chamber, and wherein the second tubular sleeve section is narrower than the first tubular sleeve section and disposed about the actuator pin for forming a bearing sleeve that extends coaxially along a longitudinal axis of the actuator pin to receive a first cylindrical end region of the actuator pin in a bearing fit.
A pallet cover suitable for use in covering at least a portion of a payload on a pallet, the pallet cover comprising: (a) a top wall; (b) a front wall; (c) a rear wall; (d) a left side wall; and (e) a right side wall; (f) the pallet cover being characterized in that at least one of said top wall, said front wall, said rear wall, said left side wall, and said right side wall comprises an inner fabric sheet, an outer fabric sheet, a first plurality of temperature-control members, and at least one insulating member, the first plurality of temperature-control members being disposed between the inner fabric sheet and the outer fabric sheet and comprising at least one phase-change material, the at least one insulating member being disposed between the inner fabric sheet and the outer fabric sheet and comprising foam insulation, the first plurality of temperature-control members arranged to circumscribe at least one void, the at least one insulating member being positioned within the at least one void. (a) a top wall; (b) a front wall; (c) a rear wall; (d) a left side wall; and (e) a right side wall; (f) the pallet cover being characterized in that at least one of said top wall, said front wall, said rear wall, said left side wall, and said right side wall comprises an inner fabric sheet, an outer fabric sheet, a first plurality of temperature-control members, and at least one insulating member, the first plurality of temperature-control members being disposed between the inner fabric sheet and the outer fabric sheet and comprising at least one phase-change material, the at least one insulating member being disposed between the inner fabric sheet and the outer fabric sheet and comprising foam insulation, the first plurality of temperature-control members arranged to circumscribe at least one void, the at least one insulating member being positioned within the at least one void.
A lining structure comprising lining plates (1, 2) each having supporting portions (13, 23) along the entire length of two opposite sides of a square lining plate body (11, 21) via bent step portions (15, 25), and covering portions being flush with the lining plate body on both surfaces thereof along the entire length of the remaining two opposite sides of the lining plate body (11, 21); the lining plates (1, 2) being arranged in longitudinal and transverse directions on a surface to be lined; in the lining plates (1, 2) that are adjacent to each other in longitudinal and transverse directions, a covering portion (15, 25) of one of the lining plates (1, 2) being superposed over the entire length of the supporting portion of, and being butted against a lining plate body of, another of the adjacent lining plates (1, 2), with the butted portion being joined by welding, with an adhesive, or a combination thereof.
A spinal orthosis arranged for securing at least about a spinal area of a wearer, the spinal orthosis including first and second belt members (12, 14), a compression system connecting to the first and second belt members (12, 14), and a back plate securing to the compression system, a cover extending over at least part of the compression system, the cover extending over the back plate, the spinal orthosis comprising: - a posterior panel defining at least one opening (48, 50); - at least one strap engaging the posterior panel at the at least one opening (48, 50), the at least one strap being secured to the cover and the posterior panel, characterized in that the cover defines a pair of vertically extending slits through which two straps of the at least one strap extend, the at least one opening of the posterior panel including two vertically extending openings (48, 50), each of the two straps connecting to a respective one of the slits and the two openings (48, 50). - a posterior panel defining at least one opening (48, 50); - at least one strap engaging the posterior panel at the at least one opening (48, 50), the at least one strap being secured to the cover and the posterior panel, characterized in that the cover defines a pair of vertically extending slits through which two straps of the at least one strap extend, the at least one opening of the posterior panel including two vertically extending openings (48, 50), each of the two straps connecting to a respective one of the slits and the two openings (48, 50).
A coating method, - wherein in a first step for forming a corrosion protection layer, a water-based hybrid lacquer is applied on a metallic carrier element, - wherein in a second step for achieving partial cross-linking, the hybrid lacquer is pre-dried, - wherein in a third step, an adsorbent layer optionally formed from zeolite or silica gel is applied onto the pre-dried partially cross-linked hybrid lacquer, and - wherein in a fourth step, the hybrid lacquer and the adsorbent layer are thermally cured. - wherein in a first step for forming a corrosion protection layer, a water-based hybrid lacquer is applied on a metallic carrier element, - wherein in a second step for achieving partial cross-linking, the hybrid lacquer is pre-dried, - wherein in a third step, an adsorbent layer optionally formed from zeolite or silica gel is applied onto the pre-dried partially cross-linked hybrid lacquer, and - wherein in a fourth step, the hybrid lacquer and the adsorbent layer are thermally cured.