A high pressure gas supply conduit and method of use thereof

Abstract

The application belongs to the technical field of gas supply pipeline, and particularly relates to a high-pressure gas supply pipeline and a use method thereof. The generation of condensate water on the wall of the high-pressure pipeline is inevitable due to the influence of natural phenomena and conveying characteristics. The influence of the condensate water on the outer wall of the pipeline is continuous and has great destructive power, which easily causes corrosion of the outer part of the pipeline. The material of the pipeline is metal, and the anticorrosive layer of the outer part of the pipeline is damaged due to long-term erosion of the condensate water, which causes rust of the components and directly leads to the shortening of the service life of the pipeline system. The application discloses the high-pressure gas supply pipeline and the use method thereof, which have the effect of avoiding the long-term erosion of the condensate water on the pipeline body, reducing the damage of the anticorrosive layer of the outer part of the pipeline, causing rust of the components, and thus improving the service life of the pipeline system.

Description

Technical Field

[0001] This invention relates to the field of gas supply pipeline technology, and in particular to a high-pressure gas supply pipeline and its usage method. Background Technology

[0002] The gas propulsion system of the final assembly and testing area includes a high-pressure air supply system, a high-pressure nitrogen supply system, a high-pressure helium supply system, and a process equipment control system. It is used to provide the required air, nitrogen, and helium media for the rocket assembly plant (final assembly and transfer area, vertical testing area), component manufacturing and turnover plant, and the second-phase garage.

[0003] Due to natural phenomena and transportation characteristics, the generation of condensate on the walls of high-pressure pipelines is unavoidable. This condensate has a continuous and destructive impact on the outer wall of the pipeline, easily causing corrosion. Since the pipeline material is metal, long-term exposure to condensate will damage the anti-corrosion layer on the outside of the pipeline, causing rust on the components, thus directly shortening the service life of the pipeline system. Summary of the Invention

[0004] This invention discloses a high-pressure gas supply pipeline and its usage method, aiming to solve the technical problem in the background art where the generation of condensate on the pipe wall of high-pressure pipelines is unavoidable due to the influence of natural phenomena and transportation characteristics. This condensate has a continuous and destructive impact on the outer wall of the pipeline, easily causing corrosion on the pipeline exterior. Since the pipeline material is metal, long-term exposure to condensate will damage the anti-corrosion layer on the pipeline exterior, causing rust on components, thereby directly leading to a shortened service life of the pipeline system.

[0005] This invention proposes a high-pressure gas supply pipeline, comprising a tooling plate, an anti-corrosion module on top of the tooling plate, and the anti-corrosion module including a fixing seat. A sliding groove is formed on the tooling plate, and an adjusting slide is slidably connected inside the sliding groove. Two mounting slots are formed on the side of the tooling plate, and an electric drive rod is fixedly connected inside each of the two mounting slots. The driving end of the electric drive rod is fixedly connected to the side of the adjusting slide. Two support blocks are fixedly connected to the tooling plate, and each of the two support blocks has two circular holes on its side. A rotating shaft is connected inside each of the circular holes via bearings. An arc-shaped mounting plate is fixedly connected to the outside of each of the rotating shafts. Each of the arc-shaped mounting plates has screw holes, and the same locking bolt is screwed into two screw holes on the same side.

[0006] In a preferred embodiment, hollow arc-shaped air-blowing frames are fixedly connected to the arc surfaces of multiple arc-shaped mounting plates, and air holes are equally spaced on the arc surfaces of multiple hollow arc-shaped air-blowing frames. A connecting hole is provided on the side of each of the multiple hollow arc-shaped air-blowing frames. The same telescopic connecting pipe is fixedly connected inside two connecting holes on the same side. A pump body is fixedly connected to the adjusting slide, and the air-blowing end of the pump body is connected to the interior of two of the hollow arc-shaped air-blowing frames via a blower hose.

[0007] In a preferred embodiment, the outer surfaces of the plurality of arc-shaped mounting plates are connected to the same rotating mounting frame via bearings, and a linkage toothed rod is fixedly connected to the outer surface of the rotating mounting frame. Telescopic springs are fixedly connected at equal intervals to the inner wall of the rotating mounting frame, and abutment plates are fixedly connected to the other ends of the plurality of telescopic springs. Two circular holes are opened on both sides of the plurality of abutment plates, and a rotating shaft is connected to the interior of two opposing circular holes via bearings. Pulleys are fixedly connected to the outer surfaces of the plurality of rotating shafts, and a frosted belt is slidably connected to the outer surfaces of every two pulleys.

[0008] In a preferred embodiment, a tooling block is bolted to the adjusting slide, and two circular holes are provided on both sides of the tooling block. The two circular holes are connected to the same rotating shaft 2 through bearings. A T-shaped adjusting toothed plate is fixedly connected to the outside of the rotating shaft 2. The toothed end of the T-shaped adjusting toothed plate meshes with the linkage circular toothed rod. A slide rail is provided on the side of the T-shaped adjusting toothed plate.

[0009] In a preferred embodiment, a drive motor is fixedly connected to the fixed base, and a rotating push rod is fixedly connected to the drive end of the drive motor. A circular hole four is opened on the side of the rotating push rod, and a rotating shaft three is connected to the inside of the circular hole four through a bearing. A limiting push roller is fixedly connected to the outside of the rotating shaft three. The limiting push roller slides in the slide rail, and the inner wall of multiple arc-shaped mounting plates is provided with the same air supply pipe body.

[0010] Equipped with an anti-corrosion module, when the gas supply pipeline is used outdoors, if a significant amount of condensation adheres to its exterior, the locking bolts are tightened until the two arc-shaped mounting plates are loose. Then, the pump is started, and air is blown into the hollow arc-shaped air-blowing frame through the air-blowing hose. This causes the air-blowing holes on the hollow arc-shaped air-blowing frame to bulge towards the outer wall of the gas supply pipeline, thus removing the condensation. Simultaneously, the electric drive rod is activated, moving the adjusting slide horizontally on the tooling plate to evenly treat the condensation on the outer wall of the gas supply pipeline. After treatment, the locking bolts are tightened, allowing the arc-shaped... The abrasive strip on the rotating mounting frame of the mounting plate is attached to the outer wall of the gas supply pipeline. Then, the drive motor is started, which drives the limit roller on the rotating push rod to move back and forth in the slide of the T-shaped adjusting tooth plate. This causes the toothed end of the T-shaped adjusting tooth plate to move back and forth in an arc shape. The T-shaped adjusting tooth plate drives the linkage round tooth rod, which makes the abrasive strip in the rotating mounting frame evenly polish the rusted parts of the outer wall of the gas supply pipeline. Through the anti-corrosion module, the gas supply pipeline body is prevented from being corroded by condensate for a long time, reducing the damage to the external anti-corrosion layer of the pipeline and the corrosion of the components, thereby extending the service life of the pipeline system.

[0011] In a preferred embodiment, the tooling plate is provided with a clamping module, and the clamping module includes a mounting base. Multiple guide rails are bolted to the tooling plate, and clamping slides are slidably connected inside the multiple guide rails. Clamping fixing seats are bolted to the multiple clamping slides.

[0012] In a preferred embodiment, each of the plurality of clamping slides is provided with a circular hole five, and the interior of each of the plurality of circular holes five is connected to a rotating shaft four via bearings. Two circular holes six are provided on the tooling plate, and the interior of each of the two circular holes six is ​​connected to a rotating cylinder via bearings. Locking circular plates are fixedly connected to the exterior of each of the two rotating cylinders. Two circular holes seven are provided on each of the two locking circular plates away from their center, and the interior of each of the plurality of circular holes seven is connected to a rotating shaft five via bearings. The rotating shaft five and the exterior of the rotating shaft four are movably connected to the same push-pull rod. A universal motor is fixedly connected to each of the two mounting bases, and the drive end of the universal motor is connected to one end of the rotating cylinder via a coupling.

[0013] By incorporating a clamping module, when installing and fixing the gas supply pipeline body, the clamping position of the clamping fixing seat is adjusted according to the pipe diameter. By activating a universal motor, the rotating shaft on the locking plate rotates, causing the push-pull rod to slide the clamping slide inside the guide rail, thereby adjusting the position of the clamping fixing seat. This allows for the clamping of gas supply pipeline bodies of different diameters, improving the clamping and fixing effect.

[0014] In a preferred embodiment, the bottom of the tooling plate is provided with a vibration damping module, and the vibration damping module includes a base plate, on which damping springs are fixedly connected at equal intervals. The other end of the damping springs is fixedly connected to the bottom of the tooling plate. Two fixing blocks are connected to the base plate by bolts, and the same limiting round rod is fixedly connected to the opposite side of the two fixing blocks.

[0015] In a preferred embodiment, the limiting round rod is externally slidably connected to two buffer blocks, and the same buffer spring is fixedly connected to the opposite side of the two buffer blocks. The buffer spring surrounds the outside of the limiting round rod. Both sides of the two buffer blocks are provided with round holes eight. The interior of the multiple round holes eight is connected to a rotating shaft six through bearings. The bottom of the tooling plate is connected to two fixing blocks two by bolts. The sides of the two fixing blocks two are provided with round holes nine. The interior of the two round holes nine is connected to a rotating shaft seven through bearings. The rotating shaft seven and the external of the rotating shaft six are movably connected to a buffer support rod.

[0016] By incorporating a vibration damping module, when the gas supply pipeline is used outdoors and encounters external vibrations, the vibration damping springs buffer the impact. At this time, the vibration damping springs are compressed, and the buffer support rod drives the buffer block to move relative to the limiting round rod, thereby compressing the buffer springs and reducing their rebound force, thus making the gas supply pipeline safer to use.

[0017] A method of using a high-pressure gas supply pipeline, comprising the following steps: Step 1: When the gas supply pipeline is used outdoors, if a lot of condensate water adheres to the outside of the gas supply pipeline, tighten the locking bolts until the two arc-shaped mounting plates are loose. Then start the pump body and blow air into the hollow arc-shaped air-blowing frame through the air-blowing hose. This causes the air-blowing holes on the hollow arc-shaped air-blowing frame to blow towards the outer wall of the gas supply pipeline, thereby removing the condensate water adhering to the outer wall of the gas supply pipeline. Step 2: Simultaneously start the electric drive rod to move the adjusting slide horizontally on the tooling plate, so as to evenly treat the condensate on the outer wall of the gas supply pipeline. Step 3: After processing, tighten the locking bolts so that the abrasive strip on the rotating mounting frame of the arc-shaped mounting plate adheres to the outer wall of the gas supply pipe. Then, start the drive motor, which drives the limit roller on the rotating push rod to move back and forth in the slide of the T-shaped adjusting tooth plate. This causes the toothed end of the T-shaped adjusting tooth plate to move back and forth in an arc shape, which in turn drives the linkage round tooth rod to make the abrasive strip in the rotating mounting frame evenly polish the rusted parts of the outer wall of the gas supply pipe.

[0018] As can be seen from the above, the high-pressure gas supply pipeline provided by the present invention has the beneficial effect of avoiding the gas supply pipeline body from being corroded by condensate for a long time, reducing the damage to the anti-corrosion layer on the outside of the pipeline, causing rust to the components, thereby improving the service life of the pipeline system. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the main structure of a high-pressure gas supply pipeline proposed in this invention; Figure 2 This is a schematic diagram of the inclined side structure of a high-pressure gas supply pipeline proposed in this invention; Figure 3 This is a side view of a high-pressure gas supply pipeline proposed in this invention. Figure 4 This is a schematic diagram of the anti-corrosion module structure for a high-pressure gas supply pipeline proposed in this invention. Figure 5 This is a schematic diagram of the anti-corrosion module structure of a high-pressure gas supply pipeline proposed in this invention. Figure 6 for Figure 4 A magnified structural diagram of part A; Figure 7 This is a schematic diagram of a clamping module structure for a high-pressure gas supply pipeline proposed in this invention. Figure 8 for Figure 7 A schematic diagram of the enlarged structure of part B; Figure 9 This is a schematic diagram of a vibration reduction module structure for a high-pressure gas supply pipeline proposed in this invention. Figure 10 for Figure 9 A magnified structural diagram of part C.

[0020] In the diagram: 1. Tooling plate; 2. Gas supply pipeline body; 3. Corrosion-resistant module; 301. Adjusting slide; 302. Support block; 303. Rotating shaft; 304. Arc-shaped mounting plate; 305. Locking bolt; 306. Rotating mounting frame; 307. Linkage gear rod; 308. Hollow arc-shaped air-blowing frame; 309. Telescopic connecting pipe; 310. Air-blowing hose; 311. Pump body; 312. Telescopic spring; 313. Support plate; 314. Rotating shaft one; 315. Frosted belt; 316. Electric drive rod; 317. Tooling block; 318. Rotating shaft two; 319. T-shaped adjusting gear plate; 320. Fixed seat; 321. Rotating push rod; 322. Rotating shaft three; 323. Limiting push roller; 324. Drive motor; 4. Clamping module; 401. Rotating cylinder; 402. Locking round plate; 403. Guide rail; 404. Clamping slide; 405. Rotating shaft four; 406. Rotating shaft five; 407. Push-pull rod; 408. Clamping fixing seat; 409. Mounting seat; 410. Universal motor; 5. Vibration damping module; 501. Inserting plate; 502. Fixing block one; 503. Buffer spring; 504. Limiting round rod; 505. Buffer stop block; 506. Rotating shaft six; 507. Buffer support rod; 508. Fixing block two; 509. Rotating shaft seven; 510. Shock-absorbing spring. Detailed Implementation

[0021] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments.

[0022] The high-pressure gas supply pipeline disclosed in this invention is mainly used in scenarios where the generation of condensate on the pipe wall is unavoidable due to natural phenomena and transportation characteristics. This condensate has a continuous and destructive impact on the outer wall of the pipeline, easily causing corrosion on the outside of the pipeline. Since the pipeline material is metal, long-term exposure to condensate will damage the anti-corrosion layer on the outside of the pipeline, causing rust on the components, thereby directly leading to a shortened service life of the pipeline system.

[0023] Reference Figures 1-6A high-pressure gas supply pipeline includes a tooling plate 1, an anti-corrosion module 3 on the top of the tooling plate 1, and the anti-corrosion module 3 including a fixed seat 320. The tooling plate 1 has a sliding groove, and an adjusting slide 301 is slidably connected inside the sliding groove. Two mounting slots are opened on the side of the tooling plate 1, and an electric drive rod 316 is fixedly connected inside the two mounting slots. The driving end of the electric drive rod 316 is fixedly connected to the side of the adjusting slide 301. Two support blocks 302 are fixedly connected on the tooling plate 1, and two circular holes are opened on the side of each of the two support blocks 302. A rotating shaft 303 is connected inside the multiple circular holes through bearings. An arc-shaped mounting plate 304 is fixedly connected to the outside of the multiple rotating shafts 303. A screw hole is opened on the multiple arc-shaped mounting plates 304, and the same locking bolt 305 is screwed into the two screw holes on the same side.

[0024] Reference Figures 1-6 A hollow arc-shaped air-blowing frame 308 is fixedly connected to the arc-shaped surface of multiple arc-shaped mounting plates 304, and air holes are opened at equal intervals on the arc-shaped surface of multiple hollow arc-shaped air-blowing frames 308. A connecting hole is opened on the side of multiple hollow arc-shaped air-blowing frames 308, and the same telescopic connecting pipe 309 is fixedly connected inside the two connecting holes on the same side. A pump body 311 is fixedly connected to the adjusting slide 301, and the air-blowing end of the pump body 311 is connected to the inside of two of the hollow arc-shaped air-blowing frames 308 through an air-blowing hose 310.

[0025] Reference Figures 1-6 Multiple arc-shaped mounting plates 304 are externally connected to the same rotating mounting frame 306 via bearings. A linkage toothed rod 307 is fixedly connected to the outside of the rotating mounting frame 306. Telescopic springs 312 are fixedly connected at equal intervals to the inner wall of the rotating mounting frame 306. A stop plate 313 is fixedly connected to the other end of each of the multiple telescopic springs 312. Two circular holes are opened on both sides of each of the multiple stop plates 313. A rotating shaft 314 is connected to the inside of each of the two opposite circular holes via bearings. A pulley is fixedly connected to the outside of each of the multiple rotating shafts 314. A frosted belt 315 is slidably connected to the outside of each pair of pulleys.

[0026] Reference Figures 1-6 The adjusting slide block 301 is bolted to a tooling block 317, and both sides of the tooling block 317 are provided with round holes three. The two round holes three are connected to the same rotating shaft two 318 through bearings. The rotating shaft two 318 is fixedly connected to the outside of a T-shaped adjusting toothed plate 319. The toothed end of the T-shaped adjusting toothed plate 319 meshes with the linkage round toothed rod 307. The side of the T-shaped adjusting toothed plate 319 is provided with a slide rail.

[0027] Reference Figures 1-6A drive motor 324 is fixedly connected to the fixed base 320, and a rotating push rod 321 is fixedly connected to the drive end of the drive motor 324. A circular hole four is opened on the side of the rotating push rod 321. A rotating shaft three 322 is connected to the inside of the circular hole four through a bearing. A limiting push roller 323 is fixedly connected to the outside of the rotating shaft three 322. The limiting push roller 323 slides in the slide rail. The inner wall of multiple arc-shaped mounting plates 304 is provided with the same air supply pipe body 2.

[0028] In specific application scenarios, when the gas supply pipe body 2 is used outdoors, if a large amount of condensate adheres to the outside of the gas supply pipe body 2, the locking bolts 305 are tightened until the two arc-shaped mounting plates 304 are relatively loose. Then, the pump body 311 is started. The pump body 311 blows air into the hollow arc-shaped air-blowing frame 308 through the air-blowing hose 310, causing the air-blowing holes on the hollow arc-shaped air-blowing frame 308 to blow towards the outer wall of the gas supply pipe body 2, thereby removing the condensate adhering to the outer wall of the gas supply pipe body 2. At the same time, the electric drive rod 316 is activated to drive the adjusting slide 301 to move horizontally on the tooling plate 1, thereby evenly distributing the condensate on the outer wall of the gas supply pipe body 2. After processing, tighten the locking bolts 305, so that the abrasive strip 315 on the rotating mounting frame 306 on the arc mounting plate 304 adheres to the outer wall of the gas supply pipe body 2. Then, start the drive motor 324, which drives the limiting push roller 323 on the rotating push rod 321 to move back and forth in the slide of the T-shaped adjusting tooth plate 319. This causes the tooth block end of the T-shaped adjusting tooth plate 319 to move back and forth in an arc shape, which in turn causes the T-shaped adjusting tooth plate 319 to drive the linkage round tooth rod 307 to make the abrasive strip 315 in the rotating mounting frame 306 evenly polish the rusted parts of the outer wall of the gas supply pipe body 2.

[0029] Reference Figure 1 , Figure 7 and Figure 8 The tooling plate 1 is provided with a clamping module 4, and the clamping module 4 includes a mounting base 409. Multiple guide rails 403 are bolted to the tooling plate 1. Clamping slides 404 are slidably connected inside the multiple guide rails 403. Clamping fixing seats 408 are bolted to the multiple clamping slides 404.

[0030] Reference Figure 1 , Figure 7 and Figure 8Each of the multiple clamping slides 404 has a circular hole five, and the interior of each of the multiple circular holes five is connected to a rotating shaft four 405 via bearings. The tooling plate 1 has two circular holes six, and the interior of each of the two circular holes six is ​​connected to a rotating cylinder 401 via bearings. The exterior of each of the two rotating cylinders 401 is fixedly connected to a locking circular plate 402. The two locking circular plates 402 have two circular holes seven at positions away from their centers. The interior of each of the multiple circular holes seven is connected to a rotating shaft five 406 via bearings. The exterior of the rotating shaft five 406 and the rotating shaft four 405 is movably connected to the same push-pull rod 407. Each of the two mounting seats 409 is fixedly connected to a universal motor 410, and the drive end of the universal motor 410 is connected to one end of the rotating cylinder 401 via a coupling.

[0031] In specific application scenarios, when installing and fixing the gas supply pipe body 2, the clamping position of the clamping fixing seat 408 is adjusted according to the pipe diameter of the gas supply pipe body 2. By starting the general motor 410, the general motor 410 drives the rotating shaft 406 on the locking round plate 402 to rotate, thereby causing the push-pull rod 407 to drive the clamping slide 404 to slide inside the guide rail 403, thereby adjusting the position of the clamping fixing seat 408. This allows for clamping of gas supply pipe bodies 2 with different pipe diameters, improving the clamping and fixing effect.

[0032] Reference Figure 1 , Figure 9 and Figure 10 The bottom of the tooling plate 1 is provided with a vibration damping module 5, and the vibration damping module 5 includes a base plate 501. The base plate 501 is fixedly connected with damping springs 510 at equal intervals. The other end of the damping springs 510 is fixedly connected to the bottom of the tooling plate 1. The base plate 501 is connected with two fixing blocks 502 by bolts. The same limiting round rod 504 is fixedly connected to the opposite side of the two fixing blocks 502.

[0033] Reference Figure 1 , Figure 9 and Figure 10 Two buffer blocks 505 are slidably connected to the outside of the limiting round rod 504, and the same buffer spring 503 is fixedly connected to the opposite side of the two buffer blocks 505. The buffer spring 503 surrounds the outside of the limiting round rod 504. Two round holes 8 are opened on both sides of the two buffer blocks 505. The interior of the multiple round holes 8 is connected to the rotating shaft 6 506 through bearings. Two fixing blocks 2 508 are bolted to the bottom of the tooling plate 1. Two round holes 9 are opened on the side of the two fixing blocks 2 508. The interior of the two round holes 9 is connected to the rotating shaft 7 509 through bearings. The external of the rotating shaft 7 509 and the rotating shaft 6 506 is movably connected to the buffer support rod 507.

[0034] In specific application scenarios, when the gas supply pipeline body 2 is used outdoors, when it encounters external vibrations, the vibration is buffered by the shock-absorbing spring 510. At this time, the shock-absorbing spring 510 is compressed, and at the same time, the buffer support rod 507 drives the buffer block 505 to move relative to the limiting round rod 504, thereby compressing the buffer spring 503, reducing the rebound force of the shock-absorbing spring 510, thus making the gas supply pipeline body 2 safer to use.

[0035] A method of using a high-pressure gas supply pipeline, comprising the following steps: Step 1: When the gas supply pipe body 2 is used outdoors, if a lot of condensate water adheres to the outside of the gas supply pipe body 2, tighten the locking bolt 305 until the two arc-shaped mounting plates 304 are relatively loose. Then start the pump body 311. The pump body 311 blows air into the hollow arc-shaped air blowing frame 308 through the air blowing hose 310, so that the air blowing holes on the hollow arc-shaped air blowing frame 308 blow towards the outer wall of the gas supply pipe body 2, thereby removing the condensate water adhering to the outer wall of the gas supply pipe body 2. Step 2: Simultaneously start the electric drive rod 316 to drive the adjusting slide 301 to move horizontally on the tooling plate 1, so as to uniformly treat the condensate on the outer wall of the gas supply pipeline body 2. Step 3: After processing, tighten the locking bolt 305, so that the abrasive strip 315 on the rotating mounting frame 306 on the arc mounting plate 304 adheres to the outer wall of the gas supply pipe body 2. Then, start the drive motor 324, which drives the limiting push roller 323 on the rotating push rod 321 to move back and forth in the slide of the T-shaped adjusting tooth plate 319. This causes the tooth block end of the T-shaped adjusting tooth plate 319 to move back and forth in an arc shape, thereby causing the T-shaped adjusting tooth plate 319 to drive the linkage round tooth rod 307 to make the abrasive strip 315 in the rotating mounting frame 306 evenly polish the rusted parts of the outer wall of the gas supply pipe body 2.

[0036] Working principle: When installing and fixing the gas supply pipe body 2, the clamping position of the clamping fixing seat 408 is adjusted according to the pipe diameter of the gas supply pipe body 2. By starting the general motor 410, the general motor 410 drives the rotating shaft 406 on the locking plate 402 to rotate, thereby causing the push-pull rod 407 to drive the clamping slide 404 to slide inside the guide rail 403, thus adjusting the position of the clamping fixing seat 408. This allows for clamping of gas supply pipe bodies 2 with different pipe diameters, improving the clamping and fixing effect. When the main body 2 is used outdoors, if a lot of condensate adheres to the outside of the gas supply pipe main body 2, tighten the locking bolts 305 until the two arc-shaped mounting plates 304 are loose. Then start the pump body 311. The pump body 311 blows air into the hollow arc-shaped air blowing frame 308 through the air blowing hose 310, causing the air blowing holes on the hollow arc-shaped air blowing frame 308 to blow towards the outer wall of the gas supply pipe main body 2, thereby removing the condensate adhering to the outer wall of the gas supply pipe main body 2. At the same time, start the electric drive rod 316 to drive the adjusting slide 301 to move horizontally on the tooling plate 1, thereby ensuring even distribution of air. The condensate on the outer wall of the gas supply pipe body 2 is treated. After treatment, the locking bolt 305 is tightened, so that the frosted strip 315 on the rotating mounting frame 306 on the arc-shaped mounting plate 304 adheres to the outer wall of the gas supply pipe body 2. Then, the drive motor 324 is started, which drives the limiting push roller 323 on the rotating push rod 321 to reciprocate within the slide rail on the T-shaped adjusting tooth plate 319. This causes the tooth block end of the T-shaped adjusting tooth plate 319 to reciprocate in an arc shape, thereby causing the T-shaped adjusting tooth plate 319 to drive the linkage round tooth. The rod 307 causes the abrasive belt 315 inside the rotating mounting frame 306 to evenly polish the rusted parts on the outer wall of the gas supply pipe body 2. When the gas supply pipe body 2 is used outdoors, when it encounters external vibration, the shock-absorbing spring 510 buffers the vibration. At this time, the shock-absorbing spring 510 is compressed, and at the same time, the buffer support rod 507 drives the buffer block 505 to move relative to the limiting round rod 504, thereby compressing the buffer spring 503 and reducing the rebound force of the shock-absorbing spring 510, thus making the gas supply pipe body 2 safer to use.

[0037] The above description is only a preferred embodiment of the present invention, but the scope of protection of the present invention is not limited thereto. Any equivalent substitutions or modifications made by those skilled in the art within the scope of the technology disclosed in the present invention, based on the technical solution and inventive concept of the present invention, should be covered within the scope of protection of the present invention.

Claims

1. A high-pressure gas supply pipeline, comprising a tooling plate (1), characterized in that, The tooling plate (1) is provided with an anti-corrosion module (3), and the anti-corrosion module (3) includes a fixed seat (320). The tooling plate (1) is provided with a sliding groove, and an adjusting slide (301) is slidably connected inside the sliding groove. The tooling plate (1) has two mounting slots on its side, and an electric drive rod (316) is fixedly connected inside the two mounting slots. The drive end of the electric drive rod (316) is fixedly connected to the side of the adjusting slide (301). The adjusting slide (301) is fixedly connected with two support blocks (302), and two round holes are provided on the side of each of the two support blocks (302). The interior of each of the multiple round holes is connected to a rotating shaft (303) through a bearing. The exterior of each of the multiple rotating shafts (303) is fixedly connected with an arc-shaped mounting plate (304). The multiple arc-shaped mounting plates (304) are provided with screw holes, and the same locking bolt (305) is screwed into the interior of two screw holes on the same side. Hollow arc-shaped air-blowing frames (308) are fixedly connected to the arc surfaces of multiple arc-shaped mounting plates (304), and air-blowing holes are opened at equal intervals on the arc surfaces of multiple hollow arc-shaped air-blowing frames (308). A connecting hole is opened on the side of multiple hollow arc-shaped air-blowing frames (308). The same telescopic connecting pipe (309) is fixedly connected inside the two connecting holes on the same side. A pump body (311) is fixedly connected to the adjusting slide (301). The air-blowing end of the pump body (311) is connected to the inside of two of the hollow arc-shaped air-blowing frames (308) through an air-blowing hose (310). Multiple arc-shaped mounting plates (304) are externally connected to the same rotating mounting frame (306) via bearings. A linkage toothed rod (307) is fixedly connected to the outside of the rotating mounting frame (306). Telescopic springs (312) are fixedly connected at equal intervals to the inner wall of the rotating mounting frame (306). A stop plate (313) is fixedly connected to the other end of each of the multiple telescopic springs (312). Two circular holes are opened on both sides of each of the multiple stop plates (313). A rotating shaft (314) is connected to the inside of each of the two opposing circular holes (313) via bearings. A pulley is fixedly connected to the outside of each of the multiple rotating shafts (314). A frosted belt (315) is slidably connected to the outside of each pair of pulleys. The inner walls of multiple arc-shaped mounting plates (304) are provided with the same gas supply pipe body (2).

2. A high-pressure gas supply pipeline according to claim 1, characterized in that, The adjusting slide (301) is bolted to a tooling block (317), and two round holes (3) are provided on both sides of the tooling block (317). The two round holes (3) are connected to the same rotating shaft (318) through bearings. A T-shaped adjusting toothed plate (319) is fixedly connected to the outside of the rotating shaft (318). The toothed end of the T-shaped adjusting toothed plate (319) meshes with the linkage round toothed rod (307). A slide is provided on the side of the T-shaped adjusting toothed plate (319).

3. A high-pressure gas supply pipeline according to claim 2, characterized in that, A drive motor (324) is fixedly connected to the fixed base (320), and a rotating push rod (321) is fixedly connected to the drive end of the drive motor (324). A circular hole four is opened on the side of the rotating push rod (321), and a rotating shaft three (322) is connected to the inside of the circular hole four through a bearing. A limiting push roller (323) is fixedly connected to the outside of the rotating shaft three (322), and the limiting push roller (323) slides in the slide.

4. A high-pressure gas supply pipeline according to claim 1, characterized in that, The tooling plate (1) is provided with a clamping module (4), and the clamping module (4) includes a mounting base (409). Multiple guide rails (403) are bolted to the tooling plate (1). Clamping slides (404) are slidably connected inside the multiple guide rails (403). Clamping fixing seats (408) are bolted to the multiple clamping slides (404).

5. A high-pressure gas supply pipeline according to claim 4, characterized in that, Each of the clamping slides (404) has a circular hole five, and the interior of each of the circular holes five is connected to a rotating shaft four (405) through a bearing. The tooling plate (1) has two circular holes six, and the interior of each of the two circular holes six is ​​connected to a rotating cylinder (401) through a bearing. The exterior of each of the two rotating cylinders (401) is fixedly connected to a locking circular plate (402). The two locking circular plates (402) have two circular holes seven at positions away from their center. The interior of each of the circular holes seven is connected to a rotating shaft five (406) through a bearing. The exterior of the rotating shaft five (406) and the rotating shaft four (405) is movably connected to the same push-pull rod (407). A universal motor (410) is fixedly connected to each of the two mounting seats (409). The drive end of the universal motor (410) is connected to one end of the rotating cylinder (401) through a coupling.

6. A high-pressure gas supply pipeline according to claim 1, characterized in that, The bottom of the tooling plate (1) is provided with a vibration damping module (5), and the vibration damping module (5) includes a base plate (501). The base plate (501) is fixedly connected with damping springs (510) at equal distances. The other end of the damping springs (510) is fixedly connected to the bottom of the tooling plate (1). The base plate (501) is connected with two fixing blocks (502) by bolts. The two fixing blocks (502) are fixedly connected to the same limiting round rod (504) on opposite sides.

7. A high-pressure gas supply pipeline according to claim 6, characterized in that, The limiting round rod (504) has two buffer blocks (505) slidably connected to its exterior. The two buffer blocks (505) are fixedly connected to the same buffer spring (503) on opposite sides. The buffer spring (503) surrounds the limiting round rod (504). Two round holes (8) are provided on both sides of the two buffer blocks (505). The interior of the multiple round holes (8) is connected to the rotating shaft (6) (506) through bearings. The bottom of the tooling plate (1) is connected to two fixing blocks (2) (508) by bolts. The sides of the two fixing blocks (2) (508) are provided with round holes (9). The interior of the two round holes (9) is connected to the rotating shaft (7) (509) through bearings. The rotating shaft (7) (509) and the rotating shaft (6) (506) are movably connected to the exterior of the rotating shaft (6) (506) with a buffer support rod (507).

8. A method of using a high-pressure gas supply pipeline, comprising using a high-pressure gas supply pipeline as described in claim 3, characterized in that, Includes the following steps: Step 1: When the gas supply pipe body (2) is used outdoors, when a lot of condensate water adheres to the outside of the gas supply pipe body (2), tighten the locking bolt (305) until the two arc-shaped mounting plates (304) are loose, and then start the pump body (311). The pump body (311) blows air into the hollow arc-shaped air-blowing frame (308) through the air-blowing hose (310), so that the air-blowing holes on the hollow arc-shaped air-blowing frame (308) blow towards the outer wall of the gas supply pipe body (2), thereby causing the condensate water adhering to the outer wall of the gas supply pipe body (2) to detach. Step 2: Simultaneously start the electric drive rod (316) to drive the adjusting slide (301) to move horizontally on the tooling plate (1), so as to uniformly treat the condensate on the outer wall of the gas supply pipeline body (2); Step 3: After processing, tighten the locking bolt (305) so that the abrasive belt (315) on the rotating mounting frame (306) on the arc mounting plate (304) is attached to the outer wall of the gas supply pipeline body (2). Then start the drive motor (324). The drive motor (324) drives the limiting push roller (323) on the rotating push rod (321) to move back and forth in the slide on the T-shaped adjusting tooth plate (319). This causes the tooth block end of the T-shaped adjusting tooth plate (319) to move back and forth in an arc shape. This causes the T-shaped adjusting tooth plate (319) to drive the linkage round tooth rod (307) so that the abrasive belt (315) in the rotating mounting frame (306) evenly polishes the rusted parts of the outer wall of the gas supply pipeline body (2).

Images