Coating stainless steel pipe leakage testing device

Abstract

The invention discloses a coating stainless steel pipe leakage testing device, and relates to the technical field of equipment detection, the coating stainless steel pipe leakage testing device comprises a feeding mechanism, a separation mechanism and a detection mechanism, the separation mechanism and the detection mechanism are installed on the feeding mechanism, the feeding mechanism and the detection mechanism are in linkage operation, the feeding mechanism comprises a detection support, and transfer shells are symmetrically arranged on the detection support; a spline shaft is rotatably installed between the two transfer shells, the spline shaft is matched with splines of the conveying wheels, a plurality of partition pieces are evenly arranged on the conveying wheels, the partition pieces make contact with the inner walls of the arc-shaped positions of the transfer shells, each conveying wheel is rotatably connected with a pushing disc, and the pushing discs are slidably installed in the transfer shells; by designing the feeding mechanism, the separating mechanism and the detecting mechanism, full-automatic leakage testing of stainless steel pipes is achieved, unqualified products are sorted and marked, and the working efficiency is high.

Description

Technical Field

[0001] The invention relates to the technical field of equipment detection, and in particular to a coating stainless steel pipe leakage testing device. Background Art

[0002] Although stainless steel has a certain degree of corrosion resistance, it may still rust under certain circumstances. By coating stainless steel, the surface hardness can be improved, scratches and wear can be reduced, and the service life of stainless steel can be extended. In order to improve product quality, stainless steel pipes need to be tested for leakage before leaving the factory. There are many ways to detect whether stainless steel has leaks. One of them is to test the air tightness through a water pressure test. Specifically, both ends of the pipe are closed, one end is connected to a pressure test pump, and the steel pipe is placed in water and ventilated to observe the pressure value changes and the presence of bubbles.

[0003] At present, there are semi-automatic air tightness detection equipment on the market. Workers need to manually sort qualified products and unqualified products during the detection, pick out the unqualified products and then spray reagents at the leakage points. This method consumes a lot of workers' physical strength and has low work efficiency. Therefore, the present invention provides a coated stainless steel pipe leakage test device. Summary of the invention

[0004] The present invention aims at the defects in the prior art and provides a coating stainless steel pipe leakage testing device to overcome the problems in the prior art.

[0005] The technical solution adopted by the present invention is: a coated stainless steel pipe leakage test device, including a feeding mechanism and a separation mechanism and a detection mechanism installed on the feeding mechanism, the feeding mechanism and the detection mechanism operate in linkage, the feeding mechanism includes a detection bracket, a transfer shell is symmetrically arranged on the detection bracket, a spline shaft is rotatably installed between the two transfer shells, the spline shaft is spline-matched with a transmission wheel, a plurality of partition plates are evenly arranged on the transmission wheel, the partition plates are in contact with the inner wall of the transfer shell at an arc position, each transmission wheel is rotatably connected to a push disk, and the push disk is slidably installed in the transfer shell; the spline shaft is coaxially fixedly connected to the feeding gear, the feeding gear is matched with the incomplete feeding gear, and the incomplete feeding gear is connected to the feeding reciprocating wire The rods are coaxially fixedly connected, and a section of thread is respectively provided at both ends of the feeding reciprocating screw, and each section of the thread is respectively matched with a center push plate thread. Every time the feeding reciprocating screw rotates one circle, the center push plate is driven to reciprocate once, and the two center push plates move synchronously, and the moving directions are relative or reverse. Each center push plate is connected to a push disk through a give way spring. The feeding reciprocating screw is coaxially fixedly connected with the feeding gear, and the feeding gear cooperates with the incomplete feeding gear. The gear shaft of the incomplete feeding gear is connected to the disc through a belt. An eccentric column is provided at the eccentric position of the disc, and the eccentric column is rotatably connected to the first end of the detection connecting rod, and the second end of the detection connecting rod is rotatably installed on the lifting frame, and the lifting frame is slidably installed on the detection bracket.

[0006] Furthermore, discharge ports are respectively arranged on both sides of the transfer shell, one of which is used for feeding, and the other is adjacent to the guide inclined plate, which is inclinedly arranged on the detection bracket.

[0007] Furthermore, a detection slide 1 and a detection slide 2 are slidably installed on the lifting frame, and the detection slide 1 and the detection slide 2 move synchronously relative to or in opposite directions. An air pump is installed on the detection slide 1, and an air pipe is installed on the air pump. A sealing gasket is installed on the detection slide 1 and the detection slide 2 respectively, and the positions of the two sealing gaskets correspond. Adjustment components are symmetrically arranged at both ends of the lifting frame.

[0008] Furthermore, the adjustment assembly includes an adjustment seat fixedly mounted on the lifting frame, an adjustment screw is rotatably mounted on the adjustment seat, the adjustment screw is threadedly connected to the mounting block, the mounting block is slidably mounted in the adjustment seat, a rotating shaft is rotatably mounted between the mounting blocks in the two groups of adjustment assemblies, and a "V"-shaped limit plate is provided on the rotating shaft.

[0009] Furthermore, a monitor is slidably mounted on the detection bracket, a marking assembly is mounted on the monitor, the monitor is threadedly connected to a separation screw, the number of threads of the separation screw is one circle, and a separation turntable is coaxially fixedly mounted on both sides of the separation screw.

[0010] Furthermore, a notch is provided on the separation turntable. Under normal conditions, the notch position of the separation turntable corresponds to the first end of the vertical rod. The vertical rod is slidably installed on the detection bracket. The second end of the vertical rod cooperates with the first end notch of the separation connecting rod. The separation connecting rod is rotatably installed on the detection bracket. The second end of the separation connecting rod cooperates with the notch of the sliding column.

[0011] Furthermore, the sliding column is fixedly mounted on the separation connecting plate, a separation push rod is fixedly mounted on the separation connecting plate, the separation push rod is slidably mounted on the detection bracket, a separation spring is sleeved on the separation push rod, a first end of the separation spring is mounted on the separation connecting plate, and a second end of the separation connecting plate is mounted on the detection bracket.

[0012] Furthermore, the separation push rod corresponds to the position of the separation inclined plate, the separation inclined plate is rotatably installed on the detection bracket, the separation inclined plate corresponds to the position of the rotating shaft, the limit plate, and the guide inclined plate, and the lower collection box and the upper collection box are installed on the detection bracket, and the lower collection box and the upper collection box correspond to the position of the separation inclined plate.

[0013] Furthermore, the vertical rod is connected to a first end of a reset spring, and a second end of the reset spring is mounted on the detection bracket.

[0014] Compared with the prior art, the present invention has the following advantages: (1) The present invention pushes the yield spring and the push disk to move, and the push disk drives the transmission wheel to move. The two push disks move relative to each other to push the steel pipe to the central position. Steel pipes of different lengths are adaptively adjusted by the yield spring; (2) Under normal conditions of the present invention, the monitor will monitor the water condition. If bubbles are found, the separation motor will start to drive the separation screw to rotate one circle, driving the monitor to slide a preset stroke on the detection bracket. When the monitor slides to the position where bubbles are generated, the marking component sprays a marker to mark the position of the bubble on the steel pipe; (3) The present invention adopts a detection motor When the second driving shaft and the limit plate rotate toward the separation inclined plate, the steel pipes that have been tested on the limit plate roll toward the separation inclined plate and then roll into the upper collection box, separating qualified products from unqualified products, so as to facilitate the subsequent processing of leaking steel pipes; (4) The incomplete feeding gear in the present invention drives the feeding gear to rotate by a preset angle every time it rotates one circle, and drives the spline shaft and the transmission wheel to rotate by a preset angle. Every time the transmission wheel rotates once, the steel pipes accumulated at the discharge port at the feeding position of the transfer shell fall into the partition plates of the transmission wheel, and then the rotating transmission wheel drives the steel pipes to roll out from another discharge port of the transfer shell and roll onto the guide inclined plate. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic diagram of the overall structure of the present invention.

[0016] Figure 2 It is a partial cross-sectional structural schematic diagram of the feeding mechanism of the present invention.

[0017] Figure 3 It is a schematic diagram of the partial structure of the feeding mechanism and the separation mechanism of the present invention.

[0018] Figure 4 for Figure 3 Schematic diagram of the local enlarged structure at point A in the middle.

[0019] Figure 5 It is a schematic diagram of the partial structure of the feeding mechanism, separation mechanism and detection mechanism of the present invention.

[0020] Figure 6 It is a schematic diagram of the local structure of the separation mechanism of the present invention.

[0021] Figure 7 It is a schematic diagram of a partial cross-sectional structure of the separation mechanism of the present invention.

[0022] Figure 8 It is a partial cross-sectional structural schematic diagram of the feeding mechanism and the separation mechanism of the present invention.

[0023] Fig. 9 The local structure of the detection mechanism of the present invention is shown in FIG. Figure 1 .

[0024] Fig.10 It is a schematic diagram of the partial structure of the feeding mechanism and the detection mechanism of the present invention.

[0025] Fig.11 The local structure of the detection mechanism of the present invention is shown in FIG. Figure 2 .

[0026] Fig.12 The local structure of the detection mechanism of the present invention is shown in FIG. Figure 3 .

[0027] Fig.13 for Fig.12 Schematic diagram of the local enlarged structure at point B in the middle.

[0028] Figure numerals: 1-feeding mechanism; 2-separation mechanism; 3-detection mechanism; 101-detection bracket; 102-transfer shell; 103-pushing plate; 104-transmission wheel; 105-spline shaft; 106-feeding gear; 107-incomplete feeding gear; 108-feeding reciprocating screw; 109-centering push plate; 110-allowing spring; 111-feeding gear; 112-incomplete feeding gear; 113-guide inclined plate; 201-separation inclined plate; 202-lower collection box; 203-upper collection box; 204-separation motor; 205-separation screw; 206-monitor; 207-marking assembly; 208-separation turntable; 209-vertical pole; 210-separation connecting rod; 211-separation turntable; 212-vertical pole; 213-separation connecting rod; 214-separation turntable; 215-separation turntable; 216-separation turntable; 217-separation turntable; 218-separation turntable; 219-separation turntable; 220-separation turntable; 221-separation turntable; 222-separation turntable; 223-separation turntable; 224-separation turntable; 225-separation turntable; 226-separation turntable; 227-marking assembly; 228-separation turntable; 229-vertical pole; 230-separation connecting rod; 231-separation turntable; 232-separation turntable; 233-separation turntable; 234-separation turn 1- sliding column; 212- separation connecting plate; 213- separation spring; 214- separation push rod; 215- reset spring; 301- detection motor 1; 302- belt; 303- disc; 304- eccentric column; 305- detection connecting rod; 306- lifting frame; 307- hydraulic cylinder; 308- detection slide 1; 309- rack 1; 310- detection gear; 311- rack 2; 312- rotating shaft; 313- limit plate; 314- air pump; 315- air pipe; 316- adjustment seat; 317- adjustment screw; 318- mounting block; 319- detection slide 2; 320- sealing gasket; 321- detection motor 2; 322- support gear 1; 323- support gear 2. DETAILED DESCRIPTION

[0029] The present invention will be further described below in conjunction with the accompanying drawings and exemplary embodiments, and the illustrative embodiments and description of the present invention are used to explain the present invention, but are not intended to limit the present invention. In addition, if the detailed description of the known technology is unnecessary for illustrating the features of the present invention, it will be omitted.

[0030] Example: Reference Figure 1-Figure 13The coating stainless steel pipe leakage test device shown in the figure comprises a feeding mechanism 1 and a separation mechanism 2 and a detection mechanism 3 installed on the feeding mechanism 1. The feeding mechanism 1 and the detection mechanism 3 operate in linkage. The feeding mechanism 1 comprises a detection bracket 101, a transfer shell 102, a push plate 103, a transmission wheel 104, a spline shaft 105, a feeding gear 106, a feeding incomplete gear 107, a feeding reciprocating screw 108, a center push plate 109, a yield spring 110, and a feeding gear Wheel 111, incomplete feeding gear 112, guide inclined plate 113; separation mechanism 2 includes separation inclined plate 201, lower collection box 202, upper collection box 203, separation motor 204, separation screw 205, monitor 206, marking component 207, separation turntable 208, vertical rod 209, separation connecting rod 210, sliding column 211, separation connecting plate 212, separation spring 213, separation push rod 214, reset spring 215; detection mechanism 3 includes detection motor 1 301, belt 302, disc 303, eccentric column 304, detection connecting rod 305, lifting frame 306, hydraulic cylinder 307, detection slide 1 308, rack 1 309, detection gear 310, rack 2 311, rotating shaft 312, limit plate 313, air pump 314, air pipe 315, adjustment seat 316, adjustment screw 317, mounting block 318, detection slide 2 319, sealing gasket 320, detection motor 2 321, support gear 1 3 22. Support gear 2 323; the detection bracket 101 is symmetrically provided with a transfer housing 102, a spline shaft 105 is rotatably installed between the two transfer housings 102, the spline shaft 105 is spline-matched with the transmission wheel 104, a plurality of partition pieces are evenly arranged on the transmission wheel 104, the partition pieces are in contact with the inner wall of the transfer housing 102 at the arc position, each transmission wheel 104 is respectively rotatably connected with a push disk 103, and the push disk 103 is slidably installed in the transfer housing 102;The spline shaft 105 is coaxially fixedly connected with the feeding gear 106, the feeding gear 106 cooperates with the feeding incomplete gear 107, the feeding incomplete gear 107 is coaxially fixedly connected with the feeding reciprocating screw 108, and a section of thread is respectively arranged at both ends of the feeding reciprocating screw 108, each section of thread is respectively matched with a center push plate 109 thread, and the feeding reciprocating screw 108 drives the center push plate 109 to reciprocate once every rotation of the feeding reciprocating screw 108, and the two center push plates 109 move synchronously, and the moving directions are relative or opposite, and each center push plate 109 is respectively connected to a push plate 103 through a yield spring 110, and the feeding reciprocating screw 108 is connected to the feeding gear 11 1 is coaxially fixedly connected, the feeding gear 111 cooperates with the feeding incomplete gear 112, the feeding incomplete gear 112 is connected to the output shaft of the detection motor 301, the detection motor 301 is installed on the detection bracket 101, the gear shaft of the feeding incomplete gear 112 is connected to the disc 303 through the belt 302, the disc 303 is axially rotatably installed on the detection bracket 101, an eccentric column 304 is arranged at the eccentric position of the disc 303, the eccentric column 304 is rotatably connected to the first end of the detection connecting rod 305, the second end of the detection connecting rod 305 is rotatably installed on the lifting frame 306, and the lifting frame 306 is slidably installed on the detection bracket 101. ;

[0031] Discharge ports are respectively disposed on both sides of the transfer housing 102 , one of which is used for feeding, and the other is adjacent to the guide inclined plate 113 , which is inclinedly disposed on the detection bracket 101 .

[0032] A detection slide 1 308 and a detection slide 2 319 are slidably mounted on the lifting frame 306. The detection slide 1 308 is fixedly connected to the rack 1 309, and the detection slide 2 319 is fixedly connected to the rack 2 311. The rack 1 309 and the rack 2 311 are meshed with the detection gear 310. The detection gear 310 is rotatably mounted on the lifting frame 306. The detection slide 1 308 and the detection slide 2 319 move synchronously relative to or in opposite directions. An air pump 314 is mounted on the detection slide 1 308, and an air pipe 315 is mounted on the air pump 314. A sealing gasket 320 is respectively mounted on the detection slide 1 308 and the detection slide 2 319, and the two sealing gaskets 320 are positioned correspondingly. The detection slide 1 308 is connected to the piston rod of the hydraulic cylinder 307. The hydraulic cylinder 307 is mounted on the lifting frame 306, and adjustment components are symmetrically arranged at both ends of the lifting frame 306.

[0033] The adjustment assembly includes an adjustment seat 316 fixedly mounted on the lifting frame 306, an adjustment screw 317 is rotatably mounted on the adjustment seat 316, the adjustment screw 317 is threadedly connected to the mounting block 318, the mounting block 318 is slidably mounted in the adjustment seat 316, and a rotating shaft 312 is rotatably mounted between the mounting blocks 318 in the two groups of adjustment assemblies, and a "V"-shaped limit plate 313 is provided on the rotating shaft 312.

[0034] A monitor 206 is slidably installed on the detection bracket 101, and a marking component 207 is installed on the monitor 206. The monitor 206 is threadedly connected to the separation screw 205, and the number of thread turns of the separation screw 205 is one circle. A separation turntable 208 is coaxially fixedly installed on both sides of the separation screw 205. The separation screw 205 is connected to the output shaft of the separation motor 204, and the separation motor 204 is installed on the detection bracket 101.

[0035] A notch is provided on the separation turntable 208. Under normal conditions, the notch position of the separation turntable 208 corresponds to the first end of the vertical rod 209. The separation turntable 208 cooperates with the vertical rod 209. The vertical rod 209 is slidably installed on the detection bracket 101. The second end of the vertical rod 209 cooperates with the first end notch of the separation link 210. The separation link 210 is rotatably installed on the detection bracket 101, and the second end of the separation link 210 cooperates with the notch of the sliding column 211.

[0036] The sliding column 211 is fixedly mounted on the separation connecting plate 212, and a separation push rod 214 is fixedly mounted on the separation connecting plate 212. The separation push rod 214 is slidably mounted on the detection bracket 101. A separation spring 213 is sleeved on the separation push rod 214. The first end of the separation spring 213 is mounted on the separation connecting plate 212, and the second end of the separation connecting plate 212 is mounted on the detection bracket 101.

[0037] The separation push rod 214 corresponds to the position of the separation inclined plate 201, and the separation push rod 214 is located below the separation inclined plate 201. The separation inclined plate 201 is rotatably installed on the detection bracket 101. Under normal circumstances, the separation inclined plate 201 is tilted and erected on the side of the detection bracket 101 close to the lower collecting box 202. The separation inclined plate 201 corresponds to the position of the rotating shaft 312, the limit plate 313, and the guide inclined plate 113. The lower collecting box 202 and the upper collecting box 203 are installed on the detection bracket 101, and the lower collecting box 202 and the upper collecting box 203 correspond to the position of the separation inclined plate 201.

[0038] The rotating shaft 312 is coaxially fixedly connected with the supporting gear 2 323 . The supporting gear 2 323 and the supporting gear 1 322 are meshed with each other. The supporting gear 1 322 is connected with the output shaft of the detecting motor 2 321 . The detecting motor 2 321 is mounted on the adjusting seat 316 .

[0039] The vertical rod 209 is connected to a first end of a return spring 215 , and a second end of the return spring 215 is mounted on the detection bracket 101 .

[0040] The working principle of the present invention is as follows: a stainless steel pipe that needs to be tested for air tightness is thrown in from one side of the transfer shell 102, the steel pipe rolls into the transfer shell 102, and falls between two of the partition plates of the two transmission wheels 104, and the detection motor 301 is started to drive the incomplete feeding gear 112 to rotate, and the incomplete feeding gear 112 drives the disc 303 to rotate through the belt 302, and the incomplete feeding gear 112 rotates one circle to drive the disc 303 and the feeding gear 111 to rotate one circle, and the feeding gear 111 drives the incomplete feeding gear 107 and the feeding reciprocating screw 108 to rotate one circle, and drives the two centering push plates 109 to reciprocate once, and when the two centering push plates 109 move relative to each other, they push the yield spring 110 and the push disk 103 to move, and the push disk 103 drives the transmission wheel 104 to move, and the steel pipe is moved to the center position through the relative movement of the two push disks 103, and steel pipes of different lengths are adaptively adjusted by the yield spring 110.

[0041] Each rotation of the incomplete feeding gear 107 drives the feeding gear 106 to rotate a preset angle, and drives the spline shaft 105 and the transmission wheel 104 to rotate a preset angle. Each time the transmission wheel 104 rotates once, the steel pipes accumulated at the discharge port at the feeding position of the transfer shell 102 fall into between the partition pieces of the transmission wheel 104, and then the rotating transmission wheel 104 drives the steel pipes to roll out from another discharge port of the transfer shell 102 and roll onto the guide inclined plate 113.

[0042] By starting the detection motor 2 321, the support gear 1 322 is driven to rotate, which drives the support gear 2 323 to rotate, drives the rotating shaft 312 to rotate, and drives the limit plate 313 to rotate, so that the opening direction of the limit plate 313 is toward the guide inclined plate 113, and the steel pipe rolls down from the inclined guide inclined plate 113 and rolls onto the guide inclined plate 113. Then the detection motor 2 321 drives the rotating shaft 312 and the limit plate 313 to rotate again, so that the opening of the limit plate 313 is facing directly upwards.

[0043] At this time, the position of the steel pipe corresponds to the detection slide 1 308, the detection slide 2 319, and the sealing gasket 320. For steel pipes of different diameters, the height position of the mounting block 318 in the adjustment seat 316 can be adjusted by rotating the adjustment screw 317 so that the axis of the steel pipe corresponds to the axis of the gas pipe 315.

[0044] Start the hydraulic cylinder 307 to extend the piston rod to drive the detection slide 1 308 to move, drive the rack 1 309 to move, drive the detection gear 310 to rotate, drive the rack 2 311 to move, drive the detection slide 2 319 to move, and the detection slide 2 319 and the detection slide 1 308 move relative to each other to clamp the steel pipe, so that the air pipe 315 is inserted into the steel pipe, and the two ends of the steel pipe are respectively in contact with a sealing gasket 320 for sealing.

[0045] The incomplete feeding gear 112 drives the disc 303 and the eccentric column 304 to rotate through the belt 302, drives the detection connecting rod 305 to swing, and drives the lifting frame 306 to drop to the lowest point. Water is placed in the detection bracket 101 to immerse the steel pipe in the water. Then the incomplete feeding gear 112 stops rotating, and the steel pipe is inflated and pressurized for a preset time through the air pump 314 to observe whether bubbles are generated.

[0046] After the detection is completed, the incomplete feeding gear 112 continues to rotate, and drives the lifting frame 306 to rise through the detection connecting rod 305, so that the steel pipe leaves the water body. The hydraulic cylinder 307 retracts the piston rod, and the detection slide 1 308 and the detection slide 2 319 are away from the detected steel pipe. If no bubbles are generated during the detection process, the detection motor 2 321 drives the rotating shaft 312 and the limit plate 313 to rotate in the direction of the separation inclined plate 201, and the detected steel pipe on the limit plate 313 rolls toward the separation inclined plate 201, and then rolls into the lower collection box 202.

[0047] Under normal circumstances, the monitor 206 will monitor the water condition. If bubbles are found, the separation motor 204 will start to drive the separation screw 205 to rotate one circle, driving the monitor 206 to slide a preset stroke on the detection bracket 101. When the monitor 206 slides to the position where bubbles are generated, the marking component 207 sprays a marker to mark the bubble position on the steel pipe.

[0048] The rotation of the separation screw 205 drives the separation turntable 208 to rotate, and the rotation of the separation turntable 208 pushes the vertical rod 209 to move downward, compressing the reset spring 215. The vertical rod 209 pushes the separation connecting rod 210 to rotate, driving the separation connecting plate 212 to move, driving the separation top rod 214 to move upward and push the separation inclined plate 201, so that the separation inclined plate 201 rotates to a position corresponding to the upper collecting box 203, and then when the detection motor 2 321 drives the rotating shaft 312 and the limit plate 313 to rotate in the direction of the separation inclined plate 201, the steel pipe that has been inspected on the limit plate 313 rolls toward the separation inclined plate 201, and then rolls into the upper collecting box 203, separating qualified products from unqualified products, so as to facilitate the subsequent further processing of the leaking steel pipe.

Claims

1. A coated stainless steel pipe leakage test device, comprising a feeding mechanism (1) and a separation mechanism (2) and a detection mechanism (3) mounted on the feeding mechanism (1), wherein the feeding mechanism (1) and the detection mechanism (3) operate in linkage, and wherein: The feeding mechanism (1) comprises a detection bracket (101), a transfer shell (102) is symmetrically arranged on the detection bracket (101), a spline shaft (105) is rotatably installed between the two transfer shells (102), the spline shaft (105) is spline-matched with a transmission wheel (104), a plurality of partition plates are evenly arranged on the transmission wheel (104), the partition plates are in contact with the inner wall of the transfer shell (102) at an arc position, each transmission wheel (104) is rotatably connected to a push disk (103), and the push disk (103) is slidably installed on the transfer shell (102); the spline shaft (105) is coaxially fixedly connected to the feeding gear (106), the feeding gear (106) cooperates with the feeding incomplete gear (107), the feeding incomplete gear (107) is coaxially fixedly connected to the feeding reciprocating screw (108), and a section of thread is respectively provided at both ends of the feeding reciprocating screw (108), and each section of thread is respectively matched with a thread of a center push plate (109). Each time the feeding reciprocating screw (108) rotates one circle, the center push plate (109) is driven to reciprocate once, and the two center push plates (109) are synchronously The moving direction is relative or opposite, each center push plate (109) is connected to a push plate (103) through a yield spring (110), the feeding reciprocating screw (108) is coaxially fixedly connected to the feeding gear (111), the feeding gear (111) cooperates with the feeding incomplete gear (112), the gear shaft of the feeding incomplete gear (112) is connected to the disc (303) through a belt (302), an eccentric column (304) is arranged at the eccentric position of the disc (303), and the eccentric column (304) is connected to the detection connecting rod (303). 05), the second end of the detection connecting rod (305) is rotatably mounted on the lifting frame (306), and the lifting frame (306) is slidably mounted on the detection bracket (101); a monitor (206) is slidably mounted on the detection bracket (101), a marking component (207) is mounted on the monitor (206), the monitor (206) is threadedly connected to the separation screw (205), the number of threads of the separation screw (205) is one circle, and a separation rotating disk (208) is coaxially fixedly mounted on both sides of the separation screw (205).

2. A coated stainless steel pipe leakage test device as claimed in claim 1, characterized in that: Discharge ports are respectively provided on both sides of the transfer housing (102), one of which is used for feeding, and the other is adjacent to a guide inclined plate (113), which is arranged obliquely on the detection bracket (101).

3. A coated stainless steel pipe leakage test device as claimed in claim 2, characterized in that: A detection slide 1 (308) and a detection slide 2 (319) are slidably mounted on the lifting frame (306); the detection slide 1 (308) and the detection slide 2 (319) move synchronously relative to or in opposite directions; an air pump (314) is mounted on the detection slide 1 (308); an air delivery pipe (315) is mounted on the air pump (314); a sealing gasket (320) is mounted on the detection slide 1 (308) and the detection slide 2 (319), respectively; the two sealing gaskets (320) are positioned correspondingly; and adjustment components are symmetrically arranged at both ends of the lifting frame (306).

4. A coated stainless steel pipe leakage test device as claimed in claim 3, characterized in that: The adjustment assembly comprises an adjustment seat (316) fixedly mounted on the lifting frame (306); an adjustment screw (317) is rotatably mounted on the adjustment seat (316); the adjustment screw (317) is threadedly connected to a mounting block (318); the mounting block (318) is slidably mounted in the adjustment seat (316); a rotating shaft (312) is rotatably mounted between the mounting blocks (318) in the two sets of adjustment assemblies; a "V"-shaped limiting plate (313) is provided on the rotating shaft (312).

5. A coated stainless steel pipe leakage test device as claimed in claim 4, characterized in that: The separation rotating disk (208) is provided with a notch. Under normal conditions, the position of the notch of the separation rotating disk (208) corresponds to the first end of the vertical rod (209). The vertical rod (209) is slidably mounted on the detection bracket (101). The second end of the vertical rod (209) cooperates with the first end notch of the separation connecting rod (210). The separation connecting rod (210) is rotatably mounted on the detection bracket (101). The second end of the separation connecting rod (210) cooperates with the notch of the sliding column (211).

6. A coated stainless steel pipe leakage test device as claimed in claim 5, characterized in that: The sliding column (211) is fixedly mounted on the separation connecting plate (212), a separation push rod (214) is fixedly mounted on the separation connecting plate (212), the separation push rod (214) is slidably mounted on the detection bracket (101), a separation spring (213) is sleeved on the separation push rod (214), a first end of the separation spring (213) is mounted on the separation connecting plate (212), and a second end of the separation connecting plate (212) is mounted on the detection bracket (101).

7. A coated stainless steel pipe leakage test device as claimed in claim 6, characterized in that: The separation push rod (214) corresponds in position to the separation inclined plate (201); the separation inclined plate (201) is rotatably mounted on the detection bracket (101); the separation inclined plate (201) corresponds in position to the rotating shaft (312), the limit plate (313), and the guide inclined plate (113); a lower collection box (202) and an upper collection box (203) are mounted on the detection bracket (101); the lower collection box (202) and the upper collection box (203) correspond in position to the separation inclined plate (201).

8. A coated stainless steel pipe leakage test device as claimed in claim 7, characterized in that: The vertical rod (209) is connected to a first end of a return spring (215), and a second end of the return spring (215) is mounted on the detection bracket (101).

Images