Continuous reactor detection device and method

Abstract

The invention discloses a continuous reactor detection device and method, and relates to the technical field of reactor detection, the device comprises a detection table, a bottom plate and supporting frames, two compression resistance detection assemblies are symmetrically arranged above the detection table, and the two compression resistance detection assemblies are located between the two supporting frames; two groups of rolling shafts are symmetrically and rotationally connected to the top end of the detection table, a conveying mechanism used for conveying the electric reactor is arranged on the detection table, and a clamping mechanism used for clamping and positioning the electric reactor is arranged on the detection table. Through the conveying mechanism, the two reactors before and after detection can be pushed to synchronously and stably displace, so that continuous conveying of the two reactors can be realized without manual work, and the reactors can be automatically overturned to cross the reactor in place during resetting, so that pushing preparation can be made for pushing the next reactor, the detection interval time is effectively shortened, and the detection efficiency is improved. Therefore, the detection efficiency of the plurality of reactors can be further improved.

Description

TECHNICAL FIELD

[0001] The present application relates to the technical field of electric reactor detection, and specifically relates to a continuous electric reactor detection device and method. BACKGROUND

[0002] An electric reactor, also known as an inductor, is an electrical mechanical component composed of a winding (coil), a core (or a hollow structure) and a packaging / supporting mechanism, which works on the principle of electromagnetic induction. The electric reactor is essentially a large inductance coil, which is used in power systems and electrical equipment to limit short-circuit current, filter noise and the like based on the principle of blocking alternating current and passing direct current. The winding inductance characteristic hinders current changes.

[0003] The patent with the authorized announcement number CN120177201B discloses an electric reactor pressure resistance detection device, which comprises a base and a mounting table mounted on the end face of the base. The mounting table is used for mounting the electric reactor. The end face of the base is fixedly provided with a control cabinet. The base is provided with two detection seats arranged on the two sides above the base. The side walls of the two detection seats are provided with a plurality of U-shaped grooves. The base is provided with two driving mechanisms for driving the two detection seats to move towards each other. The two detection seats are provided with a plurality of U-shaped cavities. The U-shaped cavities on the same side are communicated with each other. The electric reactor insulation sleeve pressure resistance detection result is more in line with the actual situation. The points with strength defects can be pre-screened. The representativeness and detection efficiency of the detection result are improved. Potential cracks and other defects can be exposed before detection, and the possibility of defect omission is reduced.

[0004] The above-mentioned patent can effectively improve the representativeness and detection efficiency of the detection result through synchronous detection of multiple points. However, during the detection of multiple electric reactors, the electric reactors need to be carried to the mounting table and fixed by multiple locking members (such as bolts). Therefore, before the detection of the next electric reactor, the previous electric reactor needs to be disassembled and the next electric reactor needs to be assembled and fixed by repeatedly disassembling and assembling the multiple locking members. As a result, the detection efficiency of multiple electric reactors is not good. In order to further improve the detection efficiency of multiple electric reactors, a continuous electric reactor detection device and method are provided to eliminate the disadvantages of the existing device. SUMMARY

[0005] The present application aims to provide a continuous electric reactor detection device and method to solve the problems in the background art.

[0006] To achieve the above-mentioned purpose, the present application provides the following technical scheme: A continuous reactor testing device includes a testing platform, a base plate fixedly connected to the bottom of the testing platform, two support frames symmetrically fixedly connected to the top of the base plate, the testing platform being located between the two support frames, two pressure testing components symmetrically arranged above the testing platform, the two pressure testing components being located between the two support frames, two sets of rollers symmetrically rotatably connected to the top of the testing platform, and a conveying mechanism for conveying the reactor being provided on the testing platform. The conveying mechanism includes: A fixed plate is installed inside the testing table, the fixed plate is located between two sets of rollers, and two movable seats are slidably connected inside the testing table. The fixed plate is located between the two movable seats and is fixedly connected to the two movable seats. The testing platform is equipped with a clamping mechanism for clamping and positioning the reactor.

[0007] Based on the above technical solutions, the present invention also provides the following optional technical solutions: In one alternative embodiment, the conveying mechanism further includes: A push component mounted on the mobile seat; The push component includes: A connecting rod is rotatably connected inside the movable seat. Two flip-up push plates are symmetrically fixed to the outer wall of the connecting rod. Both flip-up push plates extend to the top of the detection table and are slidably connected to the detection table. The testing platform is equipped with a moving component for moving a movable seat. The flip push plate is provided with a limiting component for limiting the flip of the flip push plate; The connecting rod is equipped with a reset component for driving the flip push plate to flip and reset.

[0008] In one alternative embodiment, the moving component includes: A drive motor is installed on one side of the testing table. A conveying screw is rotatably connected inside the testing table. The conveying screw is driven by the output end of the drive motor. A sliding sleeve is fitted on the outer wall of the conveying screw. The sliding sleeve is in transmission cooperation with the conveying screw. The sliding sleeve is located at the bottom end of a movable seat and is fixedly connected to the movable seat.

[0009] In one alternative: the limiting component includes a limiting slider fixedly connected to the bottom end of the flip-up push plate, and a limiting groove for the limiting slider to slide is provided at the contact position between the movable seat and the limiting slider.

[0010] In one alternative embodiment, the reset component includes: Two torsion springs are symmetrically sleeved on the outer wall of the connecting rotating rod, two said overturning push plates are located between the two torsion springs, and the two ends of the two said torsion springs are integrally formed with end heads, and the overturning push plate, the moving seat and the end head are all provided with a hole slot for inserting the end head.

[0011] In an alternative, the clamping mechanism comprises: A transmission assembly is arranged on the detection table. The transmission assembly comprises: Two bidirectional screws are symmetrically and rotatably connected inside the detection table, the outer wall of each bidirectional screw is fixedly connected with a first bevel gear ring, the first bevel gear ring is rotatably connected with the detection table through a limiting ring, and the outer wall of the first bevel gear ring is meshingly connected with a first bevel gear. A clamping assembly for clamping and limiting the reactor is arranged on the bidirectional screw. A driving assembly for driving the rotation of the first bevel gear is arranged on the detection table.

[0012] In an alternative, the clamping assembly comprises: Two connecting sliding cylinders are symmetrically sleeved on the outer wall of the bidirectional screw, the two connecting sliding cylinders are drivingly matched with the bidirectional screw, the two connecting sliding cylinders respectively penetrate to the outer ends of the detection table, the two connecting sliding cylinders are slidingly connected with the detection table, one end of each of the two connecting sliding cylinders away from each other is fixedly connected with a clamping plate, and the clamping plate has an L-shaped outer shape.

[0013] In an alternative, the driving assembly comprises: A transmission rod is arranged inside the detection table, the transmission rod is located between the two bidirectional screws, the transmission rod is fixedly connected with the first bevel gear, the outer wall of the transmission rod is fixedly connected with a second bevel gear ring, the outer wall of the second bevel gear ring is meshingly connected with a second bevel gear, a servo motor is installed inside the detection table, the second bevel gear is driven by the output end of the servo motor, the outer wall of the transmission rod is symmetrically sleeved with two limiting sleeve plates, the two limiting sleeve plates are fixedly connected with the detection table, and the second bevel gear ring is located between the two limiting sleeve plates.

[0014] In an alternative, one end of the support frame away from the compression detection assembly is provided with a hydraulic push rod, the compression detection assembly is fixedly connected with the output end of the hydraulic push rod, one end of the support frame away from the compression detection assembly is symmetrically provided with two limiting sliding rods, the two limiting sliding rods are fixedly connected with the compression detection assembly by penetrating the support frame, and the hydraulic push rod is located between the two limiting sliding rods.

[0015] Compared with the prior art, the present application has the following advantages: 1、The present application can push the two reactors before and after detection to synchronize and stabilize displacement, so that the continuous conveying of the two reactors can be realized without manual operation, and the reactor can be automatically turned over to pass the already positioned reactor when resetting, so that the next reactor can be pushed, thereby effectively shortening the detection gap time, and further improving the detection efficiency of multiple reactors.

[0016] 2、The present application can stably, synchronously and adaptively clamp and position the reactor during detection, so that displacement or shaking of the reactor during compression resistance detection can be avoided, thereby effectively ensuring the accuracy and reliability of the detection result. BRIEF DESCRIPTION OF DRAWINGS

[0017] Figure 1 It is a structural schematic diagram of the present application.

[0018] Figure 2 It is a schematic diagram of the internal structure of the detection table of the present application.

[0019] Figure 3 It is a schematic diagram of the internal structure of the moving seat of the present application.

[0020] Figure 4 It is a schematic diagram of the connection structure of the connecting sliding cylinder and the bidirectional screw rod of the present application.

[0021] Figure 5 It is a schematic diagram of the connection structure of the turnover push plate and the limiting sliding block of the present application.

[0022] Figure 6 It is a schematic diagram of the local enlarged structure of A in the present application. Figure 2

[0023] It is a schematic diagram of the local enlarged structure of B in the present application. Figure 7 Figure 3 It is a schematic diagram of the local enlarged structure of C in the present application.

[0024] Figure 8 Figure 3 It is a schematic diagram of the local enlarged structure of C in the present application.

[0025] Figure legend annotation: 1, detection table; 201, turnover push plate; 202, moving seat; 203, sliding cover plate; 204, conveying screw rod; 205, fixed plate; 206, connecting rotating rod; 207, limiting sliding block; 208, torsion spring; 209, driving motor; 301, clamping plate; 302, connecting sliding cylinder; 303, first bevel gear ring; 304, first bevel gear; 305, bidirectional screw rod; 306, servo motor; 307, second bevel gear; 308, second bevel gear ring; 309, transmission rod; 4, hydraulic push rod; 5, limiting sliding rod; 6, compression resistance detection assembly; 7, supporting frame; 8, bottom plate; 9, roller. ​​Detailed Implementation

[0026] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be further described in detail below with reference to the accompanying drawings and embodiments.

[0027] In one embodiment, such as Figures 1-8 As shown, a continuous reactor testing device includes a testing platform 1. A base plate 8 is fixedly connected to the bottom of the testing platform 1. Two support frames 7 are symmetrically fixedly connected to the top of the base plate 8. The testing platform 1 is located between the two support frames 7. Two pressure testing components 6 are symmetrically arranged above the testing platform 1. The two pressure testing components 6 are located between the two support frames 7. Two sets of rollers 9 are symmetrically rotatably connected to the top of the testing platform 1. A hydraulic push rod 4 is installed at the end of the support frame 7 away from the pressure testing components 6. The output end of the pressure testing components 6 is fixedly connected to the hydraulic push rod 4. Two limiting slide rods 5 are symmetrically arranged at the end of the support frame 7 away from the pressure testing components 6. Both limiting slide rods 5 pass through the support frame 7 and are fixedly connected to the pressure testing components 6. The hydraulic push rod 4 is located between the two limiting slide rods 5. A conveying mechanism for conveying the reactor is provided on the testing platform 1. The conveying mechanism includes: a fixed plate 205 disposed inside the testing table 1, the fixed plate 205 being located between two sets of rollers 9, two movable seats 202 being slidably connected inside the testing table 1, the fixed plate 205 being located between the two movable seats 202, and the fixed plate 205 being fixedly connected to the two movable seats 202. The testing table 1 is equipped with a clamping mechanism for clamping and positioning the reactor; In this embodiment, when in use, the reactor is placed on the test platform 1 with the help of a forklift or hoisting equipment and comes into contact with the outer wall of the two sets of rollers 9. Then, with the cooperation of the conveying mechanism and the two sets of rollers 9, the reactor can be pushed to make a stable displacement, so that the reactor can be conveniently moved between the two pressure testing components 6. When the reactor is stably moved to the designated position, the clamping mechanism can clamp and fix the reactor, effectively preventing displacement of the reactor during the testing process. Then, the hydraulic push rod 4 is activated to push the pressure testing component 6 to move horizontally. At this time, the limit slide rod 5 moves synchronously along the inner wall of the support frame 7 under the drive of the pressure testing component 6 until the two pressure testing components 6 are connected to each other. In this way, the insulation sleeve of the reactor can be connected through the two pressure testing components 6. Then, the pressure testing component 6 is activated to perform pressure testing on the insulation sleeve of the reactor. Then, with the help of a forklift or hoisting equipment, the next reactor is placed on the testing table 1 and contacts the outer wall of the two sets of rollers 9. When the previous reactor has completed the test, the hydraulic push rod 4 is activated to drive the pressure testing component 6 to reset, and the clamping mechanism releases the clamping and fixing of the previous reactor. Then, the two reactors can be moved synchronously by the conveying mechanism, so that the next reactor can be pushed to the designated position for pressure testing. After that, the above operation is repeated to achieve the purpose of continuous testing of reactors, thereby further improving the testing efficiency of multiple reactors. In one embodiment, such as Figures 2-8 As shown, the conveying mechanism also includes a pushing component disposed on the movable seat 202; The pushing component includes: a connecting rod 206 rotatably connected inside the movable seat 202, and two flip push plates 201 symmetrically fixed to the outer wall of the connecting rod 206. Both flip push plates 201 extend to the top of the detection table 1 and are slidably connected to the detection table 1. The testing station 1 is equipped with a moving component for moving a movable seat 202; The flip push plate 201 is provided with a limiting component for limiting the flip of the flip push plate 201; A reset component is provided on the connecting rod 206 for driving the flip push plate 201 to flip and reset; The moving component includes: a drive motor 209 installed on one side of the testing table 1; a conveying screw 204 rotatably connected inside the testing table 1; the conveying screw 204 is driven by the output end of the drive motor 209; a sliding sleeve 203 is sleeved on the outer wall of the conveying screw 204; the sliding sleeve 203 is in transmission cooperation with the conveying screw 204; the sliding sleeve 203 is located at the bottom end of a moving seat 202; the sliding sleeve 203 is fixedly connected to the moving seat 202; through the mutual cooperation of the pushing component and the moving component, two reactors can be pushed to move synchronously, thereby realizing the purpose of conveniently switching between the two reactors before and after testing. In one embodiment, such as Figures 3-8 As shown, the limiting component includes a limiting slider 207 fixedly connected to the bottom end of the flip push plate 201. A limiting groove is provided at the contact position between the moving seat 202 and the limiting slider 207 for the limiting slider 207 to slide. Through the cooperation between the limiting slider 207 and the limiting groove, the flip push plate 201 can only flip in one direction, thereby pushing the reactor to move horizontally and easily resetting through flipping. In one embodiment, such as Figures 3-7As shown, the reset assembly includes: two torsion springs 208 symmetrically sleeved on the outer wall of the connecting rod 206, two flipping push plates 201 located between the two torsion springs 208, and both ends of the two torsion springs 208 are integrally formed with end heads. The flipping push plates 201, the moving seat 202 and the end heads are all provided with holes and slots for inserting the end heads. Through the mutual cooperation of the two torsion springs 208 with the flipping push plates 201 and the moving seat 202, the flipping push plates 201 can be driven to rotate and reset. In one embodiment, such as Figures 1-6 As shown, the clamping mechanism includes: a transmission assembly disposed on the testing table 1; The transmission assembly includes: two bidirectional lead screws 305 symmetrically rotatably connected inside the detection table 1, and a first bevel gear ring 303 fixedly connected to the outer wall of each of the two bidirectional lead screws 305. The first bevel gear ring 303 is rotatably connected to the detection table 1 through a limiting ring, and a first bevel gear 304 is meshed with the outer wall of the first bevel gear ring 303. The bidirectional lead screw 305 is equipped with a clamping assembly for clamping and limiting the reactor; The testing table 1 is equipped with a drive assembly for driving the first bevel gear 304 to rotate; The clamping assembly includes two connecting slide cylinders 302 symmetrically sleeved on the outer wall of the bidirectional lead screw 305. Both connecting slide cylinders 302 are in transmission cooperation with the bidirectional lead screw 305. The two connecting slide cylinders 302 respectively extend to the outside of both ends of the detection table 1. Both connecting slide cylinders 302 are slidably connected to the detection table 1. A clamping plate 301 is fixedly connected to the ends of the two connecting slide cylinders 302 that are far apart from each other. The clamping plate 301 is L-shaped. The drive assembly includes: a transmission rod 309 disposed inside the testing table 1, the transmission rod 309 being located between two bidirectional lead screws 305, the transmission rod 309 being fixedly connected to a first bevel gear 304, a second bevel gear ring 308 being fixedly connected to the outer wall of the transmission rod 309, and a second bevel gear 307 being meshed with the outer wall of the second bevel gear ring 308, a servo motor 306 being installed inside the testing table 1, the second bevel gear 307 being driven by the output end of the servo motor 306, and two limiting sleeves symmetrically sleeved on the outer wall of the transmission rod 309, both of which are fixedly connected to the testing table 1, and the second bevel gear ring 308 being located between the two limiting sleeves. Through the mutual cooperation of the transmission assembly, the clamping assembly, and the drive assembly, the reactor can be conveniently clamped and fixed, effectively preventing displacement of the reactor during the testing process.

[0028] The above embodiments disclose a continuous reactor testing device, wherein, in use, the reactor is placed on the testing table 1 with the help of a forklift or hoisting equipment and comes into contact with the outer wall of the two sets of rollers 9, at which time the reactor is located between the two moving seats 202; Then, the drive motor 209 is started to drive the conveying screw 204 to rotate. At this time, the sliding sleeve 203, under the transmission cooperation of the conveying screw 204, drives a moving seat 202 to move along the inner wall of the detection table 1. At the same time, the other moving seat 202 moves synchronously under the push of the moving seat 202 through the fixed plate 205. At this time, the flipping push plate 201 moves synchronously under the drive of the moving seat 202 through the connecting rotating rod 206. When the flipping push plate 201 contacts the outer wall of the reactor, the flipping push plate 201 can push the reactor to make stable displacement through the blocking of the inner wall of the limiting slide groove by the limiting slider 207 and the cooperation of the two sets of rollers 9, so that the reactor can be conveniently moved between the two pressure testing components 6. When the reactor is stably moved to the designated position, the servo motor 306 is started to drive the second bevel gear 307 to rotate. At the same time, the second bevel gear ring 308, driven by the meshing of the second bevel gear 307, drives the first bevel gear 304 to rotate through the transmission rod 309. At this time, the first bevel gear ring 303, driven by the meshing of the first bevel gear 304, drives the bidirectional lead screw 305 to rotate along the inner wall of the detection table 1 through the limit ring. Meanwhile, the two connecting slide cylinders 302, under the transmission cooperation of the bidirectional lead screw 305, respectively drive the clamping plate 301 to squeeze the outer wall of the reactor. This can realize the clamping and fixing operation of the reactor, effectively preventing the reactor from shifting during the detection process. Then, the hydraulic push rod 4 is activated to push the pressure testing component 6 to move horizontally. At this time, the limit slide rod 5 moves synchronously along the inner wall of the support frame 7 under the drive of the pressure testing component 6 until the two pressure testing components 6 are connected to each other. In this way, the insulation sleeve of the reactor can be connected through the two pressure testing components 6. Then, the pressure testing component 6 is activated to perform pressure testing on the insulation sleeve of the reactor. During this process, the drive motor 209 is activated to drive the conveying screw 204 to rotate in the opposite direction. This allows the sliding sleeve plate 203 to drive a moving seat 202 to slide and reset under the transmission cooperation of the conveying screw 204. When the flipping push plate 201 contacts the outer wall of the reactor under the drive of the moving seat 202, the flipping push plate 201 drives the connecting rod 206 to rotate under the obstruction of the outer wall of the reactor, and twists the torsion spring 208. At the same time, the limiting slider 207 slides to the outside of the moving seat 202 under the drive of the flipping push plate 201. When the flipping push plate 201 separates from the outer wall of the reactor, the torsion spring 208 drives the flipping push plate 201 to rotate and reset through torsion rebound. This achieves the purpose of convenient reset of the flipping push plate 201. Then, using a forklift or hoisting equipment, the next reactor is placed on the testing table 1 and contacts the outer wall of the two sets of rollers 9. At this time, the next reactor is located on one side of the previous reactor and between the two moving seats 202. When the previous reactor has completed the test, the hydraulic push rod 4 is activated to drive the pressure testing component 6 to reset, and the servo motor 306 is activated to drive the second bevel gear 307 to perform a reverse operation, which can release the clamping and fixing of the previous reactor. Then, the drive motor 209 is activated to push the two reactors to move synchronously, so that the next reactor can be pushed to the designated position for pressure testing. After that, the above operation is repeated to achieve the purpose of continuous testing of reactors, thereby further improving the testing efficiency of multiple reactors.

[0029] The above description is merely a specific embodiment of this disclosure, but the scope of protection of this disclosure is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the scope of the technology disclosed in this disclosure should be included within the scope of protection of this disclosure. Therefore, the scope of protection of this disclosure should be determined by the scope of the claims.

Claims

1. A continuous reactor testing device, comprising a testing platform (1), wherein a base plate (8) is fixedly connected to the bottom end of the testing platform (1), and two support frames (7) are symmetrically fixedly connected to the top end of the base plate (8), the testing platform (1) is located between the two support frames (7), and two pressure testing components (6) are symmetrically arranged above the testing platform (1), the two pressure testing components (6) being located between the two support frames (7), and two sets of rollers (9) are symmetrically rotatably connected to the top end of the testing platform (1), characterized in that, The detection table (1) is provided with a conveying mechanism for conveying the electric reactor; The conveying mechanism comprises a fixed plate (205) arranged in the detection table (1), the fixed plate (205) is located between two groups of rollers (9), two movable bases (202) are slidably connected to the inside of the detection table (1), the fixed plate (205) is located between the two movable bases (202), and the fixed plate (205) is fixedly connected with the two movable bases (202); The detection table (1) is provided with a clamping mechanism for clamping and positioning the electric reactor.

2. The continuous reactor detection device according to claim 1, characterized in that The conveying mechanism further comprises a pushing assembly arranged on the movable base (202); The pushing assembly comprises a connecting rotating rod (206) rotatably connected in the movable base (202), two turnover push plates (201) are symmetrically and fixedly connected to the outer wall of the connecting rotating rod (206), the two turnover push plates (201) are both penetrated to the top end of the detection table (1), and the two turnover push plates (201) are slidably connected with the detection table (1); The detection table (1) is provided with a moving assembly for driving one movable base (202) to move; The turnover push plate (201) is provided with a limiting assembly for limiting the turnover of the turnover push plate (201); The connecting rotating rod (206) is provided with a reset assembly for driving the turnover push plate (201) to reset.

3. A continuous reactor detection device according to claim 2, characterized in that The moving assembly comprises a driving motor (209) mounted on one side of the detection table (1), a conveying screw rod (204) rotatably connected in the detection table (1), the conveying screw rod (204) is driven by the output end of the driving motor (209), a sliding sleeve plate (203) is sleeved on the outer wall of the conveying screw rod (204), the sliding sleeve plate (203) is in transmission cooperation with the conveying screw rod (204), the sliding sleeve plate (203) is located at the bottom end of one movable base (202), and the sliding sleeve plate (203) is fixedly connected with the movable base (202).

4. The continuous reactor detection device of claim 2, wherein, The limiting assembly comprises a limiting sliding block (207) fixedly connected to the bottom end of the turnover push plate (201), and the movable base (202) is provided with a limiting sliding groove at the position where the movable base (202) is connected with the limiting sliding block (207) for sliding of the limiting sliding block (207).

5. The continuous reactor detection device of claim 2, wherein, The reset assembly comprises two torsion springs (208) symmetrically sleeved on the outer wall of the connecting rotating rod (206), the two turnover push plates (201) are located between the two torsion springs (208), and the two ends of the two torsion springs (208) are integrally formed with end heads, and the turnover push plate (201), the movable base (202) and the end head are provided with a hole slot for insertion of the end head at the position where the turnover push plate (201), the movable base (202) and the end head are connected.

6. The continuous reactor detection device of claim 1, wherein, The clamping mechanism comprises a transmission assembly arranged on the detection table (1); The transmission assembly comprises two bidirectional screws (305) symmetrically rotationally connected inside the detection table (1), outer walls of the two bidirectional screws (305) are fixedly connected with first bevel gear rings (303), the first bevel gear rings (303) are rotationally connected with the detection table (1) through limiting rings, outer walls of the first bevel gear rings (303) are meshingly connected with first bevel gears (304); The bidirectional screw (305) is provided with a clamping assembly for clamping and limiting the reactor; The detection table (1) is provided with a driving assembly for driving the first bevel gear (304) to rotate.

7. A continuous reactor detection device according to claim 6, characterized in that The clamping assembly comprises two connecting sliding cylinders (302) symmetrically sleeved on outer walls of the bidirectional screws (305), the two connecting sliding cylinders (302) are in driving cooperation with the bidirectional screws (305), the two connecting sliding cylinders (302) are respectively penetrated to two ends of the detection table (1) and are in sliding connection with the detection table (1), the two connecting sliding cylinders (302) are fixedly connected with clamping plates (301) at ends away from each other, and the clamping plates (301) are in L-shaped in shape.

8. The continuous reactor detection device of claim 6, wherein, The driving assembly comprises a transmission rod (309) arranged inside the detection table (1), the transmission rod (309) is located between the two bidirectional screws (305), the transmission rod (309) is fixedly connected with the first bevel gear (304), an outer wall of the transmission rod (309) is fixedly connected with a second bevel gear ring (308), an outer wall of the second bevel gear ring (308) is meshingly connected with a second bevel gear (307), a servo motor (306) is installed in the detection table (1), the second bevel gear (307) is driven by an output end of the servo motor (306), the outer wall of the transmission rod (309) is symmetrically sleeved with two limiting sleeve plates, the two limiting sleeve plates are fixedly connected with the detection table (1), and the second bevel gear ring (308) is located between the two limiting sleeve plates.

9. The continuous reactor detection device of claim 1, wherein, One end of the support frame (7) away from the compression detection assembly (6) is provided with a hydraulic push rod (4), the compression detection assembly (6) is fixedly connected with an output end of the hydraulic push rod (4), two limiting sliding rods (5) are symmetrically arranged at the one end of the support frame (7) away from the compression detection assembly (6), the two limiting sliding rods (5) are fixedly connected with the support frame (7) and the compression detection assembly (6), and the hydraulic push rod (4) is located between the two limiting sliding rods (5).

10. A method of using a continuous reactor detection device according to any one of claims 1-9, characterized in that, The method comprises the following steps: Step one: the reactor is placed on the detection table (1) by means of a forklift or hoisting equipment and is in contact with outer walls of two groups of rollers (9), and then the reactor is stably pushed to between the two compression detection assemblies (6) through cooperation of the conveying mechanism and the rollers (9); Step two: the reactor is clamped and positioned by the clamping mechanism, effectively avoiding displacement of the reactor during detection, then the hydraulic push rod (4) is started to push the compression resistance detection assembly (6) to sleeve with the insulating sleeve of the reactor, and the compression resistance detection assembly (6) is started to detect the compression resistance of the insulating sleeve of the reactor, in the process, the conveying mechanism is reset, and the next reactor is placed on the detection table (1) and in contact with the outer wall of the two groups of rollers (9); Step three: when the detection of the previous reactor is completed, the hydraulic push rod (4) is started to drive the compression resistance detection assembly (6) to reset and release the clamping mechanism from clamping and fixing the reactor, and the conveying mechanism is used to push the previous reactor to the other side above the detection table (1), at this time, the next reactor moves between the two compression resistance detection assemblies (6) under the pushing of the conveying mechanism, then the clamping mechanism is used to clamp and fix the next reactor, so that the next reactor can be conveniently detected, and the above steps are repeated to continuously detect multiple reactors, thereby further improving the detection efficiency of multiple reactors.

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