High voltage operating insulating rod withstand voltage test device

Abstract

The invention discloses a high-voltage operating insulating rod withstand voltage test device, including an operating box, a left mounting frame and a right mounting frame, the left mounting frame including a left insulating base, a left conductive rod and a left pressure rod, the right mounting frame including a right insulating base, a right conductive rod and a right pressure rod, a detection area is formed between the left conductive rod and the left pressure rod, and between the right conductive rod and the right pressure rod, including a first control component, a plurality of detection stations arranged in an array are formed in the detection area, a feed end is formed at the front end along the arrangement direction of the detection stations, and a discharge end is formed at the end, a feeding mechanism is provided below the detection area to drive each insulating rod to move from the feed end to the discharge end between each detection station, a feeding mechanism is connected to the feed end, and a second control component for controlling the feeding is connected to the feeding mechanism. The invention has the following advantages and effects: the installation and docking of the process is replaced by machinery instead of manual labor, which reduces the amount of manual operation, improves the test efficiency and avoids the existing safety hazards.

Description

Technical Field

[0001] The invention relates to the field of electricity, and in particular to a high-voltage operating insulating rod withstand voltage test device. Background Art

[0002] High-voltage operating insulating rods are used to directly operate high-voltage disconnectors, drop fuses, install and remove temporary grounding wires, and are tools for testing, measuring, or testing electrical equipment above 35kV. Insulating rods generally consist of three parts: the working part, the insulating part, and the handshake part. The withstand voltage test voltage of the insulating rod is applied between the working part and the handshake part.

[0003] There are many withstand voltage test devices for testing insulating rods on the market, and the existing withstand voltage test devices include a test mounting frame and an operation box. However, the existing withstand voltage test installation process of the insulating rod on the test mounting frame is manually installed and docked, resulting in a large amount of operation and low test efficiency. In addition, if leakage occurs during manual operation, there is a great safety hazard. Based on the above problems, the present invention is conceived. Summary of the invention

[0004] The purpose of the present invention is to provide a high-voltage operating insulating rod withstand voltage test device, which uses machinery to replace manual installation and docking processes, thereby reducing the amount of manual operation, improving test efficiency and avoiding existing safety hazards.

[0005] The above technical objectives of the present invention are achieved through the following technical solutions: a high-voltage operating insulating rod withstand voltage test device, comprising an operating box, a left mounting frame and a right mounting frame, the left mounting frame comprising a left insulating base, a left conductive rod arranged on the left insulating base and a left pressure rod movably arranged on the left conductive rod, the right mounting frame comprising a right insulating base, a right conductive rod arranged on the right insulating base and a right pressure rod movably arranged on the right conductive rod, a detection area for detecting the insulating rod is formed between the left conductive rod and the left pressure rod, and between the right conductive rod and the right pressure rod, comprising a first control component for synchronously controlling the left pressure rod and the right pressure rod, a plurality of detection stations arranged in an array are formed in the detection area, a feed end is formed at the front end along the arrangement direction of the detection stations, and a discharge end is formed at the end, a feeding mechanism is provided below the detection area to drive each insulating rod to move from the feed end to the discharge end between each detection station, a feeding mechanism is connected to the feeding end, and a second control component for controlling the feeding is connected to the feeding mechanism.

[0006] By adopting the above technical solution, the second control component controls the feeding mechanism to transport the insulating rod to be tested close to the feed end, and then drives each insulating rod to be transmitted between the testing stations toward the discharge end through the feeding mechanism. When there are insulating rods to be tested at each testing station, the feeding mechanism stops working. The first control component controls the left pressure rod and the right pressure rod to move synchronously, driving the left pressure rod to approach the left conductive rod and the right pressure rod to approach the right conductive rod, and pressing and fixing the insulating rod in the testing station. The operation box completes the test of the insulating rod in each testing station. After the test is completed, the left pressure rod and the right pressure rod are driven away by the first control component, and then the insulating rod in the testing station is driven to be transmitted toward the discharge end through the feeding mechanism. When the insulating rods in each testing station are output through the discharge end, the above operation is repeated to test the next batch of insulating rods to be tested, and the test of the insulating rods is completed in this way. Through this test method, the installation and docking operation in the test process is replaced by machinery instead of manual labor, which reduces the manual operation amount, improves the test efficiency and avoids the existing safety hazards.

[0007] It is further configured as follows: each of the detection stations is formed including a left detection component arranged between the left conductive rod and the left pressure rod and a right detection component arranged between the right conductive rod and the right pressure rod, the left detection component includes a lower left flexible conductive block arranged on the left conductive rod and an upper left flexible conductive block arranged on the left pressure rod, the lower left flexible conductive block and the upper left flexible conductive block are arranged opposite to each other, and a positioning groove for placing and matching the insulating rod is provided on the side of the lower left flexible conductive block facing the upper left flexible conductive block, the right detection component includes a lower right flexible conductive block arranged on the right conductive rod and an upper right flexible conductive block arranged on the right pressure rod, the lower right flexible conductive block and the upper right flexible conductive block are arranged opposite to each other, and a positioning groove is provided on the side of the lower right flexible conductive block facing the upper right flexible conductive block.

[0008] By adopting the above technical solution, the insulating rod is synchronously transmitted between the lower left flexible conductive block and the upper left flexible conductive block, and between the lower right flexible conductive block and the upper right flexible conductive block, and placed in two positioning grooves. The left pressure rod drives the upper left flexible conductive block to move toward the lower left flexible conductive block to press and fix the insulating rod, and the right pressure rod drives the upper right flexible conductive block to move toward the lower right flexible conductive block to press and fix the insulation. The insulating rod located in the detection station is pre-positioned by setting the positioning groove to prevent the insulating rod from being misplaced during transportation, so as to ensure stable transmission. The positioning groove cooperates with the flexible conductive block to further increase the contact area with the insulating rod, thereby improving the accuracy of the test.

[0009] It is further configured as follows: the feeding mechanism includes a feeding seat, a plurality of placement slots formed on the feeding seat, a driving component that drives the feeding seat to reciprocate from the feeding end to the discharging end, and a lifting component that is linked with the driving component and is used to control the lifting of the feeding seat during the reciprocating motion of the feeding seat.

[0010] By adopting the above technical solution, the forward and backward movement of the driving component is coordinated with the up and down movement of the upper lifting component to control the feeding seat to drive the insulating rod to move from the feeding end to the discharging end between the detection stations, and cooperate with the set placement slot to ensure the stable transmission of the insulating rod, so as to complete the transmission operation of the insulating rod. This method only needs one driving source to achieve up and down and forward and backward movement, which is lower cost and more environmentally friendly.

[0011] It is further configured as follows: the driving assembly includes a fixed seat, a driving shaft rotatably set on the fixed seat, an end face cam rotating with the driving shaft, a transmission shaft set on the fixed seat and sliding back and forth toward the end face cam, an elastic member driving one end of the transmission shaft to abut against the end face cam, and a first driving member for driving the driving shaft to rotate.

[0012] By adopting the above technical solution, the first driving member drives the end face cam to rotate through the driving shaft, and the elastic member drives the transmission shaft to abut against the end face cam to realize the reciprocating motion of the transmission shaft in cooperation with the end face cam.

[0013] It is further configured as follows: the lifting assembly includes an eccentric wheel that rotates with the driving shaft and a lifting rod that is slidably arranged on the transmission shaft in the vertical direction and moves with the transmission shaft, the upper end of the lifting rod is connected to the feeding seat, and the lower end is connected to a contact plate that abuts against the eccentric wheel, the movement stroke of the end face cam abutting against the transmission shaft includes a recessed lifting plane, a protruding lifting plane and two movement transition surfaces connecting the two, the recessed lifting plane, one of the movement transition surfaces, the protruding lifting plane and the other movement transition surface are connected end to end in sequence around the center of the end face cam and are arranged in a circular distribution.

[0014] By adopting the above technical solution, the lifting rod realizes reciprocating motion with the transmission shaft and drives the lifting rod to perform lifting motion through the cooperation between the eccentric wheel and the abutment plate during the reciprocating motion, thereby realizing that one driving source completes the driving in two directions. When the transmission rod moves in the concave lifting plane or the convex lifting plane, the lifting rod performs an upward or downward motion, and when the transmission rod is located at one of the motion transition surfaces, the transmission rod performs a forward or backward motion, thereby completing the transmission operation of the insulating rod.

[0015] It is further configured as follows: one end of the left pressure rod is hinged to the left conductive rod through a left first connecting arm, and one end of the right pressure rod is hinged to the right conductive rod through a right first connecting arm; the first control component includes a left second connecting arm hinged between the other end of the left pressure rod and the left conductive rod, a right second connecting arm hinged between the other end of the right pressure rod and the right conductive rod, a connecting rod connecting the left second connecting arm and the right second connecting arm, and a second driving member that drives the connecting rod to move.

[0016] By adopting the above technical solution, the second driving member drives the left pressure rod and the right pressure rod to move synchronously through the connecting rod, and the left first connecting arm, the left second connecting arm, the right first connecting arm and the right second connecting arm cooperate with each other to realize the synchronous and stable lifting and lowering of the left pressure rod and the right pressure rod, so that the insulating rod can be more stably pressed and fixed in the detection station, and no lateral force will be formed on the insulating rod, thereby preventing the pressing and dislocation phenomenon.

[0017] It is further configured as follows: the feeding mechanism includes a feeding rack arranged above the detection area, a feeding channel formed on the feeding rack and for a plurality of insulating rods to be arranged in sequence, and a connecting channel connecting the feeding channel and the feeding end, and one end of the feeding channel connected to the connecting channel is gradually inclined downward.

[0018] By adopting the above technical solution, a plurality of insulating rods are arranged and placed in the feeding channel, and the insulating rods are transferred toward the connecting channel under the action of gravity, and then transferred to the feeding end through the connecting channel.

[0019] It is further configured as follows: the second control component includes a third driving member fixedly arranged on the loading rack and a plug plate driven by the third driving member, and the third driving member drives the plug plate to enter or leave between the loading channel and the connecting channel.

[0020] By adopting the above technical solution, the third driving member drives the plug plate to be inserted between two adjacent insulating rods, thereby controlling the feeding of the insulating rods.

[0021] It is further configured as follows: a movable frame which reciprocates toward the detection area and a fourth driving member which drives the movable frame to move are provided above the detection area, and a marking member is provided on the movable frame corresponding to each detection station.

[0022] By adopting the above technical solution, after a batch of insulating rods is tested, the fourth driving member drives the movable frame to drive the marking member to move synchronously toward the insulating rods to mark the insulating rods of the batch. After the insulating rods of the batch are output from the discharging end, the staff can better identify the unqualified insulating rods through the markings, so that the unqualified insulating rods can be taken out from the batch more conveniently.

[0023] It is further configured that: the marking piece is a sponge containing pigments of different colors.

[0024] By adopting the above technical solution, after the sponge comes into contact with the insulating rod, the pigments of different colors contained in the sponge adhere to the insulating rod, thereby completing the marking process.

[0025] In summary, the present invention has the following beneficial effects: the present invention uses machinery to replace manual labor to carry out the installation and docking of the process, thereby reducing the amount of manual operation, improving the test efficiency and avoiding existing safety hazards. BRIEF DESCRIPTION OF THE DRAWINGS

[0026] Figure 1 A perspective view of an embodiment;

[0027] Figure 2 It is a structural schematic diagram of an embodiment;

[0028] Figure 3 It is a partial structural schematic diagram of an embodiment;

[0029] Figure 4 It is a structural schematic diagram of the left mounting frame, the right mounting frame and the first control assembly in the embodiment;

[0030] Figure 5 It is a structural schematic diagram of the feeding mechanism in the embodiment;

[0031] Figure 6 It is a schematic diagram of the partial structure of the feeding mechanism in the embodiment;

[0032] Figure 7 It is a structural schematic diagram of the feeding mechanism and the second control component in the embodiment.

[0033] In the figure: 1. operation box; 2. left mounting frame; 21. left insulating base; 22. left conductive rod; 23. left pressure rod; 3. right mounting frame; 31. right insulating base; 32. right conductive rod; 33. right pressure rod; 4. detection area; 5. first control component; 51. left second connecting arm; 52. right second connecting arm; 53. connecting rod; 54. second driving member; 6. detection station; 61. left detection component; 611. lower left flexible conductive block; 612. upper left flexible conductive block; 62. right detection component; 621. lower right flexible conductive block; 622. upper right flexible conductive block; 7. feeding mechanism; 71. feeding seat; 72. placement slot; 73. Fixed seat; 74. Driving shaft; 75. End cam; 76. Transmission shaft; 77. Elastic member; 78. First driving member; 79. Eccentric wheel; 710. Lifting rod; 711. Abutment plate; 8. Feeding mechanism; 81. Feeding rack; 82. Feeding channel; 83. Connecting channel; 9. Second control assembly; 91. Third driving member; 92. Insert plate; 10. Positioning groove; 11. Recessed lifting plane; 12. Protruding lifting plane; 13. Motion transition surface; 14. Left first connecting arm; 15. Right first connecting arm; 16. Movable rack; 17. Fourth driving member; 18. Marking member; 19. Feed end; 20. Discharge end. DETAILED DESCRIPTION

[0034] The present invention is further described in detail below in conjunction with the accompanying drawings.

[0035] refer to Figures 1 to 7A high-voltage operating insulating rod withstand voltage test device comprises an operating box 1, a left mounting frame 2 and a right mounting frame 3. The left mounting frame 2 comprises a left insulating base 21, a left conductive rod 22 fixedly arranged on the left insulating base 21, and a left pressure rod 23 movably arranged on the left conductive rod 22; the right mounting frame 3 comprises a right insulating base 31, a right conductive rod 32 fixedly arranged on the right insulating base 31, and a right pressure rod 33 movably arranged on the right conductive rod 32. The left conductive rod 22 and the right conductive rod 32 are both electrically connected to the operating box 1, and a detection area 4 for detecting the insulating rod is formed between the left conductive rod 22 and the left pressure rod 23, and between the right conductive rod 32 and the right pressure rod 33. It includes a first control component 5 for synchronously controlling the left pressure rod 23 and the right pressure rod 33, one end of the left pressure rod 23 is hinged to the left conductive rod 22 through the left first connecting arm 14, and one end of the right pressure rod 33 is hinged to the right conductive rod 32 through the right first connecting arm 15. The first control component 5 includes a left second connecting arm 51 hinged between the other end of the left pressure rod 23 and the left conductive rod 22, a right second connecting arm 52 hinged between the other end of the right pressure rod 33 and the right conductive rod 32, a connecting rod 53 connecting the left second connecting arm 51 and the right second connecting arm 52, and a second driving member 54 driving the connecting rod 53 to move, the connecting rod 53 is hinged to the left second connecting arm 51 and the right second connecting arm 52, the second driving member 54 is a cylinder, the cylinder body of the cylinder is hinged to the left insulating base 21 and the right insulating base 31, and the piston rod is hinged to the connecting rod 53.

[0036] A plurality of detection stations 6 are arranged in the detection area 4, and a feed end 19 is formed at the front end along the arrangement direction of the detection stations 6, and a discharge end 20 is formed at the end; a feeding mechanism 7 is provided below the detection area 4 to drive each insulating rod to move from the feed end 19 to the discharge end 20 between each detection station 6. A feeding mechanism 8 is connected to the feed end 19, and a second control component 9 for controlling the feeding is provided on the feeding mechanism 8. Each detection station 6 is formed by a left detection component 61 provided between the left conductive rod 22 and the left pressure rod 23, and a right detection component 62 provided between the right conductive rod 32 and the right pressure rod 33. The left detection component 61 includes a lower left flexible conductive block 611 fixedly arranged on the left conductive rod 22 and an upper left flexible conductive block 612 fixedly arranged on the left pressure rod 23. The lower left flexible conductive block 611 and the upper left flexible conductive block 612 are arranged opposite to each other, and a positioning groove 10 for placing and matching the insulating rod is formed on the side of the lower left flexible conductive block 611 facing the upper left flexible conductive block 612. The right detection component 62 includes a lower right flexible conductive block 621 fixedly arranged on the right conductive rod 32 and an upper right flexible conductive block 622 fixedly arranged on the right pressure rod 33. The lower right flexible conductive block 621 and the upper right flexible conductive block 622 are arranged opposite to each other, and a positioning groove 10 is formed on the side of the lower right flexible conductive block 621 facing the upper right flexible conductive block 622. The lower left flexible conductive block 611, the upper left flexible conductive block 612, the lower right flexible conductive block 621 and the upper right flexible conductive block 622 are all composed of conductive cloth fixedly wrapped with sponge.

[0037] The feeding mechanism 7 includes a feeding seat 71, a plurality of placement grooves 72 formed on the upper surface of the feeding seat 71, a driving assembly driving the feeding seat 71 to reciprocate in the direction from the feeding end 19 to the discharging end 20, and a lifting assembly linked with the driving assembly and used to control the lifting of the feeding seat 71 during the reciprocating motion. The distance between adjacent placement grooves 72 is equal to the distance between two adjacent detection stations 6. The driving assembly includes a fixed seat 73, a driving shaft 74 rotatably arranged on the fixed seat 73, an end face cam 75 fixedly arranged on the driving shaft 74, a transmission shaft 76 reciprocatingly slidably arranged on the fixed seat 73 toward the end face cam 75, an elastic member 77 driving one end of the transmission shaft 76 to abut against the end face cam 75, and a first driving member 78. The first driving member 78 is a motor, the motor is fixedly arranged on the fixed seat 73 and the output shaft is fixedly connected to the driving shaft 74, and the elastic member 77 is a spring sleeved on the transmission shaft 76, one end of the spring abuts against the transmission shaft 76, and the other end abuts against the fixed seat 73.

[0038] The lifting assembly includes an eccentric wheel 79 fixedly arranged on the driving shaft 74 and a lifting rod 710 slidingly arranged on the transmission shaft 76 in the vertical direction and moving with the transmission shaft 76. The lifting rod 710 passes through the driving shaft 74 and slides with it. The upper end of the lifting rod 710 is fixedly connected to the feeding seat 71, and the lower end is fixedly connected to a contact plate 711 that abuts against the eccentric wheel 79 and is located above the eccentric wheel 79. The motion stroke of the end face cam 75 against the transmission shaft 76 includes a concave lifting plane 11, a protruding lifting plane 12, and two motion transition surfaces 13 connecting the two. The concave lifting plane 11, one of the motion transition surfaces 13, the protruding lifting plane 12 and the other motion transition surface 13 are connected end to end in sequence around the center of the end face cam 75 and are arranged in a circular distribution. The transmission shaft 76 is rotatably arranged on one end of the end face cam 75 and is provided with a roller that rolls with the end face cam 75.

[0039] The feeding mechanism 8 includes a feeding frame 81 fixedly arranged above the detection area 4, a feeding channel 82 formed on the feeding frame 81 and provided with a plurality of insulating rods arranged in sequence, and a connecting channel 83 connecting the feeding channel 82 and the feeding end 19, and one end of the feeding channel 82 connected to the connecting channel 83 is gradually inclined downward. The second control component 9 includes a third driving member 91 fixedly arranged on the feeding frame 81 and a plug plate 92 driven by the third driving member 91. The third driving member 91 is a cylinder, which is fixedly arranged on the feeding frame 81 and the piston rod is fixedly connected to the plug plate 92. A movable frame 16 that reciprocates in the vertical direction toward the detection area 4 and a fourth driving member 17 that drives the movable frame 16 to move are provided above the detection area 4. The movable frame 16 is slidably arranged on the feeding frame 81, and the fourth driving member 17 is a cylinder, the cylinder body of the cylinder is fixedly connected to the feeding frame 81, and the piston rod is fixedly connected to the movable frame 16. A marking piece 18 is fixedly provided on the movable frame 16 corresponding to each detection station 6 , and the marking piece 18 is a sponge containing pigments of different colors.

[0040] Working process: The first control component 5 controls the left pressure rod 23 and the right pressure rod 33 to open. At this time, the feed end 19 is connected to the connecting channel 83. Then the connecting channel 83 is opened by the second control component 9, so that the insulating rods located in the feeding channel 82 can enter the detection area 4 through the connecting channel 83 and the feed end 19. Then the second control component 9 blocks the feeding, and the insulating rods in the detection area 4 and the connecting channel 83 are transported into the detection station 6 one by one through the feeding mechanism 7, so that the insulating rods in the detection area 4 and the connecting channel 83 will not affect the normal holding of the left pressure rod 23 and the right pressure rod 33. After the detection is completed, different colors are marked on the insulating rods through the marking part 18, and then the insulating rods in the detection station 6 are sent out one by one from the discharge end 20 through the feeding mechanism 7. ( Figure 3 The dotted line in FIG. 1 is used to indicate the movement path of the feeding seat 71).

[0041] This specific embodiment is merely an explanation of the present invention and is not a limitation of the present invention. After reading this specification, those skilled in the art may make non-creative modifications to the present embodiment as needed. However, as long as they are within the scope of the claims of the present invention, they are protected by the patent law.

Claims

1. A high-voltage operating insulating rod withstand voltage test device, comprising an operating box (1), a left mounting frame (2) and a right mounting frame (3), wherein the left mounting frame (2) comprises a left insulating base (21), a left conductive rod (22) arranged on the left insulating base (21) and a left pressure rod (23) movably arranged on the left conductive rod (22), and the right mounting frame (3) comprises a right insulating base (31), a right conductive rod (32) arranged on the right insulating base (31) and a right pressure rod (33) movably arranged on the right conductive rod (32), and a detection area (4) for detecting insulating rods is formed between the left conductive rod (22) and the left pressure rod (23) and between the right conductive rod (32) and the right pressure rod (33), characterized in that: The invention comprises a first control component (5) for synchronously controlling a left pressure rod (23) and a right pressure rod (33); a plurality of detection stations (6) arranged in an array are formed in the detection area (4); a feeding end is formed at the front end along the arrangement direction of the detection stations (6); and a discharging end is formed at the rear end; a feeding mechanism (7) is provided below the detection area (4) for driving each insulating rod to move from the feeding end to the discharging end between each detection station (6); a loading mechanism (8) is connected to the feeding end; a second control component (9) for controlling loading is connected to the loading mechanism (8); each detection station (6) comprises a left detection component (61) arranged between a left conductive rod (22) and a left pressure rod (23) and a right detection component (62) arranged between a right conductive rod (32) and a right pressure rod (33); the left detection component (61) comprises a lower left flexible conductive block (611) arranged on the left conductive rod (22) and an upper left flexible conductive block (612) arranged on the left pressure rod (23), the lower left flexible conductive block (611) and the upper left flexible conductive block (612) being arranged opposite to each other, and a positioning groove (10) for placing and matching the insulating rod is provided on the side of the lower left flexible conductive block (611) facing the upper left flexible conductive block (612), and the right detection component (62) comprises a lower right flexible conductive block (621) arranged on the right conductive rod (32) and an upper right flexible conductive block (622) arranged on the right pressure rod (33), the lower right flexible conductive block (621) and the upper right flexible conductive block (622) being arranged opposite to each other, and a positioning groove (10) is provided on the side of the lower right flexible conductive block (621) facing the upper right flexible conductive block (622).

2. The high voltage operating insulating rod withstand voltage test device according to claim 1, characterized in that: The feeding mechanism (7) comprises a feeding seat (71), a plurality of placement grooves (72) formed on the feeding seat (71), a driving component for driving the feeding seat (71) to reciprocate in a direction from a feeding end to a discharging end, and a lifting component linked to the driving component and used to control the lifting of the feeding seat (71) during its reciprocating motion.

3. The high voltage operating insulating rod withstand voltage test device according to claim 2, characterized in that: The driving assembly comprises a fixed seat (73), a driving shaft (74) rotatably disposed on the fixed seat (73), an end face cam (75) rotating with the driving shaft (74), a transmission shaft (76) reciprocatingly slidably disposed on the fixed seat (73) toward the end face cam (75), an elastic member (77) driving one end of the transmission shaft (76) to abut against the end face cam (75), and a first driving member (78) for driving the driving shaft (74) to rotate.

4. The high voltage operating insulating rod withstand voltage test device according to claim 3, characterized in that: The lifting assembly comprises an eccentric wheel (79) rotating with the driving shaft (74) and a lifting rod (710) slidably arranged on the transmission shaft (76) in the vertical direction and moving with the transmission shaft (76); the upper end of the lifting rod (710) is connected to the feeding seat (71), and the lower end is connected to a contact plate (711) abutting against the eccentric wheel (79); the movement stroke of the end face cam (75) abutting against the transmission shaft (76) comprises a recessed lifting plane (11), a protruding lifting plane (12) and two motion transition surfaces (13) connecting the two; the recessed lifting plane (11), one of the motion transition surfaces (13), the protruding lifting plane (12) and the other motion transition surface (13) are connected end to end in sequence around the center of the end face cam (75) and are arranged in a circular distribution.

5. The high voltage operating insulating rod withstand voltage test device according to claim 1, characterized in that: One end of the left pressure rod (23) is hinged to the left conductive rod (22) through a left first connecting arm (14), and one end of the right pressure rod (33) is hinged to the right conductive rod (32) through a right first connecting arm (15). The first control component (5) comprises a left second connecting arm (51) hinged between the other end of the left pressure rod (23) and the left conductive rod (22), a right second connecting arm (52) hinged between the other end of the right pressure rod (33) and the right conductive rod (32), a connecting rod (53) connecting the left second connecting arm (51) and the right second connecting arm (52), and a second driving member (54) driving the connecting rod (53) to move.

6. The high voltage operating insulating rod withstand voltage test device according to claim 1, characterized in that: The feeding mechanism (8) comprises a feeding frame (81) arranged above the detection area (4), a feeding channel (82) formed on the feeding frame (81) and on which a plurality of insulating rods are arranged in sequence, and a connecting channel (83) connecting the feeding channel (82) and a feeding end, wherein one end of the feeding channel (82) connected to the connecting channel (83) is arranged to be gradually inclined downward.

7. The high voltage operating insulating rod withstand voltage test device according to claim 6, characterized in that: The second control component (9) comprises a third driving member (91) fixedly arranged on the loading frame (81) and a plug plate (92) driven by the third driving member (91), wherein the third driving member (91) drives the plug plate (92) to enter or leave between the loading channel (82) and the connecting channel (83).

8. The high voltage operating insulating rod withstand voltage test device according to claim 1, characterized in that: A movable frame (16) that reciprocates toward the detection area (4) and a fourth driving member (17) that drives the movable frame (16) to move are provided above the detection area (4), and a marking member (18) is provided on the movable frame (16) corresponding to each detection station (6).

9. The high voltage operating insulating rod withstand voltage test device according to claim 8, characterized in that: The marking element (18) is a sponge containing pigments of different colors.

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