Automatic debugging equipment and debugging method for safe and intelligent power system

Abstract

The invention provides an automatic debugging device and debugging method for a safe intelligent power system, and the device comprises a debugging device, the debugging device is provided with a supporting frame, the interior of the supporting frame is in sliding fit with a debugging structure, the debugging structure comprises a sleeve, the interior of the sleeve is elastically matched with a push block and a clamping structure, and the clamping structure corresponds to the push block. A plurality of debugging buttons and a plurality of debugging knobs are arranged on the debugging equipment, the clamping structure corresponds to the debugging knobs, a first activated carbon plate and a second activated carbon plate are arranged in the supporting frame, and positioning structures are arranged on the first activated carbon plate and the second activated carbon plate. A debugging button or a debugging knob can be automatically pressed down, so that full automation is realized; air blowing heat dissipation can be performed through the air blowing structure, and the air blowing direction can be adjusted according to the air humidity, so that the humidity of the working environment of the debugging equipment is relatively proper, and the humidity is prevented from being too high or too low.

Description

Technical Field

[0001] The present invention relates to the technical field of power systems, and in particular to a safe and intelligent power system automatic debugging device and a debugging method. Background Art

[0002] The power system can be used for AC transmission above 750 kV, large-scale power grid security and defense systems, and intelligent dispatching systems. It includes various types of terminal hardware, edge computing gateways, system software, and terminals. Power dispatching is an effective management method used to ensure the safe and stable operation of the power grid, reliable external power supply, and the orderly operation of various power production operations. Power dispatching is based on data feedback from various information collection devices or information provided by monitoring personnel. When conducting power dispatching, automated power dispatching commissioning devices are required. Commissioning is crucial in high-voltage power systems. Existing automatic commissioning devices often include display screens and operation panels, typically controlled by control buttons and touch panels. Although automated control is possible through the operation panel, mechanical buttons are often installed for emergency control, requiring manual operation, preventing full automation. Furthermore, static electricity often accumulates during operation in the commissioning device, shortening its service life.

[0003] To this end, the present invention provides a safe and intelligent power system automation debugging device and debugging method. Summary of the Invention

[0004] In view of the shortcomings of the existing technology, the purpose of the present invention is to provide a safe and intelligent power system automatic debugging equipment and debugging method to solve the problems raised in the above background technology. The present invention can automatically press the debugging button or debugging knob to achieve full automation; the blowing structure can be used to blow air to dissipate heat, and the blowing direction can be adjusted according to the air humidity to ensure that the humidity of the working environment of the debugging equipment is more appropriate to prevent the humidity from being too high or too low; the air outlet can be blocked when not in use, so that dust enters the air outlet and affects the operation of the debugging equipment; anti-static liquid can be sprayed to remove static electricity, thereby preventing static electricity from accumulating in the debugging equipment; it can achieve a better dehumidification effect, and can ensure that the debugging button can be pressed accurately or the debugging knob can be controlled to rotate.

[0005] In order to achieve the above-mentioned purpose, the present invention is realized through the following technical scheme: a safe and intelligent power system automation debugging device, including a debugging device, the debugging device is equipped with a support frame, and a debugging structure is slidably fitted in the support frame, the debugging structure includes a sleeve, a push block and a clamping structure are elastically fitted in the sleeve, and the clamping structure corresponds to the push block. The debugging device is equipped with multiple debugging buttons and multiple debugging knobs, and the clamping structure corresponds to the debugging knob. A first activated carbon plate and a second activated carbon plate are installed in the support frame, and a positioning structure is installed on the first activated carbon plate and the second activated carbon plate, and the positioning structure corresponds to the sleeve. The side and top of the debugging device are equipped with a blowing structure, and the side of the debugging device is slidably fitted with a baffle, and the baffle corresponds to the blowing structure and the support frame. A cavity is opened in the baffle, and a pump head is installed at the bottom of the cavity. A spraying structure is installed on the side of the debugging device, and the spraying structure corresponds to the pump head and the second activated carbon plate.

[0006] Furthermore, a first electric slide rail is fixed on both sides of the support frame, a second electric slide rail is installed between the two first electric slide rails, the output end of the first electric slide rail is fixedly connected to the second electric slide rail, a slider is fixed to the output end of the second electric slide rail, and a driving structure is installed between the slider and the sleeve.

[0007] Furthermore, the driving structure includes an electric cylinder and a motor, the slider is fixedly connected to the electric cylinder, the output end of the electric cylinder is fixedly connected to the motor, a push rod is fixed on one side of the electric cylinder, the output end of the motor is fixedly connected to the sleeve, a plurality of pressure sensors are fixed on the lower side of the sleeve, the pressure sensors are in contact with the first activated carbon plate, a first slide groove is opened in the support frame, the first slide groove corresponds to the first activated carbon plate, and the positioning structure includes a plurality of through grooves opened in the first activated carbon plate, and the through grooves correspond to the sleeve.

[0008] Furthermore, the side and top of the debugging device are respectively provided with multiple first air outlets and multiple second air outlets, and the side of the supporting frame is provided with multiple third air outlets. A first filter is fixed in the first air outlet, and a second filter is fixed in the third air outlet. The blowing structure includes a first fan fixed in the first air outlet and a second fan fixed in the second air outlet.

[0009] Furthermore, a second slide groove is provided on the side of the support frame and the debugging equipment, the second slide groove is connected to the first air outlet, the second slide groove corresponds to the baffle, a push plate is fixed on one side of the baffle, and static electricity removal liquid is installed in the cavity, and a third slide groove is provided in the support frame, the third slide groove corresponds to the push plate, a liquid inlet is provided on one side of the baffle, and the liquid inlet is connected to the cavity.

[0010] Furthermore, the spraying structure includes an elastic telescopic rod fixed in the second slide groove, one end of the elastic telescopic rod corresponds to the pump head, a pressure rod is fixed on one side of the second activated carbon plate, the pressure rod includes a first rod body and a second rod body, the first rod body is rotatably connected to the second rod body, the first rod body is slidably connected to the second slide groove, and the end of the second rod body is rotatably connected to the elastic telescopic rod.

[0011] Furthermore, a first spring is fixed between the second slide groove and the baffle, and a groove is provided in the baffle, and the groove corresponds to the first air outlet.

[0012] Furthermore, a connecting rod is fixed between the two baffles, and the connecting rod corresponds to the third sliding groove.

[0013] Furthermore, multiple second springs are fixed between the sleeve and the push block, the clamping structure includes a clamping plate, the sleeve and the clamping plate are rotatably connected, a third spring is fixed between the sleeve and the clamping plate, a first electrode sheet is fixed in the sleeve, and a second electrode sheet is fixed on the push block.

[0014] A method for debugging a safe and intelligent power system automation debugging device comprises the following steps: S1. Connect the power system to the debugging equipment, and control the power system switch or change the working parameters of the power system through the debugging equipment; S2. Start the first electric slide and the second electric slide, drive the sleeve to move through the first electric slide and the second electric slide, press the button or rotate the knob through the sleeve to control the operation of the debugging device; S3. During the operation of the debugging equipment, start the first or second fan to dissipate heat from the debugging equipment. At the same time, when the sleeve is pressed down by pressing the button or rotating the knob, the pump head is pressed to spray anti-static liquid to ensure air humidity and prevent static electricity from accumulating in the debugging equipment and causing damage to the debugging equipment. S4. Dehumidify through activated carbon plates and adjust and control humidity to prevent the working environment of the debugging equipment from being too humid.

[0015] Beneficial effects of the present invention: The present invention provides a safe and intelligent power system automation debugging device and debugging method, which includes a support frame; a debugging structure; a sleeve; a push block; a clamping structure; a debugging button; a debugging knob; a debugging device; a blowing structure; a baffle; a cavity; a pump head; a spraying structure; a first activated carbon plate; a second activated carbon plate; and a positioning structure.

[0016] A debugging structure is installed in the supporting frame, and the debugging structure includes a sleeve. A push block and a clamping structure are installed in the sleeve, and the debugging button or debugging knob can be automatically pressed to achieve full automation. A blowing structure is installed on the side and top of the debugging equipment, and the blowing structure can be used to blow air to dissipate heat, and the blowing direction can be adjusted according to the air humidity, so as to ensure that the humidity of the working environment of the debugging equipment is relatively appropriate to prevent the humidity from being too high or too low. A baffle is slidably installed on the side of the debugging equipment to block the air outlet when not in use, so that dust entering the air outlet affects the operation of the debugging equipment. A pump head is installed at the bottom of the cavity, and a spraying structure is installed on the side of the debugging equipment to spray anti-static liquid for anti-static, so as to prevent static electricity from accumulating in the debugging equipment. A first activated carbon plate and a second activated carbon plate are installed in the supporting frame to achieve a better dehumidification effect. A positioning structure is installed on the first activated carbon plate and the second activated carbon plate to ensure that the debugging button can be pressed accurately or the debugging knob can be controlled to rotate. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] Figure 1 This is a schematic diagram of the overall assembly structure of a safe and intelligent power system automation debugging device and debugging method of the present invention; Figure 2 This is a schematic diagram of the assembled three-dimensional structure of the electric cylinder and the motor in a safe and intelligent power system automation debugging device and debugging method of the present invention; Figure 3 This is a schematic diagram of the assembled three-dimensional structure of a baffle in a safe and intelligent power system automation debugging device and debugging method of the present invention; Figure 4 This is a schematic diagram of the assembly structure of the baffle during heat dissipation in a safe and intelligent power system automation debugging device and debugging method of the present invention; Figure 5 This is a schematic diagram of the assembly structure of the baffle when not dissipating heat in a safe and intelligent power system automation debugging device and debugging method of the present invention; Figure 6 This is a schematic diagram of the overall assembly cross-sectional structure of a safe and intelligent power system automation debugging device and debugging method of the present invention; Figure 7 This is a schematic diagram of the assembly structure of a sleeve and a debugging knob in a safe and intelligent power system automation debugging device and debugging method of the present invention; Figure 8 This is a schematic diagram of the assembly structure when the sleeve presses down the debugging knob in a safe and intelligent power system automation debugging device and debugging method of the present invention; Figure 9 This is a schematic diagram of the assembled three-dimensional structure of the support frame, the first electric slide rail, and the second electric slide rail in a safe and intelligent power system automation debugging device and debugging method of the present invention; Figure 10This is a schematic diagram of the assembly structure of the support frame and baffle in a safe and intelligent power system automation debugging device and debugging method of the present invention; Figure 11 This is a schematic diagram of the assembled three-dimensional structure of the debugging device, debugging button, and debugging knob in a safe and intelligent power system automation debugging device and debugging method of the present invention; In the figure: 1. Debugging equipment; 2. Debugging button; 3. Debugging knob; 4. First air outlet; 5. Second air outlet; 6. First fan; 7. Second fan; 8. Support frame; 9. Third air outlet; 10. First slide; 11. First activated carbon plate; 12. Second activated carbon plate; 13. First electric slide; 14. Second electric slide; 15. Slider; 16. Electric cylinder; 17. Motor; 18. Push rod; 19. Sleeve; 20. Push block; 21. Pressure sensor; 22. First spring; 23. First electrode sheet; 24. Second electrode sheet; 25. Clamp; 26. Second spring; 27. Through slot; 28. Baffle; 29. ​​Cavity; 30. Liquid inlet; 31. Pump head; 32. Elastic telescopic rod; 33. Second slide; 34. First filter; 35. Second filter; 36. Third slide; 37. Push plate; 38. Pressure rod; 39. Third spring; 40. Groove; 41. Connecting rod. DETAILED DESCRIPTION

[0018] In order to make the technical means, creative features, objectives and effects achieved by the present invention easier to understand, the present invention is further described below in conjunction with specific implementation methods.

[0019] See also Figures 1 to 11 The present invention provides a technical solution: a safe and intelligent power system automation debugging device and debugging method, including a debugging device 1, a support frame 8 is installed on the debugging device 1, a debugging structure is slidably fitted in the support frame 8, the debugging structure includes a sleeve 19, a push block 20 and a clamping structure are elastically fitted in the sleeve 19, the clamping structure corresponds to the push block 20, the debugging device 1 is equipped with a plurality of debugging buttons 2 and a plurality of debugging knobs 3, the clamping structure corresponds to the debugging knob 3, the support frame 8 is equipped with a first activated carbon Plate 11 and the second activated carbon plate 12, the first activated carbon plate 11 and the second activated carbon plate 12 are equipped with a positioning structure, the positioning structure corresponds to the sleeve 19, the side and top of the debugging equipment 1 are equipped with a blowing structure, the side of the debugging equipment 1 is slidably matched with a baffle 28, the baffle 28 corresponds to the blowing structure and the support frame 8, a cavity 29 is opened in the baffle 28, and a pump head 31 is installed at the bottom of the cavity 29, and a spraying structure is installed on the side of the debugging equipment 1, and the spraying structure corresponds to the pump head 31 and the second activated carbon plate 12.

[0020] In this embodiment, first electric slide rails 13 are fixed on both sides of the support frame 8, a second electric slide rail 14 is installed between the two first electric slide rails 13, the output end of the first electric slide rail 13 is fixedly connected to the second electric slide rail 14, a slider 15 is fixed to the output end of the second electric slide rail 14, and a driving structure is installed between the slider 15 and the sleeve 19.

[0021] Specifically, the slider 15 is driven to move by the first electric slide 13 and the second electric slide 14, thereby driving the sleeve 19 to slide to the required place, and the driving structure can drive the sleeve 19 to act on the debugging button 2 and the debugging knob 3, thereby controlling the operation of the debugging device 1.

[0022] The driving structure includes an electric cylinder 16 and a motor 17. The slider 15 is fixedly connected to the electric cylinder 16. The output end of the electric cylinder 16 is fixedly connected to the motor 17. A push rod 18 is fixed on one side of the electric cylinder 16. The output end of the motor 17 is fixedly connected to the sleeve 19. A plurality of pressure sensors 21 are fixed on the lower side of the sleeve 19. The pressure sensors 21 are in contact with the first activated carbon plate 11. A first slide groove 10 is provided in the support frame 8. The first slide groove 10 corresponds to the first activated carbon plate 11. The positioning structure includes a plurality of through grooves 27 provided in the first activated carbon plate 11. The through grooves 27 correspond to the sleeve 19. The control equipment of the electric slide rail is installed in the support frame 8, and the pressure sensor 21 is connected to the control equipment of the electric slide rail.

[0023] Specifically, the slider 15 is driven to move by the first electric slide 13 and the second electric slide 14, thereby driving the sleeve 19 to move, and the pressure sensor 21 is always in contact with the first activated carbon plate 11. When it slides to the required position, the sleeve 19 slides as a whole to above the through groove 27. At this time, the pressure sensor 21 is not in contact with the first activated carbon plate 11, and then the first electric slide 13 and the second electric slide 14 are controlled to stop moving, thereby achieving precise positioning.

[0024] Start the electric cylinder 16, so that the electric cylinder 16 drives the motor 17 to move downward, thereby driving the sleeve 19 to move downward until the sleeve 19 passes through the through slot 27, so that the sleeve 19 contacts the debugging button 2 and the debugging knob 3, and the debugging button 2 and the debugging knob 3 can be actuated.

[0025] The side and top of the debugging equipment 1 are respectively provided with multiple first air outlets 4 and multiple second air outlets 5, and the side of the supporting frame 8 is provided with multiple third air outlets 9. A first filter 34 is fixed in the first air outlet 4, and a second filter 35 is fixed in the third air outlet 9. The blowing structure includes a first fan 6 fixed in the first air outlet 4 and a second fan 7 fixed in the second air outlet 5.

[0026] Specifically, air can be blown through the first fan 6 in the first air outlet 4 or the second fan 7 in the second air outlet 5. When the first fan 6 is started for blowing, air is taken in through the first air outlet 4 and blown through the second air outlet 5; when the second fan 7 is started for blowing, air is taken in through the second air outlet 5 and air is discharged from the first air outlet 4. The first fan 6 or the second fan 7 can be selected for blowing according to the humidity.

[0027] A second chute 33 is provided on the side of the support frame 8 and the debugging equipment 1, and the second chute 33 is connected to the first air outlet 4. The second chute 33 corresponds to the baffle 28. A push plate 37 is fixed to one side of the baffle 28. The cavity 29 is filled with anti-static liquid. A third chute 36 is provided in the support frame 8, and the third chute 36 corresponds to the push plate 37. A liquid inlet 30 is provided on one side of the baffle 28, and the liquid inlet 30 is connected to the cavity 29. The spraying structure includes an elastic telescopic rod 32 fixed in the second chute 33, one end of the elastic telescopic rod 32 corresponds to the pump head 31, and a pressure rod 38 is fixed to one side of the second activated carbon plate 12. The pressure rod 38 includes a first rod body and a second rod body. The first rod body is rotatably connected to the second rod body, the first rod body is slidably connected to the second chute 33, and the end of the second rod body is rotatably connected to the elastic telescopic rod 32.

[0028] Specifically, when the debugging device 1 is not working, the first electric slide rail 13 and the second electric slide rail 14 drive the slider 15 to move to the corner, so that the slider 15 drives the electric cylinder 16 to move. At this time, the push rod 18 on the electric cylinder 16 pushes the push plate 37, thereby driving the baffle 28 to move, so that the baffle 28 drives the pump head 31 to contact the elastic telescopic rod 32, so that the elastic telescopic rod 32 squeezes the pump head 31, so that the pump head 31 can spray out the anti-static liquid, thereby spraying the anti-static liquid into the debugging device 1 to remove static electricity.

[0029] The peripheral side of the sleeve 19 is a rough surface structure, and the diameter of the through groove 27 in the second activated carbon plate 12 is slightly smaller than the through groove 27 in the first activated carbon plate 11. The second activated carbon plate 12 slides up and down in the support frame 8. When the sleeve 19 is pressed down, the sleeve 19 contacts the second activated carbon plate 12, thereby driving the second activated carbon plate 12 to move downward, so that the second activated carbon plate 12 pushes the elastic telescopic rod 32 through the pressure rod 38, so that the elastic telescopic rod 32 extends and squeezes the pump head 31, so that the pump head 31 sprays out the static-eliminating liquid in the cavity 29. When the sleeve 19 is reset, the elastic telescopic rod 32 rebounds, thereby pushing the second activated carbon plate 12 through the pressure rod 38. At the same time, the friction of the sleeve 19 sliding upward can also drive the second activated carbon plate 12 to reset.

[0030] A first spring 22 is fixed between the second chute 33 and the baffle 28 . A groove 40 is defined in the baffle 28 , corresponding to the first air outlet 4 . A connecting rod 41 is fixed between the two baffles 28 , corresponding to the third chute 36 .

[0031] Specifically, the push plate 37 is pushed by the push rod 18, thereby driving the baffle 28 to slide, so that the baffle 28 squeezes the first spring 22, and the first spring 22 is compressed. When the debugging device 1 is working, the push rod 18 no longer limits the push plate 37. At this time, the baffle 28 can be pushed to reset by the first spring 22, thereby no longer blocking the first air outlet 4, so that the first air outlet 4 can take in or out air.

[0032] A plurality of second springs 26 are fixed between the sleeve 19 and the push block 20. The clamping structure includes a clamping plate 25. The sleeve 19 and the clamping plate 25 are rotatably connected. A third spring 39 is fixed between the sleeve 19 and the clamping plate 25. A first electrode sheet 23 is fixed in the sleeve 19, and a second electrode sheet 24 is fixed on the push block 20.

[0033] Specifically, when the debugging button 2 needs to be pressed, the sleeve 19 is driven downward by the electric cylinder 16, so that the sleeve 19 passes through the through slot 27 until the push plate 37 contacts the debugging button 2, so that the push plate 37 squeezes the debugging button 2 downward, and the debugging button 2 can be pressed.

[0034] When it is necessary to turn the debugging knob 3, the sleeve 19 is driven downward by the electric cylinder 16, so that the sleeve 19 passes through the through slot 27 until the push plate 37 contacts the debugging knob 3. At this time, the sleeve 19 is continued to be pressed down, and the debugging knob 3 squeezes the push plate 37 upward, so that the push plate 37 moves upward, and the push plate 37 squeezes the clamping plate 25, so that the clamping plate 25 rotates to clamp the debugging knob 3, and then the motor 17 is started, so that the motor 17 drives the debugging knob 3 to rotate.

[0035] Working process: When the outside air is relatively humid, the second fan 7 is started to blow air into the debugging device 1. At this time, the second air inlet 5 takes in air and the first air inlet 4 blows air. The air entering the debugging device 1 is dried by the first activated carbon plate 11 and the second activated carbon plate 12. Therefore, relatively dry air can be blown into the debugging device 1. At this time, when the sleeve 19 is pressed down, most of the static electricity removal liquid sprayed by the pump head 31 will be blown out from the first air inlet 4 by the wind to prevent the debugging device 1 from being relatively humid.

[0036] When the outside air is dry, the first fan 6 is started to blow air into the debugging device 1. At this time, the first air outlet 4 takes in air and the second air outlet 5 discharges air. At this time, when the sleeve 19 is pressed down, the pump head 31 blows out the anti-static liquid, which can be blown into the debugging device 1 through the first fan 6, thereby removing static electricity.

[0037] When the machine stops working, the first electric slide rail 13 and the second electric slide rail 14 drive the slider 15 to move to the corner, so that the slider 15 drives the electric cylinder 16 to move, and the push rod 18 on the electric cylinder 16 pushes the push plate 37, thereby driving the baffle 28 to move, so that the baffle 28 drives the pump head 31 to contact the elastic telescopic rod 32, so that the elastic telescopic rod 32 squeezes the pump head 31, so that the pump head 31 can spray out the anti-static liquid. At this time, the baffle 28 has not completely blocked the first air outlet 4, and the first fan 6 can blow the anti-static liquid into the debugging equipment 1 until the baffle 28 completely blocks the first air outlet 4, and then the first fan 6 is turned off.

[0038] A method for debugging a safe and intelligent power system automation debugging device comprises the following steps: S1. Connect the power system to the debugging equipment, and control the power system switch or change the working parameters of the power system through the debugging equipment; S2. Start the first electric slide and the second electric slide, drive the sleeve to move through the first electric slide and the second electric slide, press the button or rotate the knob through the sleeve to control the operation of the debugging device; S3. During the operation of the debugging equipment, start the first or second fan to dissipate heat from the debugging equipment. At the same time, when the sleeve is pressed down by pressing the button or rotating the knob, the pump head is pressed to spray anti-static liquid to ensure air humidity and prevent static electricity from accumulating in the debugging equipment and causing damage to the debugging equipment. S4. Dehumidify through activated carbon plates and adjust and control humidity to prevent the working environment of the debugging equipment from being too humid.

[0039] Specifically, the power system is connected to the debugging device through a data cable, and the power system can be debugged through the debugging device. The sleeve is driven to move by the first electric slide rail and the second electric slide rail, and the sleeve can be moved to the button to be pressed, and then the sleeve is driven downward by the electric cylinder to press it.

[0040] The first or second fan can be used for blowing and cooling. When the external air is relatively dry, the first fan can be started to blow the dry air from the outside into the debugging equipment. At the same time, the anti-static liquid can be sprayed out through the pump head for humidification to prevent static electricity accumulation. When the outside air is relatively humid, the second fan is started so that the air can be dried through the activated carbon plate, and then the air is blown into the debugging equipment through the second fan. At this time, the static electricity removal liquid sprayed by the pump head can be blown out of the first air outlet.

[0041] In addition, it should be understood that although this specification is described in terms of implementation methods, not every implementation method contains only one independent technical solution. This narrative method of the specification is only for the sake of clarity. Those skilled in the art should regard the specification as a whole. The technical solutions in each embodiment can also be appropriately combined to form other implementation methods that can be understood by those skilled in the art.

Claims

1. A safe and intelligent power system automation debugging device, comprising a debugging device (1), characterized in that: The debugging device (1) is provided with a support frame (8), a debugging structure is slidably fitted in the support frame (8), the debugging structure comprises a sleeve (19), a push block (20) and a clamping structure are elastically fitted in the sleeve (19), the clamping structure corresponds to the push block (20), a plurality of debugging buttons (2) and a plurality of debugging knobs (3) are provided on the debugging device (1), the clamping structure corresponds to the debugging knobs (3), a first activated carbon plate (11) and a second activated carbon plate (12) are provided in the support frame (8), the first activated carbon plate (11) A positioning structure is installed on the first and second activated carbon plates (12), and the positioning structure corresponds to the sleeve (19). A blowing structure is installed on the side and top of the debugging device (1). A baffle (28) is slidably fitted on the side of the debugging device (1), and the baffle (28) corresponds to the blowing structure and the support frame (8). A cavity (29) is opened in the baffle (28), and a pump head (31) is installed at the bottom of the cavity (29). A spraying structure is installed on the side of the debugging device (1), and the spraying structure corresponds to the pump head (31) and the second activated carbon plate (12).

2. A safe and intelligent power system automation debugging device according to claim 1, characterized in that: A first electric slide rail (13) is fixed on both sides of the support frame (8), a second electric slide rail (14) is installed between the two first electric slide rails (13), the output end of the first electric slide rail (13) is fixedly connected to the second electric slide rail (14), a slider (15) is fixed to the output end of the second electric slide rail (14), and a driving structure is installed between the slider (15) and the sleeve (19).

3. The safe and intelligent power system automation debugging equipment according to claim 2, characterized in that: The driving structure includes an electric cylinder (16) and a motor (17), a slider (15) is fixedly connected to the electric cylinder (16), an output end of the electric cylinder (16) is fixedly connected to the motor (17), a push rod (18) is fixed to one side of the electric cylinder (16), an output end of the motor (17) is fixedly connected to a sleeve (19), a plurality of pressure sensors (21) are fixed to the lower side of the sleeve (19), the pressure sensors (21) are in contact with the first activated carbon plate (11), a first chute (10) is provided in the support frame (8), the first chute (10) corresponds to the first activated carbon plate (11), and the positioning structure includes a plurality of through grooves (27) provided in the first activated carbon plate (11), the through grooves (27) corresponding to the sleeve (19).

4. The safe and intelligent power system automation debugging equipment according to claim 1, characterized in that: The debugging device (1) is provided with a plurality of first air vents (4) and a plurality of second air vents (5) on the side and the top, respectively; a plurality of third air vents (9) are provided on the side of the supporting frame (8); a first filter (34) is fixed in the first air vent (4); a second filter (35) is fixed in the third air vent (9); and the blowing structure comprises a first fan (6) fixed in the first air vent (4) and a second fan (7) fixed in the second air vent (5).

5. The safe and intelligent power system automation debugging equipment according to claim 4, characterized in that: The sides of the support frame (8) and the debugging device (1) are both provided with a second chute (33), the second chute (33) is connected to the first air outlet (4), the second chute (33) corresponds to the baffle (28), a push plate (37) is fixed on one side of the baffle (28), and an anti-static liquid is installed in the cavity (29), a third chute (36) is provided in the support frame (8), the third chute (36) corresponds to the push plate (37), a liquid inlet (30) is provided on one side of the baffle (28), and the liquid inlet (30) is connected to the cavity (29).

6. The safe and intelligent power system automation debugging equipment according to claim 5, characterized in that: The spraying structure includes an elastic telescopic rod (32) fixed in the second chute (33), one end of the elastic telescopic rod (32) corresponds to the pump head (31), and a pressure rod (38) is fixed on one side of the second activated carbon plate (12), the pressure rod (38) includes a first rod body and a second rod body, the first rod body is rotatably connected to the second rod body, the first rod body is slidably connected to the second chute (33), and the end of the second rod body is rotatably connected to the elastic telescopic rod (32).

7. The safe and intelligent power system automation debugging equipment according to claim 5, characterized in that: A first spring (22) is fixed between the second sliding groove (33) and the baffle (28), and a groove (40) is provided in the baffle (28), and the groove (40) corresponds to the first air outlet (4).

8. The safe and intelligent power system automation debugging equipment according to claim 5, characterized in that: A connecting rod (41) is fixed between the two baffles (28), and the connecting rod (41) corresponds to the third sliding groove (36).

9. The safe and intelligent power system automation debugging equipment according to claim 1, characterized in that: A plurality of second springs (26) are fixed between the sleeve (19) and the push block (20), the clamping structure includes a clamping plate (25), the sleeve (19) and the clamping plate (25) are rotatably connected, a third spring (39) is fixed between the sleeve (19) and the clamping plate (25), a first electrode sheet (23) is fixed in the sleeve (19), and a second electrode sheet (24) is fixed on the push block (20).

10. The debugging method of a safe and intelligent power system automation debugging device according to claim 1, characterized in that: The following steps are involved: S1. Connect the power system to the debugging equipment, and control the power system switch or change the working parameters of the power system through the debugging equipment; S2. Start the first electric slide and the second electric slide, drive the sleeve to move through the first electric slide and the second electric slide, press the button or rotate the knob through the sleeve to control the operation of the debugging device; S3. During the operation of the debugging equipment, start the first or second fan to dissipate heat from the debugging equipment. At the same time, when the sleeve is pressed down by pressing the button or rotating the knob, the pump head is pressed to spray anti-static liquid to ensure air humidity and prevent static electricity from accumulating in the debugging equipment and causing damage to the debugging equipment. S4. Dehumidify through activated carbon plates and adjust and control humidity to prevent the working environment of the debugging equipment from being too humid.

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