Workshop industrial control cabinet detection device

Abstract

The invention relates to the technical field of industrial control cabinet detection, in particular to a workshop industrial control cabinet detection device which comprises a cabinet body, a cleaning detection mechanism is arranged between the left end and the right end of the inner side of the cabinet body, the cleaning detection mechanism comprises moving plates, and ash removal mechanisms are arranged at the corresponding ends of the two moving plates. According to the workshop industrial control cabinet detection device, a third electric sliding block drives a scraping plate to slide, so that two sets of detectors detect the two side walls of a plurality of sets of semi-rhombic cooling fins, detection is conducted after dust is removed, the detection efficiency is improved, and the detection efficiency is improved. The detection work can be completed more quickly and accurately, time and resources wasted due to repeated detection or misjudgment are reduced, meanwhile, the accurate detection result can avoid unnecessary maintenance and replacement operation, the detection and maintenance cost is reduced, and the working efficiency and economic benefits are improved.

Description

Technical Field

[0001] The present invention relates to the technical field of industrial control cabinet detection, and particularly relates to a workshop industrial control cabinet detection device. Background Art

[0002] A large number of electronic components are contained in the workshop industrial control cabinet, such as programmable logic controllers (PLCs), industrial computers, relays, etc. These electronic components will continuously generate heat during operation. If the heat cannot be dissipated in time, the temperature inside the cabinet will continue to rise. As an efficient heat dissipation device, the heat sink can increase the heat dissipation area, accelerate the heat dissipation speed, conduct the heat from the components to the surface of the heat sink, and then dissipate the heat to the surrounding environment through air convection or other heat dissipation methods, thereby effectively reducing the temperature inside the industrial control cabinet.

[0003] The heat sink is usually made of metal materials such as aluminum and copper. Rusting will form an oxide layer on the surface of the heat sink. The thermal conductivity of this oxide layer is much lower than that of the metal itself, which will hinder the heat conduction from the heat sink to the surrounding environment, resulting in a decrease in heat dissipation efficiency. As the rusting situation worsens, the heat dissipation capacity of the heat sink will be significantly reduced, further increasing the temperature inside the industrial control cabinet, affecting the normal operation of electronic components, and increasing the risk of equipment failure. Moreover, a large amount of dust will be generated during the operation of various production equipment in the workshop. The dust will gradually accumulate on the surface of the heat sink, forming a thick covering layer that completely covers the rusty parts. The dust will interfere with the signal transmission and reception, making it impossible to accurately judge whether the heat sink is rusty. In addition, rusting is a continuous corrosion process that will continuously damage the metal material of the heat sink, greatly shortening the service life of the heat sink, thus requiring the replacement of the heat sink. Different semi-rhombic heat sinks have different inclination angles on the side walls, and the existing cleaning mechanism needs to correspondingly replace the cleaning components according to the inclination angles of the side walls of the semi-rhombic heat sinks, which is rather troublesome. To solve the above problems, we propose a workshop industrial control cabinet detection device. Summary of the Invention

[0004] The main purpose of the present invention is to provide a workshop industrial control cabinet detection device, which can effectively solve the problems in the background art.

[0005] To achieve the above purpose, the technical solution adopted by the present invention is as follows: A workshop industrial control cabinet detection device includes a cabinet body. Between the left and right ends inside the cabinet body, a cleaning and detection mechanism is arranged. The cleaning and detection mechanism includes a moving plate. At one end of the two groups of moving plates corresponding to each other, a dust cleaning mechanism is arranged. The dust cleaning mechanism includes a first rotating block. At the left end of the first rotating block, a second motor is arranged. The output end of the second motor penetrates through the first rotating block and is provided with a transmission shaft. On the outer side wall of the transmission shaft, the left and right ends are fixedly connected with support plates. At the bottom end of the support plates, a first triangular pushing plate is arranged. Inside the first triangular pushing plate, a rotating groove is opened. At the rear end of the rotating groove, an electric telescopic rod is arranged. At the telescopic end of the electric telescopic rod, a fixing frame is arranged. Inside the fixing frame, a second rotating block is rotatably connected. At the other end of the second rotating block, a second triangular pushing plate is arranged. At the rear end of the second triangular pushing plate, a guiding groove is opened. The guiding groove is fitted with the electric telescopic rod. The bottom end of the first triangular pushing plate is rotatably connected with the bottom end of the second triangular pushing plate. The second triangular pushing plate is fitted with the rotating groove.

[0006] Preferably, at one end of the two groups of moving plates corresponding to each other, fourth electric chutes are opened. Inside the multiple fourth electric chutes, fourth electric sliders are slidably connected. At the other end of the multiple fourth electric sliders, second guiding plates are fixedly connected.

[0007] Preferably, at one end of the two groups of second guiding plates corresponding to each other, a second connecting rod is fixedly connected. At the rear end of the second connecting rod, a fifth electric chute is opened. Inside the fifth electric chute, a fifth electric slider is slidably connected. The bottom end of the fifth electric slider is fixedly connected with the top end of the first rotating block.

[0008] Preferably, at the left and right ends inside the cabinet body, first electric chutes are opened. Inside the two groups of first electric chutes, first electric sliders are slidably connected. At one end of the two groups of first electric sliders corresponding to each other, they are fixedly connected with the moving plate. Below one end of the moving plate corresponding to each other, second electric chutes are opened. The second electric chutes are located below the fourth electric chutes.

[0009] Preferably, inside the multiple second electric chutes, second electric sliders are slidably connected. At one end of the two groups of second electric sliders corresponding to each other, first guiding plates are arranged. At one end of the two groups of first guiding plates corresponding to each other, a first connecting rod is fixedly connected. At the rear end of the first connecting rod, a third electric chute is opened.

[0010] Preferably, inside the third electric chute, a third electric slider is slidably connected. At the other end of the third electric slider, a support frame is arranged. At the left side of the bottom end of the support frame, a sensor is arranged. At the left end of the support frame, a first motor is arranged. The output end of the first motor penetrates through the support frame and is provided with a scraping plate. The outer side wall of the top end of the scraping plate is rotatably connected with the inner side wall of the bottom end of the support frame. At the other end of the scraping plate, a triangular groove is opened.

[0011] Preferably, detection grooves are formed at both the upper and lower ends of the scraper, detectors are arranged inside multiple groups of the detection grooves, electromagnetic valves are arranged inside multiple groups of the detection grooves, and the side wall of the electromagnetic valve is flush with the side wall of the scraper.

[0012] Preferably, multiple mounting plates are fixedly connected to the rear end inside the cabinet, multiple semi-rhombic radiating fins are arranged at the front ends of multiple groups of the mounting plates, the side wall of the scraper is in contact with the side wall of the semi-rhombic radiating fin, the rear side wall of the first triangular pushing plate is in close contact with the lower side wall of a group of semi-rhombic radiating fins, and the front side wall of the second triangular pushing plate is in close contact with the upper side wall of another group of semi-rhombic radiating fins.

[0013] Preferably, a dust collection mechanism is arranged inside the first electric chute, the dust collection mechanism is located below the moving plate, the dust collection mechanism includes a sixth electric slider, the two inner sides of the first electric chute are both slidably connected with the sixth electric slider, openings are formed at the corresponding ends of the two sixth electric sliders and are detachably connected with clamping blocks, a collecting box is fixedly connected to the corresponding ends of the two clamping blocks, a placing groove is formed at the top end inside the cabinet, and the bottom end of the collecting box is fitted with the bottom end of the placing groove.

[0014] Preferably, a door panel is rotatably connected to the left side of the front end of the cabinet, an opening is formed at the front end of the door panel and is fixedly connected with an observation window, multiple ventilation holes are formed at both the left and right ends of the cabinet, and multiple partition plates are arranged at both the left and right ends inside the cabinet.

[0015] Compared with the prior art, the present invention has the following beneficial effects: 1. For the industrial control cabinet detection device in the workshop, by moving the support frame near the right end of the semi-rhombic heat sink, the sensor starts to work at this time to detect the angle between the two groups of semi-rhombic heat sinks, thereby starting the first motor to drive the scraper to rotate, making the inclination angle of the side wall of the scraper consistent with that of the semi-rhombic heat sink, and making one side wall of the scraper contact with one side wall of the semi-rhombic heat sink. Subsequently, the third electric slider drives the scraper to slide towards the left end of the semi-rhombic heat sink, so that the scraper clears the dust on the surface of the semi-rhombic heat sink during the process. Then, the second electric slider drives the first connecting rod and the scraper to move forward, enabling the sensor to detect the angle of the other semi-rhombic heat sink, so that the inclination angle of the side wall of the scraper is consistent with that of the semi-rhombic heat sink, adapting to the side walls of semi-rhombic heat sinks with different inclination angles. Subsequently, make one side wall of the scraper contact with one side wall of the semi-rhombic heat sink. Then, the third electric slider drives the scraper to slide towards the right end of the semi-rhombic heat sink, so that the scraper clears the dust on the other surface of the semi-rhombic heat sink during the process. Move the first rotating block to the right end of the semi-rhombic heat sink, and adjust the angle of the second triangular push plate through the telescopic movement of the electric telescopic rod. At the same time, start the second motor to drive the transmission shaft to rotate, driving the support plate, the first triangular push plate and the second triangular push plate to rotate, making the first triangular push plate and the second triangular push plate tightly contact with the upper and lower side walls of the semi-rhombic heat sink respectively, so as to adapt to the side walls of semi-rhombic heat sinks with different inclination angles. Subsequently, drive the first rotating block to slide towards the left end of the semi-rhombic heat sink through the fifth electric slider, so that the first triangular push plate and the second triangular push plate clean the dust remaining between the two groups of semi-rhombic heat sinks during the movement. After cleaning the dust, the transmission and reception of detection signals are no longer interfered by dust, and the detection equipment can obtain the internal information of the heat sink more accurately, thereby more precisely judging the rust situation and improving the reliability of the detection results. Clean the dust on the surface of the heat sink.

[0016] 2. For the industrial control cabinet detection device in the workshop, during the dust cleaning process, the sixth electric slider slides inside, making the collection box always located below the moving plate. Thus, when the scraper and the second triangular push plate clean the dust, the dust will fall into the collection box. When the scraper finishes cleaning the semi-rhombic heat sink, the electromagnetic valves on both side walls of the scraper are activated at this time, causing the two detectors to start operating. Subsequently, make the inclination angle of the side wall of the scraper consistent with that of the semi-rhombic heat sink, and one side wall of the scraper no longer contacts one side wall of the semi-rhombic heat sink. Then, the third electric slider drives the scraper to slide, so that the two detectors detect the two side walls of multiple groups of semi-rhombic heat sinks. Detecting after cleaning the dust can complete the detection work more quickly and accurately, reducing the time and resources wasted due to repeated detection or misjudgment. At the same time, accurate detection results can avoid unnecessary repair and replacement operations, reducing the detection and maintenance costs, and improving the work efficiency and economic benefits. Description of the Drawings

[0017] Figure 1 Schematic diagram of the overall structure of the present invention; Figure 2 Schematic sectional view of the overall structure of the present invention; Figure 3 First partial structural schematic diagram of the cleaning and detection mechanism of the present invention; Figure 4 In the present invention Figure 3 Overall planing diagram; Figure 5 Second partial structural schematic diagram of the cleaning and detection mechanism of the present invention; Figure 6 Partial structural schematic diagram of the dust cleaning mechanism of the present invention; Figure 7 In the present invention Figure 6 Overall planing diagram; Figure 8 Overall schematic diagram of the dust collection mechanism of the present invention.

[0018] In the figure: 1, cabinet body; 12, ventilation hole; 13, door panel; 14, observation window; 15, partition board; 16, placement groove; 17, mounting plate; 18, semi-rhombic heat sink; 2, cleaning and detection mechanism; 3, dust cleaning mechanism; 4, dust collection mechanism; 21, first electric chute; 22, first electric slider; 23, moving plate; 24, second electric chute; 25, second electric slider; 26, first guide plate; 27, first connecting rod; 28, third electric chute; 29, third electric slider; 291, support frame; 292, first motor; 293, scraper; 294, triangular groove; 295, detection groove; 296, detector; 297, solenoid valve; 298, sensor; 31, fourth electric chute; 32, fourth electric slider; 33, second guide plate; 34, second connecting rod; 35, fifth electric chute; 36, fifth electric slider; 37, first rotating block; 38, second motor; 39, support plate; 391, first triangular push plate; 392, rotating groove; 393, second triangular push plate; 394, transmission shaft; 395, second rotating block; 396, electric telescopic rod; 397, guide groove; 398, fixing frame; 41, sixth electric slider; 42, clamping block; 43, collection box. Detailed implementation manners

[0019] In order to make the technical means, creative features, achieved purposes and effects of the present invention easy to understand, the present invention will be further described below in conjunction with specific implementation manners.

[0020] As shown in Figure 1 - Figure 8As shown in the figure, a detection device for industrial control cabinets in a workshop includes a cabinet body 1. Between the left and right ends inside the cabinet body 1, a cleaning and detection mechanism 2 is provided. The cleaning and detection mechanism 2 includes a moving plate 23. At one end of the two groups of moving plates 23 corresponding to each other, a dust cleaning mechanism 3 is provided. The dust cleaning mechanism 3 includes a first rotating block 37. At the left end of the first rotating block 37, a second motor 38 is provided. The output end of the second motor 38 penetrates through the first rotating block 37 and is provided with a transmission shaft 394. On the outer side wall of the transmission shaft 394, support plates 39 are fixedly connected at the left and right ends. At the bottom end of the support plate 39, a first triangular push plate 391 is provided. Inside the first triangular push plate 391, a rotating groove 392 is opened. At the rear end of the rotating groove 392, an electric telescopic rod 396 is provided. At the telescopic end of the electric telescopic rod 396, a fixing frame 398 is provided. Inside the fixing frame 398, a second rotating block 395 is rotatably connected. At the other end of the second rotating block 395, a second triangular push plate 393 is provided. At the rear end of the second triangular push plate 393, a guiding groove 397 is opened. The guiding groove 397 fits with the electric telescopic rod 396. The bottom end of the first triangular push plate 391 is rotatably connected to the bottom end of the second triangular push plate 393. The second triangular push plate 393 fits with the rotating groove 392.

[0021] In this embodiment, at one end of the two groups of moving plates 23 corresponding to each other, a fourth electric sliding groove 31 is opened. Inside the multiple groups of fourth electric sliding grooves 31, fourth electric sliders 32 are slidably connected. At the other end of the multiple groups of fourth electric sliders 32, a second guiding plate 33 is fixedly connected.

[0022] Specifically, start the fourth electric slider 32 to make it slide in the fourth electric sliding groove 31, driving the second guiding plate 33 and the second connecting rod 34 to move.

[0023] In this embodiment, at one end of the two groups of second guiding plates 33 corresponding to each other, a second connecting rod 34 is fixedly connected. At the rear end of the second connecting rod 34, a fifth electric sliding groove 35 is opened. Inside the fifth electric sliding groove 35, a fifth electric slider 36 is slidably connected. The bottom end of the fifth electric slider 36 is fixedly connected to the top end of the first rotating block 37.

[0024] Specifically, start the fifth electric slider 36 to make it slide in the fifth electric sliding groove 35, moving the first rotating block 37 to the right end of the semi-rhombic heat sink 18.

[0025] In this embodiment, at the left and right ends inside the cabinet body 1, first electric sliding grooves 21 are opened. Inside the two groups of first electric sliding grooves 21, first electric sliders 22 are slidably connected. At one end of the two groups of first electric sliders 22 corresponding to each other, they are fixedly connected to the moving plate 23. Below one end of the moving plate 23 corresponding to each other, second electric sliding grooves 24 are opened. The second electric sliding grooves 24 are located below the fourth electric sliding grooves 31.

[0026] Specifically, start the first electric slider 22 to make it slide in the first electric chute 21, drive the moving plate 23 to move to a suitable dust cleaning and detection position, start the second electric slider 25 to make it slide in the second electric chute 24, and drive the first guide plate 26 and the first connecting rod 27 to move.

[0027] In this embodiment, the inner sides of multiple groups of second electric chutes 24 are all slidably connected with second electric sliders 25. One ends of two groups of second electric sliders 25 corresponding to each other are both provided with first guide plates 26. One ends of two groups of first guide plates 26 corresponding to each other are fixedly connected with a first connecting rod 27. A third electric chute 28 is opened at the rear end of the first connecting rod 27.

[0028] Specifically, start the third electric slider 29 to make it slide in the third electric chute 28, and move the support frame 291 to the vicinity of the right end of the semi-rhombic heat sink 18.

[0029] In this embodiment, the inner side of the third electric chute 28 is slidably connected with a third electric slider 29. The other end of the third electric slider 29 is provided with a support frame 291. A sensor 298 is arranged on the left side of the bottom end of the support frame 291. A first motor 292 is arranged at the left end of the support frame 291. The output end of the first motor 292 penetrates through the support frame 291 and is provided with a scraper 293. The outer side wall of the top end of the scraper 293 is rotatably connected with the inner side wall of the bottom end of the support frame 291. A triangular groove 294 is opened at the other end of the scraper 293.

[0030] Specifically, the sensor 298 works to detect the angle size between the two groups of semi-rhombic heat sinks 18, thereby starting the first motor 292 to drive the scraper 293 to rotate, making the inclination angle of the side wall of the scraper 293 consistent with that of the semi-rhombic heat sink 18, and making one side wall of the scraper 293 contact with one side wall of the semi-rhombic heat sink 18.

[0031] In this embodiment, detection grooves 295 are opened at both the upper and lower ends of the scraper 293. Detectors 296 are arranged inside multiple groups of detection grooves 295. Solenoid valves 297 are arranged inside multiple groups of detection grooves 295. The side walls of the solenoid valves 297 are flush with the side walls of the scraper 293.

[0032] Specifically, after the scraper 293 finishes cleaning the semi-rhombic heat sink 18, the solenoid valves 297 located on both side walls of the scraper 293 are started at this time, so that the two groups of detectors 296 start to operate. Then, the inclination angle of the side wall of the scraper 293 is made consistent with that of the semi-rhombic heat sink 18, and one side wall of the scraper 293 no longer contacts one side wall of the semi-rhombic heat sink 18. Subsequently, the third electric slider 29 drives the scraper 293 to slide, so that the two groups of detectors 296 detect the two side walls of multiple groups of semi-rhombic heat sinks 18.

[0033] In this embodiment, multiple groups of mounting plates 17 are fixedly connected to the rear end inside the cabinet body 1. Multiple groups of semi-rhombus heat sinks 18 are arranged at the front ends of the multiple groups of mounting plates 17. The side wall of the scraper 293 is in contact with the side wall of the semi-rhombus heat sink 18. The rear side wall of the first triangular push plate 391 is in close contact with the lower side wall of a group of semi-rhombus heat sinks 18. The front side wall of the second triangular push plate 393 is in close contact with the upper side wall of another group of semi-rhombus heat sinks 18.

[0034] Specifically, one side wall of the scraper 293 is in contact with one side wall of the semi-rhombus heat sink 18. The third electric slider 29 drives the scraper 293 to slide towards the left end of the semi-rhombus heat sink 18, so that the scraper 293 cleans the surface of the semi-rhombus heat sink 18 during the process. The first triangular push plate 391 and the second triangular push plate 393 are respectively in close contact with the upper and lower side walls of the semi-rhombus heat sink 18. Subsequently, the fifth electric slider 36 drives the first rotating block 37 to slide towards the left end of the semi-rhombus heat sink 18, so that the first triangular push plate 391 and the second triangular push plate 393 clean the dust remaining between the two groups of semi-rhombus heat sinks 18 during the movement.

[0035] In this embodiment, a dust collection mechanism 4 is arranged inside the first electric chute 21. The dust collection mechanism 4 is located below the moving plate 23. The dust collection mechanism 4 includes a sixth electric slider 41. The two sides inside the two groups of first electric chutes 21 are both slidably connected to the sixth electric slider 41. Openings are provided at the corresponding ends of the two groups of sixth electric sliders 41 and are detachably connected with clamping blocks 42. A collection box 43 is fixedly connected to the corresponding ends of the two groups of clamping blocks 42. A placement groove 16 is provided at the top end inside the cabinet body 1. The bottom end of the collection box 43 fits with the bottom end of the placement groove 16.

[0036] Specifically, during the dust cleaning process, the sixth electric slider 41 of the dust collection mechanism 4 slides inside the first electric chute 21, so that the collection box 43 is always located below the moving plate 23. Thus, when the scraper 293 and the first triangular push plate 391 and the second triangular push plate 393 clean the dust, the dust will fall into the collection box 43. The multiple groups of first electric sliders 22 and the sixth electric slider 41 respectively drive the moving plate 23 and the clamping block 42 to move upward until the bottom end of the collection box 43 is flush with the top end inside the cabinet body 1. At this time, the collection box 43 fits with the placement groove 16.

[0037] In this embodiment, a door panel 13 is rotatably connected to the left side of the front end of the cabinet body 1. An opening is provided at the front end of the door panel 13 and an observation window 14 is fixedly connected thereto. Multiple groups of ventilation holes 12 are provided at both the left and right ends of the cabinet body 1. Multiple groups of partition plates 15 are arranged at both the left and right ends inside the cabinet body 1.

[0038] Specifically, the components inside the industrial control cabinet are observed through the observation window 14, and the components are placed through the multiple groups of partition plates 15.

[0039] It should be noted that the present invention is a detection device for industrial control cabinets in a workshop. The user will start the first electric slider 22 to slide it in the first electric chute 21, driving the moving plate 23 to move to a suitable position for dust cleaning and detection. Then, start the second electric slider 25 to slide it in the second electric chute 24, driving the first guide plate 26 and the first connecting rod 27 to move. Next, start the third electric slider 29 to slide it in the third electric chute 28, moving the support frame 291 near the right end of the semi-rhombic heat sink 18. At this time, the sensor 298 starts to work to detect the angle size between the two groups of semi-rhombic heat sinks 18. Then, start the first motor 292 to drive the scraper 293 to rotate, making the inclination angle of the side wall of the scraper 293 the same as that of the semi-rhombic heat sink 18, so as to adapt to the side walls of semi-rhombic heat sinks with different inclination angles, and making one side wall of the scraper 293 contact with one side wall of the semi-rhombic heat sink 18. Subsequently, the third electric slider 29 drives the scraper 293 to slide towards the left end of the semi-rhombic heat sink 18, so that the scraper 293 cleans the surface of the semi-rhombic heat sink 18 during the process. Then, the second electric slider 25 drives the first connecting rod 27 and the scraper 293 to move forward, enabling the sensor 298 to detect the angle size of the other semi-rhombic heat sink 18, so that the inclination angle of the side wall of the scraper 293 is the same as that of the semi-rhombic heat sink 18, adapting to the side walls of semi-rhombic heat sinks with different inclination angles. Then, make one side wall of the scraper 293 contact with one side wall of the semi-rhombic heat sink 18. Subsequently, the third electric slider 29 drives the scraper 293 to slide towards the right end of the semi-rhombic heat sink 18, so that the scraper 293 cleans the other surface of the semi-rhombic heat sink 18 during the process.

[0040] Meanwhile, start the fourth electric slider 32 to make it slide in the fourth electric chute 31, drive the second guide plate 33 and the second connecting rod 34 to move. Start the fifth electric slider 36 to make it slide in the fifth electric chute 35, move the first rotating block 37 to the right end of the semi-rhombic heat sink 18. Through the telescopic movement of the electric telescopic rod 396, adjust the angle of the second triangular pushing plate 393. Meanwhile, start the second motor 38 to drive the transmission shaft 394 to rotate, drive the support plate 39, the first triangular pushing plate 391 and the second triangular pushing plate 393 to rotate, so that the first triangular pushing plate 391 and the second triangular pushing plate 393 are in close contact with the upper and lower side walls of the semi-rhombic heat sink 18 respectively. Subsequently, drive the first rotating block 37 to slide towards the left end of the semi-rhombic heat sink 18 through the fifth electric slider 36, so that the dust remaining between the two groups of semi-rhombic heat sinks 18 during the movement of the first triangular pushing plate 391 and the second triangular pushing plate 393 is cleaned. During the dust cleaning process, the sixth electric slider 41 of the dust collection mechanism 4 slides inside the first electric chute 21, so that the collection box 43 is always located below the moving plate 23. Thus, when the scraper 293 cleans the dust with the first triangular pushing plate 391 and the second triangular pushing plate 393, the dust will fall into the collection box 43. When the scraper 293 finishes cleaning the semi-rhombic heat sink 18, at this time, the solenoid valves 297 on both side walls of the scraper 293 are started, so that the two groups of detectors 296 start to operate. Subsequently, make the inclination angle of the side wall of the scraper 293 consistent with that of the semi-rhombic heat sink 18, and one side wall of the scraper 293 is no longer in contact with one side wall of the semi-rhombic heat sink 18. Subsequently, the third electric slider 29 drives the scraper 293 to slide, so that the two groups of detectors 296 detect the two side walls of multiple groups of semi-rhombic heat sinks 18.

[0041] After the detection is completed, multiple groups of first electric sliders 22 and the sixth electric slider 41 drive the moving plate 23 and the clamping block 42 to move upward respectively until the bottom end of the collection box 43 is flush with the inner top end of the cabinet body 1. At this time, the collection box 43 fits with the placement groove 16. Regularly check the dust collection mechanism 4. When there is more dust in the collection box 43, open the door panel 13, disassemble the clamping block 42 from the sixth electric slider 41, clean the dust in the collection box 43, and reinstall the clamping block 42 after cleaning.

[0042] The above shows and describes the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited by the above embodiments. What is described in the above embodiments and the specification only illustrates the principles of the present invention. Without departing from the spirit and scope of the present invention, the present invention will have various changes and improvements, and these changes and improvements all fall within the scope of the present invention claimed. The scope of protection claimed by the present invention is defined by the appended claims and their equivalents.

Claims

1. A workshop industrial control cabinet detection device, including a cabinet body (1), characterized in that: A cleaning and detecting mechanism (2) is arranged between the left and right ends inside the cabinet body (1). The cleaning and detecting mechanism (2) includes a moving plate (23). At one end of the two groups of moving plates (23) corresponding to each other, a dust cleaning mechanism (3) is arranged. The dust cleaning mechanism (3) includes a first rotating block (37). At the left end of the first rotating block (37), a second motor (38) is arranged. The output end of the second motor (38) penetrates through the first rotating block (37) and is provided with a transmission shaft (394). On the outer side wall of the transmission shaft (394), support plates (39) are fixedly connected at the left and right ends. At the bottom end of the support plate (39), a first triangular pushing plate (391) is arranged. Inside the first triangular pushing plate (391), a rotating groove (392) is opened. At the rear end of the rotating groove (392), an electric telescopic rod (396) is arranged. At the telescopic end of the electric telescopic rod (396), a fixing frame (398) is arranged. Inside the fixing frame (398), a second rotating block (395) is rotatably connected. At the other end of the second rotating block (395), a second triangular pushing plate (393) is arranged. At the rear end of the second triangular pushing plate (393), a guiding groove (397) is opened. The guiding groove (397) is fitted with the electric telescopic rod (396). The bottom end of the first triangular pushing plate (391) is rotatably connected to the bottom end of the second triangular pushing plate (393). The second triangular pushing plate (393) is fitted with the rotating groove (392).

2. The workshop industrial control cabinet detection device according to claim 1, wherein: At one end of the two groups of moving plates (23) corresponding to each other, fourth electric sliding grooves (31) are opened. Inside the multiple groups of fourth electric sliding grooves (31), fourth electric sliders (32) are slidably connected. At the other end of the multiple groups of fourth electric sliders (32), second guiding plates (33) are fixedly connected.

3. The inspection device for industrial control cabinets in a workshop according to claim 2, characterized in that: At one end of the two groups of second guiding plates (33) corresponding to each other, a second connecting rod (34) is fixedly connected. At the rear end of the second connecting rod (34), a fifth electric sliding groove (35) is opened. Inside the fifth electric sliding groove (35), a fifth electric slider (36) is slidably connected. The bottom end of the fifth electric slider (36) is fixedly connected to the top end of the first rotating block (37).

4. The workshop industrial control cabinet detection device according to claim 1, characterized in that: On the left and right ends inside the cabinet body (1), first electric sliding grooves (21) are opened. Inside the two groups of first electric sliding grooves (21), first electric sliders (22) are slidably connected. At one end of the two groups of first electric sliders (22) corresponding to each other, they are fixedly connected to the moving plate (23). Below one end of the moving plate (23) corresponding to each other, second electric sliding grooves (24) are opened. The second electric sliding grooves (24) are located below the fourth electric sliding grooves (31).

5. The inspection device for a workshop industrial control cabinet according to claim 4, characterized in that: Inside the multiple groups of second electric sliding grooves (24), second electric sliders (25) are slidably connected. At one end of the two groups of second electric sliders (25) corresponding to each other, first guiding plates (26) are arranged. At one end of the two groups of first guiding plates (26) corresponding to each other, a first connecting rod (27) is fixedly connected. At the rear end of the first connecting rod (27), a third electric sliding groove (28) is opened.

6. The inspection device for industrial control cabinets in a workshop according to claim 5, wherein: A third electric sliding chute (28) is internally connected with a third electric slider (29) in a sliding manner. The other end of the third electric slider (29) is provided with a support frame (291). The left side of the bottom end of the support frame (291) is provided with a sensor (298). The left end of the support frame (291) is provided with a first motor (292). The output end of the first motor (292) penetrates through the support frame (291) and is provided with a scraper (293). The outer side wall of the top end of the scraper (293) is rotatably connected with the inner side wall of the bottom end of the support frame (291). The other end of the scraper (293) is provided with a triangular groove (294).

7. An industrial control cabinet detection device for a workshop according to claim 6, characterized in that: Both the upper and lower ends of the scraper (293) are provided with detection grooves (295). A detector (296) is arranged inside each of the multiple detection grooves (295). An electromagnetic valve (297) is arranged inside each of the multiple detection grooves (295). The side wall of the electromagnetic valve (297) is flush with the side wall of the scraper (293).

8. The detection device for industrial control cabinets in a workshop according to claim 6, wherein: Multiple mounting plates (17) are fixedly connected to the inner rear end of the cabinet body (1). Multiple semi-rhombic heat sinks (18) are arranged at the front ends of the multiple mounting plates (17). The side wall of the scraper (293) is in contact with the side wall of the semi-rhombic heat sink (18). The rear side wall of the first triangular push plate (391) is in close contact with the lower side wall of a semi-rhombic heat sink (18). The front side wall of the second triangular push plate (393) is in close contact with the upper side wall of another semi-rhombic heat sink (18).

9. An inspection device for an industrial control cabinet in a workshop according to claim 4, characterized in that: A dust collection mechanism (4) is arranged inside the first electric sliding chute (21). The dust collection mechanism (4) is located below the moving plate (23). The dust collection mechanism (4) includes a sixth electric slider (41). The two first electric sliding chutes (21) are internally connected with the sixth electric slider (41) in a sliding manner. Openings are formed at the corresponding ends of the two sixth electric sliders (41), and a clamping block (42) is detachably connected thereto. A collecting box (43) is fixedly connected to the corresponding ends of the two clamping blocks (42). A placement groove (16) is formed at the inner top end of the cabinet body (1). The bottom end of the collecting box (43) is fitted with the bottom end of the placement groove (16).

10. A workshop industrial control cabinet detection device according to claim 1, characterized in that: A door panel (13) is rotatably connected to the left front end of the cabinet body (1). An opening is formed at the front end of the door panel (13), and an observation window (14) is fixedly connected thereto. Multiple ventilation holes (12) are formed at both the left and right ends of the cabinet body (1). Multiple partition plates (15) are arranged at both the left and right ends inside the cabinet body (1).

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