An automated server detection management apparatus

Abstract

The application discloses an automatic server detection management device, and relates to the technical field of servers, comprising a server body, wherein a cooling structure is fixedly installed at the bottom of the server body, and a ventilation structure is fixedly installed at the bottom of the cooling structure. The automatic server detection management device can realize real-time monitoring of the internal temperature of the server body through a temperature sensor, linkage control of the opening and closing of a water pump, and driving of low-temperature cooling liquid in a semiconductor refrigeration pre-cooling cooling liquid bin to be shunted through a tee pipe and then be targetedly supplied to high-heat-conducting copper heat dissipation fins at the bottom of a CPU and a GPU. The heat dissipation fins are designed in a continuous bending mode of a Tesla valve shape, so that the effective heat dissipation area is multiplied in a limited space, airflow is induced to form high-strength vortex, and the thermal resistance boundary layer is completely broken, so that targeted cooling of key heat sources is realized, the risk of hardware frequency reduction caused by local overheating is eliminated from the root, and the stability of continuous full-load operation of the server is ensured.

Description

Technical Field

[0001] This invention relates to the field of server technology, and in particular to an automated server detection and management device. Background Technology

[0002] A server is a high-performance computer designed for continuous and stable operation and efficient processing of massive requests. Its core function is to provide data storage, application execution, resource sharing and management services to other devices through a network. An automated server detection and management device is a hardware device that integrates sensors, a water cooling system and an intelligent control unit, and is mainly used to monitor the server's operating status in real time.

[0003] In actual use, existing automated server detection and management devices generate a lot of heat when the server itself is in use. Since the cooling system generally relies on high-power fans, the power cost of data centers soars. Moreover, the cooling effect is generally poor and not targeted. As a result, local overheating can cause critical hardware to reduce its frequency, leading to a precipitous drop in computing performance, delays in critical business response, or even service interruption. At the same time, the long-term high-temperature environment accelerates the aging of electronic components, significantly shortens the server's lifespan, and increases the hardware failure rate.

[0004] Therefore, an automated server detection and management device is proposed to address the above problems. Summary of the Invention

[0005] To address the shortcomings of existing technologies, which address the issue that servers generate significant heat during operation and whose cooling systems typically rely on high-power fans, leading to soaring data center electricity costs and generally ineffective or non-targeted cooling, resulting in localized overheating that causes critical hardware to throttle down, leading to a precipitous drop in computing performance, delayed critical business response, or even service interruption, while prolonged high-temperature environments accelerate the aging of electronic components, significantly shortening server lifespan and increasing hardware failure rates, an automated server detection and management device is proposed.

[0006] The technical solution adopted by this invention to solve its technical problem is: an automated server detection and management device, including a server body, a cooling structure fixedly installed at the bottom of the server body, a ventilation structure fixedly installed at the bottom of the cooling structure, the cooling structure including a rectangular box fixedly connected to the bottom of the server body, a coolant tank and a water-cooling tank opened inside the rectangular box, a semiconductor cooling chip fixedly installed inside the coolant tank, a T-pipe fixedly connected to one end of the coolant tank, a water pump installed outside the T-pipe, a control switch electrically connected to one end of the water pump, a temperature sensor electrically connected to one end of the control switch, the temperature sensor located inside the server body, and one end of the temperature sensor electrically connected to the motherboard of the server body.

[0007] Preferably, both ends of the three-way pipe away from the coolant reservoir are fixedly connected to heat dissipation components, and the two heat dissipation components are respectively located below the CPU and GPU of the server body.

[0008] Preferably, the heat dissipation assembly includes a distribution box fixedly connected to one end of a three-way pipe, and a number of heat sinks are fixedly connected to the bottom of the server body. Each heat sink is bent into a Tesla-like valve shape, and the heat sink is a copper sheet with high thermal conductivity.

[0009] Preferably, a return box is fixedly connected to the side of the two distribution boxes away from the T-connector. Several heat dissipation copper pipes are fixedly connected to the bottom of the return box. A rectangular box two is fixedly connected to the bottom of the first rectangular box. The heat dissipation copper pipes are located inside the second rectangular box. One end of the heat dissipation copper pipes extends into the interior of the coolant reservoir. A flow guide plate is fixedly connected inside the coolant reservoir.

[0010] Preferably, a worm gear is rotatably connected inside the rectangular box two, a servo motor is installed on one side of the rectangular box two, the output end of the servo motor is fixedly connected to one end of the worm gear, a cage is fixedly connected inside the rectangular box, a plurality of worm wheels are rotatably connected to the middle of the cage, the worm wheels are meshed with the worm gear, a fan is fixedly connected to one end of the worm wheel that passes through the cage, and a plurality of air holes are opened at the top of the rectangular box two.

[0011] Preferably, the ventilation structure includes a ventilation pipe fixedly connected inside the rectangular box, the outer wall of the ventilation pipe penetrating the coolant tank, and the top end of the ventilation pipe penetrating into the interior of the server body.

[0012] Preferably, the ventilation pipe has several alternating baffles fixedly connected inside.

[0013] Preferably, filter screens are fixedly connected to both sides of the rectangular box.

[0014] Preferably, a speed-changing gearbox is installed outside the output shaft of the servo motor. A reciprocating lead screw is fixedly connected to the output shaft of the speed-changing gearbox. The two ends of the reciprocating lead screw are rotatably connected to one end of a rectangular box. A rectangular block is threaded onto the outer wall of the reciprocating lead screw. A limit rod is fixedly connected to one end of the rectangular box. The outer wall of the limit rod is slidably connected to the top of the rectangular block. Several elastic telescopic rods are installed on the side of the rectangular block near a filter screen. A cleaning brush is fixedly connected to the output end of the elastic telescopic rod. One end of the cleaning brush abuts against one side of a filter screen.

[0015] Preferably, a slot is provided at the bottom of one end of the rectangular box, and a magnetic block is magnetically connected to the inner wall of the slot. A collection box is fixedly connected to the opposite surfaces of the two magnetic blocks, and the collection box is located below the cleaning brush.

[0016] Due to the adoption of the above technical solution, the technical progress achieved by this invention compared to the prior art is as follows: 1. This invention provides an automated server detection and management device. It monitors the internal temperature of the server body in real time through a temperature sensor, and controls a switch to precisely start and stop the water pump. The device drives the low-temperature coolant pre-cooled by semiconductor refrigeration in the coolant tank to be diverted through a three-way pipe and specifically delivered to the high thermal conductivity copper heat sinks at the bottom of the CPU and GPU. The heat sinks adopt a Tesla-like valve-shaped continuous bending design, which multiplies the effective heat dissipation area in a limited space and induces airflow to form a high-intensity vortex. This completely breaks down the thermal resistance boundary layer, achieves targeted cooling of key heat sources, eliminates the risk of hardware frequency reduction caused by local overheating from the root, and ensures the stability of the server's continuous full-load operation.

[0017] 2. This invention provides an automated server detection and management device. Multiple heat dissipation copper pipes can cool the coolant after it absorbs heat. A fan array linked by a worm gear can provide forced air cooling to the heat dissipation copper pipes, thereby improving the cooling effect of the coolant during long-term operation. Simultaneous airflow through vents cools the hot end of the thermoelectric cooler, improving its cooling effect. A flow guide plate can turbulently flow the coolant returning from the heat dissipation copper pipes, ensuring the returning coolant fully contacts the thermoelectric cooler during its flow. This prevents the returning coolant from being directly cooled again through the T-junction pipe by the water pump, thus avoiding a decrease in cooling efficiency.

[0018] 3. This invention provides an automated server detection and management device. The device extends into the server through a ventilation pipe that passes through the coolant tank. The coolant is used to pre-cool the external intake air at a low temperature. At the same time, the alternating baffles inside the pipe form a labyrinthine channel, which multiplies the time that the air is in contact with the cold source, causing the intake air temperature to drop in a stepwise manner. This reduces the active heat dissipation load of the device and improves the heat dissipation effect. The filter can block pollutants from entering the equipment from the source, while maintaining a clean environment inside the server and effectively delaying the aging of electronic components.

[0019] 4. This invention provides an automated server detection and management device. A servo motor, in conjunction with a gearbox, drives a reciprocating lead screw to rotate, thereby causing a cleaning brush to clean the surface of the filter on the air intake side. This removes debris and dust that can be adsorbed onto the filter surface, ensuring air intake efficiency. During this process, an elastic telescopic rod ensures that the cleaning brush can always press against the filter surface with a certain force, thereby improving the cleaning effect. The cleaned dust and other debris fall into the collection box for unified collection, thus avoiding the problem of secondary pollution. At the same time, the magnetic attraction between the magnetic block and the rectangular box allows the collection box to be easily disassembled and assembled, facilitating the handling of debris and dust. Attached Figure Description

[0020] Figure 1 This is a schematic diagram of the overall structure of the present invention; Figure 2 This is a schematic diagram of the overall structure of the present invention from another perspective; Figure 3 This is a schematic diagram of the cross-sectional structure of the server body of the present invention; Figure 4 This is a schematic diagram of the internal structure of the rectangular box of the present invention; Figure 5 This is a schematic cross-sectional view of the rectangular box structure of the present invention; Figure 6 This is a schematic diagram of the heat sink structure of the present invention; Figure 7 This is a schematic diagram of the cage structure of the present invention; Figure 8 This is a schematic diagram of the two cross-sectional structures of the rectangular box of the present invention; Figure 9 This is a schematic diagram of the cross-sectional structure of the ventilation pipe of the present invention; Figure 10 This is a schematic diagram of the cleaning brush structure of the present invention.

[0021] In the diagram: 1. Server body; 2. Cooling structure; 21. Rectangular box one; 22. Coolant tank; 23. Water cooling tank; 24. Water pump; 25. Control switch; 26. Temperature sensor; 27. T-connector; 28. Heat dissipation assembly; 281. Distribution box; 282. Heat sink; 29. ​​Return box; 210. Copper heat pipe; 211. Diverter plate; 212. Semiconductor cooling chip; 213. Rectangular box two; 214. Servo motor; 215. Worm gear; 216. Cage; 217. Worm wheel; 218. Fan; 3. Ventilation structure; 31. Ventilation pipe; 32. Baffle plate; 33. Air vent; 34. Filter screen; 35. Gearbox; 36. Reciprocating lead screw; 37. Limiting rod; 38. Rectangular block; 39. Elastic telescopic rod; 310. Cleaning brush; 311. Slot; 312. Collection box; 313. Magnetic block. Detailed Implementation

[0022] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0023] Specific implementation examples are given below.

[0024] Please see Figure 1 - Figure 10 This invention provides a technical solution: an automated server detection and management device, including a server body 1, a cooling structure 2 fixedly installed at the bottom of the server body 1, and a ventilation structure 3 fixedly installed at the bottom of the cooling structure 2. The cooling structure 2 includes a rectangular box 21 fixedly connected to the bottom of the server body 1. The rectangular box 21 has a coolant tank 22 and a water-cooled tank 23 inside. A semiconductor cooling chip 212 is fixedly installed inside the coolant tank 22. A three-way pipe 27 is fixedly connected to one end of the coolant tank 22. A water pump 24 is installed outside the three-way pipe 27. A control switch 25 is electrically connected to one end of the water pump 24. A temperature sensor 26 is electrically connected to one end of the control switch 25. Sensor 26 is located inside the server body 1, and one end of temperature sensor 26 is electrically connected to the motherboard of server body 1. During the operation of server body 1, temperature sensor 26 detects the internal temperature of server body 1 in real time. When the temperature is too high, temperature sensor 26 transmits a signal to the motherboard of server body 1. The motherboard analyzes the data and feeds it back to temperature sensor 26, thereby driving control switch 25 to turn on water pump 24, which in turn pumps the coolant in coolant tank 22 to heat dissipation component 28, thereby dissipating heat from server body 1. During this process, semiconductor cooling chip 212 can keep the coolant at a low temperature, thereby improving the cooling effect of the coolant.

[0025] It should be noted that the temperature sensor 26, the motherboard of the server body 1, the control switch 25 and the water pump 24 are all existing devices, and the connection method between them is a common implementation method in the prior art. Those skilled in the art can easily implement this solution without making creative improvements.

[0026] like Figure 4 As shown, heat dissipation components 28 are fixedly connected to both ends of the three-way pipe 27 away from the coolant tank 22. The two heat dissipation components 28 are located below the CPU and GPU of the server body 1, respectively. The two sets of heat dissipation components 28 are located below the CPU and GPU of the server body 1, respectively, to perform synchronous real-time heat dissipation on the two, realize targeted cooling of high-heat components, and thus improve heat dissipation efficiency.

[0027] like Figure 6 As shown, the heat dissipation assembly 28 includes a distribution box 281 fixedly connected to one end of the three-way pipe 27. Several sets of heat sinks 282 are fixedly connected to the bottom of the server body 1. Each set of heat sinks 282 is bent into a Tesla-like valve shape. The heat sinks 282 are made of high thermal conductivity copper sheets. The continuous bending surface of the heat sinks 282 greatly expands the heat dissipation area in a limited space, improving the heat dissipation effect. The valve overlapping structure forces the airflow to generate a high-intensity vortex, which completely breaks the static boundary thermal resistance layer on the surface of the heat sinks 282. The high thermal conductivity copper material ensures that the key heat is conducted to the heat dissipation surface at high speed. At the same time, the Tesla-like valve can prevent the coolant from flowing back.

[0028] like Figure 5 As shown, a return box 29 is fixedly connected to the side of the two distribution boxes 281 away from the three-way pipe 27. Several heat dissipation copper pipes 210 are fixedly connected to the bottom of the return box 29. A rectangular box 213 is fixedly connected to the bottom of the rectangular box 21. The heat dissipation copper pipes 210 are located inside the rectangular box 213. One end of the heat dissipation copper pipe 210 passes through the coolant tank 22. A flow guide plate 211 is fixedly connected inside the coolant tank 22. The heat dissipation copper pipes 210 can cool the coolant after absorbing heat, thereby improving the cooling effect of the coolant during long-term operation. The flow guide plate 211 can turbulent the coolant returning from the heat dissipation copper pipes 210, so that the returning coolant can fully contact the semiconductor cooling chip 212 during the flow process, avoiding the problem that the returning coolant directly passes through the three-way pipe 27 again to perform the cooling function under the action of the water pump 24, which would lead to a decrease in the cooling effect.

[0029] like Figure 7 As shown, a worm gear 215 is rotatably connected inside the rectangular box 213. A servo motor 214 is installed on one side of the rectangular box 213. The output end of the servo motor 214 is fixedly connected to one end of the worm gear 215. A retainer 216 is fixedly connected inside the rectangular box. Several worm wheels 217 are rotatably connected to the middle of the retainer 216. The worm wheels 217 are meshed with the worm gear 215. A fan 218 is fixedly connected to one end of the worm wheel 217 that passes through the retainer 216. Several air holes 33 are opened at the top of the rectangular box 213. The servo motor 214 drives the fan 218 to rotate, which can perform air cooling on the heat dissipation copper pipe 210, further improving the cooling efficiency of the heat dissipation copper pipe 210 for the coolant. Part of the airflow generated by the fan 218 will blow through the air holes 33 to the outside of the rectangular box 21 near the thermoelectric cooler 212, which can help the hot end of the thermoelectric cooler 212 to quickly dissipate heat, thereby improving the cooling effect of the thermoelectric cooler 212.

[0030] like Figure 8As shown, the ventilation structure 3 includes a ventilation pipe 31 fixedly connected inside the rectangular box 213. The outer wall of the ventilation pipe 31 penetrates the coolant tank 22, and the top of the ventilation pipe 31 penetrates into the interior of the server body 1. Part of the airflow generated by the fan 218 will be transported to the interior of the server body 1 through the ventilation pipe 31, thereby preventing the high-temperature gas inside the server body 1 from accumulating inside the server body 1, which would cause a large temperature difference between the top and bottom of the server body 1 and affect the temperature sensor 26's incorrect judgment of the internal temperature of the server body 1. At the same time, the accumulation of high-temperature gas inside the server body 1 will reduce the heat dissipation effect of the internal components of the server body 1. The ventilation pipe 31 passes through the coolant tank 22 and uses the coolant to cool the intake air, reducing the intake air temperature, thereby reducing the active heat dissipation load and improving the heat dissipation effect.

[0031] like Figure 9 As shown, the ventilation pipe 31 has several alternating baffles 32 fixedly connected inside. The baffles 32 can prolong the air residence time, thereby improving the cooling effect of the intake air.

[0032] like Figure 5 As shown, filters 34 are fixedly connected to both sides of rectangular box 213. The filters 34 can filter the incoming air, thereby preventing dust in the outside air from affecting the normal operation and service life of the internal components of the automated server detection and management device.

[0033] like Figure 7 and Figure 10 As shown, a speed-changing gearbox 35 is mounted outside the output shaft of the servo motor 214. A reciprocating lead screw 36 is fixedly connected to the output shaft of the speed-changing gearbox 35. Both ends of the reciprocating lead screw 36 are rotatably connected to one end of a rectangular box. A rectangular block 38 is threaded onto the outer wall of the reciprocating lead screw 36. A limit rod 37 is fixedly connected to one end of the rectangular box. The outer wall of the limit rod 37 is slidably connected to the top of the rectangular block 38. Several elastic telescopic rods 39 are mounted on the side of the rectangular block 38 near a filter screen 34. A cleaning brush 310 is fixedly connected to the output end of each elastic telescopic rod 39. One end of the brush 310 abuts against one side of a filter screen 34. During the operation of the servo motor 214, under the action of the gearbox 35, the servo motor 214 drives the reciprocating screw 36 to rotate, which in turn drives the rectangular block 38 to slide, thereby causing the cleaning brush 310 to clean the surface of the filter screen 34 on the air intake side, thereby removing the debris and dust that can be adsorbed on the surface of the filter screen 34 and ensuring air intake efficiency. During this process, the elastic telescopic rod 39 ensures that the cleaning brush 310 can always press against the surface of the filter screen 34 with a certain force, thereby improving the cleaning effect.

[0034] like Figure 7As shown, a slot 311 is provided at the bottom of the end of the rectangular box 21. A magnetic block 313 is magnetically connected to the inner wall of the slot 311. A collection box 312 is fixedly connected to the opposite face of the two magnetic blocks 313. The collection box 312 is located below the cleaning brush 310. The dust and other debris that are cleaned fall into the collection box 312 and are collected in a unified manner, thereby avoiding the problem of secondary pollution from debris. At the same time, the magnetic attraction between the magnetic block 313 and the rectangular box 213 makes the collection box 312 easy to install and remove, thus facilitating the handling of debris and dust.

[0035] The working principle of this invention is as follows: During operation of the server body 1, the temperature sensor 26 monitors the internal temperature of the server body 1 in real time. When the temperature is too high, the temperature sensor 26 transmits a signal to the motherboard of the server body 1. The motherboard analyzes the data and feeds it back to the temperature sensor 26, which in turn drives the control switch 25 to turn on the water pump 24. This pumps the coolant from the coolant tank 22 to the heat dissipation assembly 28, thereby cooling the server body 1. During this process, the semiconductor cooling chip 212 keeps the coolant at a low temperature, thus improving the cooling effect. The two sets of heat dissipation assemblies 28 are located below the CPU and GPU of the server body 1, respectively, providing synchronous real-time cooling for both. Targeted cooling of high-heat components improves heat dissipation efficiency. Meanwhile, the continuous bending surface of the heat sink 282 significantly expands the heat dissipation area within a limited space, enhancing the heat dissipation effect. The overlapping valve structure forces airflow to generate high-intensity vortices, completely breaking down the static boundary thermal resistance layer on the surface of the heat sink 282. The high thermal conductivity copper material ensures that critical heat is conducted to the heat dissipation surface at high speed. At the same time, the Tesla-like valves can prevent coolant backflow. The heat dissipation copper pipe 210 can cool the coolant after absorbing heat, thereby improving the cooling effect of the coolant during long-term operation. The servo motor 214 drives the fan 218 to rotate, which can provide air cooling for the heat dissipation copper pipe 210, further improving the cooling efficiency of the heat dissipation copper pipe 210 for the coolant. Part of the airflow generated by the fan 218 will pass through the air hole 33 and blow on the outer side of the rectangular box 21 near the thermoelectric cooler 212, thereby helping the hot end of the thermoelectric cooler 212 to quickly dissipate heat and improve the cooling effect of the thermoelectric cooler 212. The flow guide plate 211 can turbulent the coolant returning from the heat dissipation copper pipe 210, so that the returning coolant can fully contact the thermoelectric cooler 212 during the flow process, and avoid the problem that the returning coolant will directly pass through the three-way pipe 27 to perform the cooling function again under the action of the water pump 24, which would lead to a decrease in the cooling effect. Part of the airflow generated by the fan 218 is delivered to the inside of the server body 1 through the ventilation pipe 31, thereby preventing the high-temperature gas inside the server body 1 from accumulating inside the server body 1, which would cause a large temperature difference between the top and bottom of the server body 1 and affect the temperature sensor 26's erroneous judgment of the internal temperature of the server body 1. At the same time, the accumulation of high-temperature gas inside the server body 1 will reduce the heat dissipation effect of the internal components of the server body 1. The ventilation pipe 31 passes through the coolant tank 22 and uses the coolant to cool the intake air, reduce the intake air temperature, thereby reducing the active heat dissipation load and improving the heat dissipation effect. The baffle 32 can prolong the air residence time, thereby improving the cooling effect of the intake air. The filter 34 filters the incoming air, thus preventing dust in the outside air from affecting the normal operation and service life of the internal components of the automated server detection and management device. During the operation of the servo motor 214, under the action of the gearbox 35, the servo motor 214 drives the reciprocating screw 36 to rotate, which in turn drives the rectangular block 38 to slide, thereby causing the cleaning brush 310 to clean the surface of the filter 34 on the air intake side, thereby removing the debris and dust that can be adsorbed on the surface of the filter 34 and ensuring air intake efficiency. During this process, the elastic telescopic rod 39 ensures that the cleaning brush 310 can always press against the surface of the filter 34 with a certain force, thereby improving the cleaning effect. The cleaned dust and other debris fall into the collection box 312 for unified collection, thereby avoiding the problem of secondary pollution from debris. At the same time, the magnetic attraction between the magnetic block 313 and the rectangular box 213 makes the collection box 312 easy to install and remove, thus facilitating the handling of debris and dust.

[0036] The foregoing has shown and described 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 to the above embodiments. The embodiments and descriptions in the specification are merely illustrative of the principles of the invention. Various changes and modifications can be made to the invention without departing from its spirit and scope, and all such changes and modifications fall within the scope of the present invention as claimed. The scope of protection of this invention is defined by the appended claims and their equivalents.

Claims

1. An automated server detection and management device, comprising a server body (1), characterized in that: A cooling structure (2) is fixedly installed at the bottom of the server body (1). A ventilation structure (3) is fixedly installed at the bottom of the cooling structure (2). The cooling structure (2) includes a rectangular box (21) fixedly connected to the bottom of the server body (1). A coolant tank (22) and a water cooling tank (23) are opened inside the rectangular box (21). A semiconductor cooling chip (212) is fixedly installed inside the coolant tank (22). A three-way pipe (27) is fixedly connected to one end of the coolant tank (22). A water pump (24) is installed outside the three-way pipe (27). A control switch (25) is electrically connected to one end of the water pump (24). A temperature sensor (26) is electrically connected to one end of the control switch (25). The temperature sensor (26) is located inside the server body (1), and one end of the temperature sensor (26) is electrically connected to the motherboard of the server body (1).

2. The automated server detection and management device according to claim 1, characterized in that: The two ends of the three-way pipe (27) away from the coolant tank (22) are fixedly connected to heat dissipation components (28), and the two heat dissipation components (28) are located below the CPU and GPU of the server body (1), respectively.

3. The automated server detection and management device according to claim 2, characterized in that: The heat dissipation component (28) includes a shunt box (281) fixedly connected to one end of a three-way pipe (27). Several sets of heat sinks (282) are fixedly connected to the bottom of the server body (1). Each set of heat sinks (282) is bent into a Tesla-like valve shape. The heat sinks (282) are high thermal conductivity copper sheets.

4. The automated server detection and management device according to claim 3, characterized in that: Two of the flow distribution boxes (281) are fixedly connected to a return box (29) on the side away from the three-way pipe (27). Several heat dissipation copper pipes (210) are fixedly connected to the bottom end of the return box (29). A rectangular box (213) is fixedly connected to the bottom end of the first rectangular box (21). The heat dissipation copper pipe (210) is located inside the second rectangular box (213). One end of the heat dissipation copper pipe (210) passes through the interior of the coolant tank (22). A flow guide plate (211) is fixedly connected inside the coolant tank (22).

5. The automated server detection and management device according to claim 4, characterized in that: The rectangular box 2 (213) is rotatably connected to a worm gear (215). A servo motor (214) is installed on one side of the rectangular box 2 (213). The output end of the servo motor (214) is fixedly connected to one end of the worm gear (215). A retainer (216) is fixedly connected inside the rectangular box. Several worm wheels (217) are rotatably connected in the middle of the retainer (216). The worm wheels (217) are meshed with the worm gear (215). A fan (218) is fixedly connected to one end of the worm wheel (217) that passes through the retainer (216). Several air holes (33) that pass through the rectangular box 2 (213) are opened at the top of the rectangular box 2 (213).

6. The automated server detection and management device according to claim 4, characterized in that: The ventilation structure (3) includes a ventilation pipe (31) fixedly connected inside the rectangular box (213). The outer wall of the ventilation pipe (31) penetrates the coolant tank (22), and the top of the ventilation pipe (31) penetrates into the interior of the server body (1).

7. The automated server detection and management device according to claim 6, characterized in that: The ventilation pipe (31) has several alternating baffles (32) fixedly connected inside.

8. The automated server detection and management device according to claim 4, characterized in that: The rectangular box 2 (213) has filter screens (34) fixedly connected to both sides.

9. An automated server detection and management device according to claim 8, characterized in that: A speed-changing gearbox (35) is installed outside the output shaft of the servo motor (214). A reciprocating screw (36) is fixedly connected to the output shaft of the speed-changing gearbox (35). The two ends of the reciprocating screw (36) are rotatably connected to one end of a rectangular box. A rectangular block (38) is threadedly connected to the outer wall of the reciprocating screw (36). A limit rod (37) is fixedly connected to one end of the rectangular box. The outer wall of the limit rod (37) is slidably connected to the top of the rectangular block (38). Several elastic telescopic rods (39) are installed on the side of the rectangular block (38) near a filter screen (34). A cleaning brush (310) is fixedly connected to the output end of the elastic telescopic rod (39). One end of the cleaning brush (310) abuts against one side of a filter screen (34).

10. An automated server detection and management device according to claim 9, characterized in that: A slot (311) is provided at the bottom of one end of the rectangular box (21). A magnetic block (313) is magnetically connected to the inner wall of the slot (311). A collection box (312) is fixedly connected to the opposite face of the two magnetic blocks (313). The collection box (312) is located below the cleaning brush (310).

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