Intelligent heat exchange heat dissipation method and equipment based on cooperation of superconducting material and liquid pump

Abstract

The invention relates to the technical field of intelligent heat dissipation, and discloses an intelligent heat exchange heat dissipation device based on cooperation of a superconducting material and a liquid pump, the intelligent heat exchange heat dissipation device comprises a machine shell and a top-mounted part on one side of the machine shell, a superconducting heat pipe is arranged on the side, away from the top-mounted part, of the machine shell, and a butt-joint plate is mounted on the side, close to the machine shell, of the superconducting heat pipe; wave fins are arranged on the sides, away from the machine shell, of the butt joint plates, and the sides, close to the super heat conduction pipes, of the installation openings are movably connected to the super heat conduction pipes. According to the invention, the wave fins with the camber considered are installed in the superconductive heat pipe, the superconductive heat pipe and the wave fins are made of superconductive materials, the toughness and the heat dissipation effect are superior to those of a traditional metal material, the wave fins are in a wave long strip shape, the camber is suitable for heat source circulation, meanwhile, later disassembly and cleaning are convenient, loss and deformation are not prone to occurring, and the heat dissipation efficiency is improved. And therefore, the overall use effect of the device is improved.

Description

TECHNICAL FIELD

[0001] The application relates to the field of intelligent heat dissipation technology, in particular to an intelligent heat exchange heat dissipation method and device based on cooperation of superconducting materials and liquid pumps. BACKGROUND

[0002] The superconducting material presents zero resistance characteristics below the critical temperature, and the thermal conductivity of the superconducting material is much higher than that of traditional metals (such as copper and aluminum), so that heat can be quickly conducted away from a heat source. The liquid pump is responsible for the circulation of the low-temperature working medium in the system, and needs to meet the requirements of low-temperature resistance, high sealing performance and low energy consumption. The intelligent heat exchange heat dissipation device based on cooperation of superconducting materials and liquid pumps is an advanced heat management scheme combining the high-efficiency heat conduction characteristics of superconducting materials and the circulating system of liquid pumps. The core is to realize accurate regulation and efficient transmission of heat through intelligent control.

[0003] Traditional heat dissipation devices mostly use air-cooled radiators, which increase the heat dissipation area through metal fins and cooperate with fans to force convection. The cost is low and easy to maintain, but the heat dissipation capacity is greatly affected by the environment temperature. For example, the automobile engine radiator uses aluminum alloy fins combined with a serpentine tube, which can enhance cooling by using the oncoming wind during driving. In a high-humidity environment, the fins need to be cleaned regularly to avoid a decrease in heat dissipation efficiency.

[0004] However, the above-mentioned intelligent heat exchange heat dissipation device has the following problems in actual use. On the one hand, the internal heat dissipation components mostly use straight fin and tube patterns to collect heat, which has poor heat dissipation efficiency and is prone to damage and deformation during later cleaning and replacement, which is not conducive to long-term use of the device as a whole. On the other hand, in the internal circulation heat dissipation process, the device is mostly functionally divided into upper and lower parts, such as the combination of a heat dissipation module and a control module, and lacks heat dissipation accessories in the middle part, which affects the overall use effect of the device. Therefore, we propose an intelligent heat exchange heat dissipation method and device based on cooperation of superconducting materials and liquid pumps. SUMMARY

[0005] (I) Technical problems solved

[0006] In view of the deficiencies of the prior art, the application provides an intelligent heat exchange heat dissipation method and device based on cooperation of superconducting materials and liquid pumps, which solves the problems of easy damage and deformation during later cleaning and replacement, and lack of heat dissipation accessories in the middle part of the functionally divided upper and lower parts.

[0007] (II) Technical solutions

[0008] In order to achieve the above object, the application is realized by the following technical scheme: the intelligent heat exchange and heat dissipation equipment based on superconducting material and liquid pump cooperation, comprising a machine shell and a top-mounted part on one side of the machine shell, a superconducting heat pipe is arranged on the side of the machine shell away from the top-mounted part, and the superconducting heat pipe is arranged inside the machine shell, a butt plate is installed on the side of the superconducting heat pipe close to the machine shell, and the butt plate is fixedly connected on the superconducting heat pipe on the side close to the superconducting heat pipe, a wave fin is arranged on the side of the butt plate away from the machine shell, and the wave fin is provided with a mounting hole on the side close to the superconducting heat pipe, the mounting hole is movably connected on the superconducting heat pipe on the side close to the superconducting heat pipe, the superconducting heat pipe is a curved tubular structure, and the wave fin is integrally installed on the superconducting heat pipe through the mounting hole, a side-mounted plate is arranged on the side of the wave fin away from the top-mounted part, and the side-mounted plate is movably connected with the machine shell and arranged inside the machine shell, a superconducting heat conduction sheet is installed on the side of the side-mounted plate close to the wave fin, and the superconducting heat conduction sheet is fixedly connected with the side-mounted plate and arranged inside the side-mounted plate, a second air extraction mechanism is arranged on the side of the superconducting heat conduction sheet away from the wave fin, and the second air extraction mechanism is fixedly connected with the machine shell and arranged inside the machine shell, a sensing mechanism is arranged on the side of the second air extraction mechanism close to the side-mounted plate, and the sensing mechanism is fixedly connected with the machine shell and arranged inside the machine shell, a liquid tank is fixedly installed on the side of the machine shell close to the second air extraction mechanism, and a mounting box is arranged on the side of the machine shell perpendicular to the liquid tank, and the mounting box is fixedly connected with the machine shell and arranged inside the machine shell.

[0009] Preferably, the top-mounted part is provided with a first air extraction mechanism on the side away from the machine shell, and the first air extraction mechanism is connected on the top-mounted part on the side close to the machine shell, and a dust filter screen is movably installed on the side of the machine shell close to the first air extraction mechanism.

[0010] Preferably, the butt plate is provided with an arc-shaped fastener on the side close to the superconducting heat pipe, the superconducting heat pipe is fixedly connected inside the butt plate on the side close to the arc-shaped fastener, a third circulating pipe is fixedly connected on the side of the superconducting heat pipe close to the arc-shaped fastener, and a second circulating pipe is fixedly connected on the side of the superconducting heat pipe close to the butt plate.

[0011] Preferably, the butt plate is provided with a clamping piece on the side away from the superconducting heat pipe, and the clamping piece is fixedly connected on the butt plate on the side close to the butt plate, and a first clamping plate is fixedly connected on the side of the machine shell close to the clamping piece, and the first clamping plate is movably connected inside the clamping piece on the side close to the clamping piece.

[0012] Preferably, the side plate is provided with a mounting part II on the side away from the superconducting heat-conducting sheet, and the mounting part II is fixedly connected to the side plate on the side close to the side plate.

[0013] Preferably, the circulation pipe II is inserted into the inside of the mounting box through the side plate on the side close to the mounting box, the mounting box is provided with a pump body mechanism on the side away from the air extraction mechanism II, and the pump body mechanism is fixedly connected to the inside of the mounting box, the circulation pipe II is fixedly connected to the pump body mechanism on the side close to the pump body mechanism, and the circulation pipe I is inserted into the inside of the mounting box on the other end.

[0014] Preferably, the circulation pipe III is inserted into the inside of the mounting box on the side away from the top mounting part, the circulation pipe III is fixedly provided with a filtrate box on the side close to the mounting box, and the filtrate box is movably connected to the inside of the mounting box, the machine shell is provided with a side sealing plate on the side close to the mounting box, and the side sealing plate is movably connected to the machine shell on the side close to the machine shell, and the side sealing plate is provided with a heat dissipation net on the side close to the mounting box.

[0015] Preferably, the machine shell is movably provided with a machine sealing plate on the side perpendicular to the superconducting heat-conducting pipe, the machine sealing plate is provided with a mounting plate on the side close to the air extraction mechanism II, and the mounting plate is fixedly connected to the machine sealing plate on the side close to the machine sealing plate, and the mounting plate is provided with an air inlet hole matched with the air extraction mechanism II on the side close to the air extraction mechanism II.

[0016] Preferably, the intelligent heat exchange cooling method based on the cooperation of superconducting materials and liquid pumps comprises the following steps:

[0017] S1. Sensing the environment and the device state, collecting key data in real time through a sensing mechanism, providing a basis for intelligent decision-making, and detecting the inlet air temperature and the outlet air temperature in the device in real time, when the high-temperature end temperature exceeds the set threshold value, immediately increasing the cooling power, and when the temperature is within the set safety range, reducing the cooling power to avoid "overcooling" and waste energy consumption;

[0018] S2. Execute the adjustment instruction, adjust the hardware running state, realize the dynamic adaptation of the cooling parameters, adjust the air speed of the air extraction mechanism I and the air extraction mechanism II, the conveying flow rate of the pump body mechanism, control the flow of the phase-change working medium such as the superconducting liquid in the superconducting heat-conducting pipe, and further increase the fan device with rotation function.

[0019] S3. Auxiliary absorption heat dissipation, improve heat exchange efficiency, superconducting heat pipe on the uniform installation of multiple groups of wave fin structure through the local bending form guide air turbulence, improve the refrigeration efficiency, at the same time avoid resistance too large cause indoor fan noise increase.

[0020] In summary, the technical effects and advantages of the present application are:

[0021] 1、 in the present application, the inside upper layer of the machine shell is provided with a superconducting heat pipe, wave fins are installed on the superconducting heat pipe for cooperation, and a top-mounted piece is installed on the side of the machine shell away from the superconducting heat pipe for cooperation with heat exchange. The wave fins with bending consideration are installed on the superconducting heat pipe, the superconducting heat pipe and the wave fins are made of superconducting material, the toughness and heat dissipation effect of which are superior to those of traditional metal materials, and the wave fins are in the shape of a wave-shaped strip. The bending degree is suitable for heat source circulation and also facilitates post-dismantling and cleaning, so that the use effect of the device as a whole is improved.

[0022] 2、 in the present application, the bottom of the wave fin is provided with a side plate, and the side plate is fixedly connected to the inside middle position of the machine shell. A plurality of superconducting heat pipes made of superconducting material are inserted into the side plate. A plurality of control mechanisms are installed at the lower end of the inside of the machine shell. Long-term contact with heat sources can reduce the use effect. The superconducting heat pipes installed between the heat dissipation module and the control module can perform secondary heat absorption and heat dissipation on the cooled heat sources, guide the bottom air exchange assembly to dissipate heat, thereby improving the overall heat dissipation use effect of the device.

[0023] 3、 in the present application, a top-mounted piece is installed on the top of the machine shell, and the two groups of air extraction mechanisms on the top-mounted piece can be installed on the outer end of the rough pipe to connect other equipment for heat dissipation. When the external heat source exceeds the standard through the sensing assembly, the superconducting heat pipe starts to circulate the superconducting liquid in advance. After the heat source is absorbed from the top of the device by the top-mounted piece, the heat source is cooled layer by layer and becomes cold air, which is dissipated from the device. In this way, the heat is circulated and dissipated, forming a good circulating heat dissipation effect, thereby improving the overall high-efficiency heat dissipation of the device. DRAWINGS

[0024] Figure 1 It is the overall structure diagram of the intelligent heat exchange heat dissipation equipment based on superconducting material and liquid pump cooperation of the present application;

[0025] Figure 2 It is the overall structure diagram of the intelligent heat exchange heat dissipation equipment based on superconducting material and liquid pump cooperation of the present application;

[0026] Figure 3 It is the overall structure diagram of the intelligent heat exchange heat dissipation equipment based on superconducting material and liquid pump cooperation of the present application;

[0027] Figure 4It is the overall structure schematic diagram of the superconducting heat pipe of the present application.

[0028] Figure 5 It is the overall structure schematic diagram of the machine shell of the present application.

[0029] Figure 6 It is the overall structure schematic diagram of the wave fin of the present application.

[0030] Figure 7 It is the overall structure schematic diagram of the side mounting plate of the present application.

[0031] In the figure: 1, machine shell; 101, liquid tank; 102, mounting box; 103, clamping plate one; 104, clamping plate two; 105, dust filter screen; 2, machine sealing plate; 201, mounting plate; 202, air inlet hole; 3, top mounting; 301, air extraction mechanism one; 302, mounting one; 4, side sealing plate; 401, heat dissipation screen; 5, pump body mechanism; 501, circulating pipe one; 6, air extraction mechanism two; 7, side mounting plate; 701, superconducting heat conduction sheet; 702, mounting two; 8, superconducting heat pipe; 801, circulating pipe two; 802, circulating pipe three; 803, filtrate box; 804, butt joint plate; 805, clamping piece; 806, arc-shaped fastener; 9, wave fin; 901, mounting port; 10, sensing mechanism. DETAILED DESCRIPTION

[0032] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, rather than all the embodiments. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor fall within the scope of protection of the present application.

[0033] Reference Figures 1-7 The intelligent heat exchange and heat dissipation equipment based on superconducting material and liquid pump cooperation shown in the figure comprises a machine shell 1 and a top mounting 3 on one side of the machine shell 1. The specific implementation is as follows:

[0034] Embodiment 1

[0035] The air extraction mechanism one 301 is mounted on the side of the top mounting 3 away from the machine shell 1, and the air extraction mechanism one 301 is connected through on the side of the top mounting 3 close to the machine shell 1. The dust filter screen 105 is movably mounted on the side of the machine shell 1 close to the air extraction mechanism one 301. The mounting one 302 is mounted on the side of the top mounting 3 perpendicular to the machine shell 1, and the mounting one 302 is fixedly connected on the side of the machine shell 1 close to the top mounting 3. The superconducting heat pipe 8 is arranged on the side of the machine shell 1 away from the top mounting 3, and the superconducting heat pipe 8 is arranged in the interior of the machine shell 1.

[0036] Embodiment 2

[0037] The superconductive heat pipe 8 is provided with a butt plate 804 on the side close to the machine shell 1, the butt plate 804 is fixedly connected to the superconductive heat pipe 8 on the side close to the superconductive heat pipe 8, the butt plate 804 is provided with wave fins 9 on the side away from the machine shell 1, the wave fins 9 are provided with mounting holes 901 on the side close to the superconductive heat pipe 8, the mounting holes 901 are movably connected to the superconductive heat pipe 8 on the side close to the superconductive heat pipe 8, the superconductive heat pipe 8 is a curved tubular structure, and the wave fins 9 are integrally penetrated and mounted on the superconductive heat pipe 8 through the mounting holes 901.

[0038] Embodiment 3

[0039] The butt plate 804 is inserted and connected with an arc-shaped fastener 806 on the side close to the superconductive heat pipe 8, the superconductive heat pipe 8 is fixedly connected to the inside of the butt plate 804 on the side close to the arc-shaped fastener 806, the superconductive heat pipe 8 is fixedly connected with a circulating pipe three 802 on the side close to the arc-shaped fastener 806, the superconductive heat pipe 8 is fixedly connected with a circulating pipe two 801 on the side close to the butt plate 804, the butt plate 804 is mounted with a clamping piece 805 on the side away from the superconductive heat pipe 8, and the clamping piece 805 is fixedly connected to the butt plate 804 on the side close to the butt plate 804, the machine shell 1 is fixedly connected with a clamping plate one 103 on the side close to the clamping piece 805, and the clamping plate one 103 is movably connected to the inside of the clamping piece 805 on the side close to the clamping piece 805.

[0040] Embodiment 4

[0041] The wave fins 9 are provided with a side mounting plate 7 on the side away from the top mounting piece 3, and the side mounting plate 7 is movably connected to the inside of the machine shell 1, the side mounting plate 7 is mounted with superconductive heat-conducting fins 701 on the side close to the wave fins 9, and the superconductive heat-conducting fins 701 are fixedly connected to the inside of the side mounting plate 7, the side mounting plate 7 is mounted with a mounting piece two 702 on the side away from the superconductive heat-conducting fins 701, and the mounting piece two 702 is fixedly connected to the side mounting plate 7 on the side close to the side mounting plate 7, the machine shell 1 is fixedly connected with a clamping plate two 104 on the side close to the mounting piece two 702, and the clamping plate two 104 is fixedly connected to the inside of the mounting piece two 702 on the side close to the mounting piece two 702.

[0042] Embodiment 5

[0043] The superconductive heat-conducting fins 701 are provided with a second air extraction mechanism 6 on the side away from the wave fins 9, and the second air extraction mechanism 6 is fixedly connected to the inside of the machine shell 1, the second air extraction mechanism 6 is provided with a sensing mechanism 10 on the side close to the side mounting plate 7, and the sensing mechanism 10 is fixedly connected to the inside of the machine shell 1, the machine shell 1 is fixedly mounted with a liquid tank 101 on the side close to the second air extraction mechanism 6, and the machine shell 1 is provided with a mounting tank 102 on the side perpendicular to the liquid tank 101, and the mounting tank 102 is fixedly connected to the inside of the machine shell 1.

[0044] Embodiment 6

[0045] The circulation pipe two 801 is arranged in the inside of the assembly box 102 through the side assembly plate 7 on the side close to the assembly box 102, the pump body mechanism 5 is installed on the side away from the air extraction mechanism two 6 of the assembly box 102, and the pump body mechanism 5 is arranged in the inside of the assembly box 102 and fixedly connected with the assembly box 102, the circulation pipe two 801 is fixedly connected with the pump body mechanism 5 on the side close to the pump body mechanism 5, the circulation pipe one 501 is inserted and installed on the side close to the air extraction mechanism two 6 of the assembly box 102, one end of the circulation pipe one 501 is fixedly connected with the pump body mechanism 5, and the other end of the circulation pipe one 501 is inserted and connected in the inside of the assembly box 102, the circulation pipe three 802 is inserted and connected in the inside of the assembly box 102 on the side away from the top assembly 3, and the filtrate box 803 is fixedly installed on the end close to the assembly box 102 of the circulation pipe three 802, and the filtrate box 803 is arranged in the inside of the assembly box 102 and movably connected with the assembly box 102.

[0046] Working principle of the present application:

[0047] The top assembly 3 is inserted and installed on the top of the machine shell 1, two groups of air extraction mechanisms one 301 are arranged on the top assembly 3, the two groups of air extraction mechanisms one 301 perform the suction operation on the heat source through the induction control module,

[0048] The superconducting heat pipe 8 is installed on the side close to the two groups of air extraction mechanisms one 301 in the inside of the machine shell 1, the superconducting heat pipe 8 is used as the superconducting liquid in the circulation liquid tank 101 and can be used for contact cooling of the heat source;

[0049] A plurality of groups of wave-shaped fins 9 are uniformly installed on the superconducting heat pipe 8, the heat source can contact the wave-shaped fins 9 when passing through, the contact time of the heat source on the superconducting heat pipe 8 can be increased, and the overall heat dissipation and cooling effect of the device is improved;

[0050] The side assembly plate 7 is installed on the bottom of the wave-shaped fin 9, a plurality of groups of superconducting heat-conducting sheets 701 are installed on the side assembly plate 7, and the heat source can be cooled and dissipated in the bottom air extraction process;

[0051] The air extraction mechanism two 6 is installed on the bottom side of the machine shell 1, the cooled heat source can be transported to the external environment, so that the environmental temperature is reduced, and the internal temperature of the environmental equipment can also be reduced.

[0052] The electrical components appearing in the text are all connected with the main control unit and 220V mains, and the main control unit can control the conventional known devices such as computers.

[0053] Finally, it should be noted that the above only describes the preferred embodiments of the present application and is not intended to limit the present application. Although the present application has been described in detail with reference to the foregoing embodiments, those skilled in the art will appreciate that the technical solutions described in the foregoing embodiments can be modified or some technical features thereof can be replaced by equivalent features, and any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present application shall be included in the protection scope of the present application.

Claims

1. An intelligent heat exchange cooling device based on superconducting material and liquid pump cooperation, comprising a machine shell (1) and a top-mounted part (3) on one side of the machine shell (1), characterized in that: The machine shell (1) is provided with a superconducting heat pipe (8) away from one side of the top-mounted part (3), and the superconducting heat pipe (8) is arranged inside the machine shell (1), a docking plate (804) is arranged on one side of the superconducting heat pipe (8), the docking plate (804) is fixedly connected on one side of the superconducting heat pipe (8) away from the machine shell (1), a wave fin (9) is arranged on one side of the docking plate (804) away from the machine shell (1), and a mounting hole (901) is arranged on one side of the wave fin (9) away from the superconducting heat pipe (8), the mounting hole (901) is movably connected on one side of the superconducting heat pipe (8), the superconducting heat pipe (8) is a curved tubular structure, and the wave fin (9) is integrally installed on the superconducting heat pipe (8) through the mounting hole (901), one side of the wave fin (9) away from the top-mounted part (3) is provided with a side-mounted plate (7), and the side-mounted plate (7) is movably connected with the machine shell (1) and arranged inside the machine shell (1), a superconducting heat-conducting sheet (701) is arranged on one side of the wave fin (9) away from the side-mounted plate (7), and the superconducting heat-conducting sheet (701) is fixedly connected with the side-mounted plate (7) and arranged inside the side-mounted plate (7), an air extraction mechanism (6) is arranged on one side of the superconducting heat-conducting sheet (701) away from the wave fin (9), and the air extraction mechanism (6) is fixedly connected with the machine shell (1) and arranged inside the machine shell (1), a sensing mechanism (10) is arranged on one side of the air extraction mechanism (6) away from the side-mounted plate (7), and the sensing mechanism (10) is fixedly connected with the machine shell (1) and arranged inside the machine shell (1), a liquid tank (101) is fixedly arranged on one side of the machine shell (1) away from the air extraction mechanism (6), and a mounting box (102) is arranged on one side of the machine shell (1) perpendicular to the liquid tank (101), and the mounting box (102) is fixedly connected with the machine shell (1) and arranged inside the machine shell (1).

2. The intelligent heat exchange cooling device based on superconducting material and liquid pump cooperation according to claim 1, characterized in that: The top-mounted part (3) is provided with an air extraction mechanism (301) away from one side of the machine shell (1), and the air extraction mechanism (301) is connected with the top-mounted part (3) through one side of the machine shell (1), a dust filter net (105) is movably arranged on one side of the machine shell (1) away from the air extraction mechanism (301), and a mounting part (302) is arranged on one side of the machine shell (1) perpendicular to the top-mounted part (3), and the mounting part (302) is fixedly connected with the machine shell (1) on one side of the machine shell (1).

3. The intelligent heat exchange cooling device based on superconducting material and liquid pump cooperation according to claim 1, characterized in that: The docking plate (804) is provided with an arc-shaped fastener (806) inserted on one side of the superconducting heat pipe (8), the superconducting heat pipe (8) is fixedly connected inside the docking plate (804) on one side of the arc-shaped fastener (806), and the superconducting heat pipe (8) is fixedly connected with a circulating pipe (802) on one side of the arc-shaped fastener (806), and the superconducting heat pipe (8) is fixedly connected with a circulating pipe (801) on one side of the docking plate (804).

4. The intelligent heat exchange cooling device based on superconducting material and liquid pump cooperation according to claim 1, characterized in that: The butt plate (804) is provided with a clamping piece (805) on the side away from the superconducting heat pipe (8), and the clamping piece (805) is fixedly connected on the side close to the butt plate (804). The machine shell (1) is fixedly connected with a clamping plate (103) on the side close to the clamping piece (805), and the clamping plate (103) is movably connected on the side close to the clamping piece (805) in the clamping piece (805).

5. The intelligent heat exchange cooling device based on superconducting material and liquid pump cooperation according to claim 1, characterized in that: The side plate (7) is provided with a mounting piece two (702) on the side away from the superconducting heat pipe (701), and the mounting piece two (702) is fixedly connected on the side close to the side plate (7). The machine shell (1) is fixedly connected with a clamping plate two (104) on the side close to the mounting piece two (702), and the clamping plate two (104) is fixedly connected on the side close to the mounting piece two (702) in the mounting piece two (702).

6. The intelligent heat exchange cooling device based on superconducting material and liquid pump cooperation according to claim 3, characterized in that: The circulating pipe two (801) penetrates through the side plate (7) and is placed in the inside of the mounting box (102) on the side close to the mounting box (102). The mounting box (102) is provided with a pump body mechanism (5) on the side away from the air extraction mechanism two (6), and the pump body mechanism (5) is fixedly connected in the inside of the mounting box (102). The circulating pipe two (801) is fixedly connected with the pump body mechanism (5) on the side close to the pump body mechanism (5). The mounting box (102) is provided with a circulating pipe one (501) on the side close to the air extraction mechanism two (6). One end of the circulating pipe one (501) is fixedly connected with the pump body mechanism (5), and the other end of the circulating pipe one (501) is insertedly connected in the inside of the mounting box (102).

7. The intelligent heat exchange cooling device based on superconducting material and liquid pump cooperation of claim 3, characterized in that: The circulating pipe three (802) is insertedly connected in the inside of the mounting box (102) on the side away from the top mounting piece (3). The circulating pipe three (802) is fixedly provided with a filtrate box (803) on the side close to the mounting box (102), and the filtrate box (803) is movably connected in the inside of the mounting box (102).

8. The intelligent heat exchange cooling device based on superconducting material and liquid pump cooperation of claim 1, wherein: The machine shell (1) is provided with a side sealing plate (4) on the side close to the mounting box (102), and the side sealing plate (4) is movably connected on the side close to the machine shell (1). The side sealing plate (4) is provided with a heat dissipation net (401) on the side close to the mounting box (102).

9. The intelligent heat exchange cooling device based on superconducting material and liquid pump cooperation of claim 1, wherein: The machine shell (1) is movably provided with a machine sealing plate (2) on the side perpendicular to the superconducting heat pipe (8). The machine sealing plate (2) is provided with a mounting plate (201) on the side close to the air extraction mechanism two (6), and the mounting plate (201) is fixedly connected on the side close to the machine sealing plate (2). The mounting plate (201) is provided with an air inlet hole (202) matched with the air extraction mechanism two (6) on the side close to the air extraction mechanism two (6).

10. The intelligent heat exchange cooling method based on superconducting material and liquid pump cooperation, characterized in that, The method comprises the following steps: The method comprises the following steps: S1. Sensing the environment and the device state, collecting key data in real time through the sensing mechanism (10) to provide the basis for intelligent decision-making, and detecting the inlet and outlet air temperature in the device in real time. When the high-temperature end temperature exceeds the set threshold, the heat dissipation power is immediately increased. When the temperature is within the set safety range, the heat dissipation power is reduced to avoid "excessive heat dissipation" and waste energy consumption; S2. Execute the adjustment instruction, adjust the hardware running state, realize the dynamic adaptation of the heat dissipation parameter, adjust the wind speed of the air extraction mechanism I (301) and the air extraction mechanism II (6), the conveying flow rate of the pump body mechanism (5), and control the flow of the superconducting liquid in the superconducting heat pipe (8). Further, a fan device with rotation function can be added; S3. Auxiliary absorption and heat dissipation, improve heat exchange efficiency, install multiple groups of wave fin (9) structures on the superconducting heat pipe (8) to guide air turbulence through local bending form, improve refrigeration efficiency, and at the same time avoid excessive resistance leading to increased indoor fan noise.

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