A smart controller for electrical equipment

Abstract

This invention discloses an intelligent controller for electrical equipment, relating to the field of control and regulation technology. It includes a main housing, an extended frame fixedly mounted on the top of the main housing, an electrical assembly fixedly mounted on the top of the extended frame, and a top sealing plate fixedly mounted on the top of the electrical assembly. A set of merging frames is fixedly mounted on both sides of the inner wall of the main housing, and a supporting base plate is fixedly mounted between the bottoms of the two sets of merging frames. A constant temperature control mechanism is provided at the bottom of the supporting base plate. This mechanism uses a physical temperature control method to continuously supply hot and cold temperature substances into the equipment, absorbing and heating the internal air temperature. This avoids the entry of high-speed hot and cold air currents, keeping the equipment in a stable internal environment. Simultaneously, the introduced hot and cold temperature substances can slowly change the internal temperature environment, preventing direct impact of reverse temperature on electrical components, thereby extending the aging and damage time of various materials and improving the service life of the equipment.

Description

Technical Field

[0001] This invention relates to the field of control and regulation technology, specifically to an intelligent controller for electrical equipment. Background Technology

[0002] Electrical equipment refers to various devices and apparatuses that require electricity to operate. These devices are widely used in various fields such as daily life, industrial production, and commercial operations.

[0003] The application of intelligent controllers not only enables electrical equipment to operate more efficiently and reliably, but also provides users with a more convenient, safe, and comfortable experience. This is mainly reflected in improved energy efficiency, enhanced functionality, improved user experience, enhanced safety, extended equipment lifespan, environmental adaptability, and data recording and analysis. Therefore, the performance of intelligent controllers directly affects the use of electrical equipment.

[0004] However, existing intelligent controllers have the following shortcomings:

[0005] With technological advancements, the hardware and software development of existing controllers has become largely mature, making it extremely unlikely that any issues will affect their normal operation. However, natural conditions are beyond human control, with temperature significantly limiting the controller's performance. Traditional controllers primarily rely on physical temperature control to regulate the operating environment of their internal electrical components, but this method still has some shortcomings, such as:

[0006] The temperature control components of existing controllers often use a rather forceful method to directly deliver hot or cold air into the machine body. During this process, all components are subjected to reverse temperature impacts, which will accelerate the aging and damage of various materials with long-term use and greatly reduce the lifespan of the controller.

[0007] The temperature control components of existing controllers have the ability to conduct hot and cold air, and therefore also need to be equipped with exhaust windows of the same specifications. Under this constraint, the controller body has to sacrifice complete sealing, which makes it very easy for external dust to enter. If too much dust accumulates inside, it will not only increase the difficulty of later maintenance and cleaning, but also cause the heat dissipation effect to drop sharply.

[0008] The temperature control components in existing controllers have limited data acquisition capabilities and can only execute one temperature control mode at a time. They cannot flexibly switch according to the actual temperature, resulting in poor internal temperature control performance.

[0009] This invention proposes an intelligent controller for electrical equipment to solve the problems mentioned above. Summary of the Invention

[0010] The purpose of this invention is to provide an intelligent controller for electrical equipment. Through the established constant temperature control mechanism, during the equipment's operation, the temperature diffused by the electrical components and the reverse temperature substances generated by the temperature control components all converge into the interior of the extended frame. On the one hand, the generated hot and cold temperature substances can evenly diffuse into the extended frame and come into contact with the air inside. On the other hand, by absorbing and heating the hot and cold air inside the extended frame, the initial temperature environment inside the extended frame is improved, and the temperature environment inside the extended frame is slowly changed, thereby solving the problems mentioned in the background art.

[0011] To achieve the above objectives, the present invention provides the following technical solution: an intelligent controller for electrical equipment, comprising a main housing, an extended frame fixedly installed on the top of the main housing, an electrical assembly fixedly installed on the top of the extended frame, an upper sealing plate fixedly installed on the top of the electrical assembly, a set of merging frames fixedly installed on both sides of the inner wall of the main housing, and a supporting base plate fixedly installed between the bottoms of the two sets of merging frames.

[0012] The bottom of the supporting base plate is equipped with a constant temperature control mechanism;

[0013] The constant temperature control mechanism includes a reinforced support plate. A wiring plate is fixedly installed at the bottom of the reinforced support plate. A set of associated bases is fixedly installed at the bottom of the wiring plate. An external frame is fixedly inserted inside each associated base. A hollow sleeve is fixedly installed inside each external frame. A conductive connector is fixedly installed on the rear surface of each hollow sleeve. A miniature refrigeration component is fixedly connected inside each conductive connector. A docking sleeve is fixedly installed on the rear surface of each conductive connector. A metal conduit is fixedly fitted on the outer wall of each docking sleeve. A temperature-conducting arc sleeve is wrapped around the outer wall of each metal conduit. Two lifting bars are fixedly installed on the top of the supporting base plate. A temperature-locking metal plate is fixedly installed between the tops of the two lifting bars. The bottom of the heat-locking metal plate has a set of internally opened arc grooves, and each heat-conducting arc sleeve is placed inside a corresponding internally opened arc groove. The top of the heat-locking metal plate is welded with multiple heat-conducting fins. An internal square tube is fixedly installed inside the heat-locking metal plate. The air inlet end of the internal square tube is fixedly connected to an expansion joint. A liquid storage tank is fixedly installed at the bottom of the supporting base plate. A gas-gathering component is fixedly installed at the bottom of the liquid storage tank. A hollow cover is fixedly installed at the bottom of the gas-gathering component. A high-resistance electric heating component is installed inside the hollow cover. A fan blade driving component is installed at the bottom of the hollow cover. The exhaust end of the gas-gathering component is fixedly connected to a set of third diversion pipes. The exhaust ends of the set of third diversion pipes all pass through the bottom of the expansion joint and are connected to the interior of the expansion joint.

[0014] Preferably, the bottom of the wiring board is fixedly connected to an adapter socket, the bottom of the reinforcing bracket is fixedly installed with an independent power supply, the output end of the independent power supply is fixedly connected to a set of first wires, the output ends of the set of first wires are all fixedly connected to the inside of the adapter socket, the terminal of each conductive connector is fixedly connected to a set of second wires, and the input end of each set of second wires is connected to the internal wiring of the wiring board.

[0015] Preferably, a control module is fixedly installed at the bottom of the reinforcing support plate. The input end of the control module is fixedly connected to a set of first information lines, and the input ends of the set of first information lines are all connected to the internal wiring of the device. The output end of the control module is fixedly connected to a set of second information lines, and the output ends of the set of second information lines are all connected to the signal input end of the independent power supply.

[0016] Preferably, a split pump is fixedly installed at the bottom of the supporting base plate. The input end of the split pump is fixedly connected to a set of first diversion pipes. The liquid inlet ends of the set of first diversion pipes all penetrate the outer wall of the liquid storage tank and are connected to the inside of the liquid storage tank. The output end of the split pump is fixedly connected to a manifold.

[0017] Preferably, each of the metal conduits has a plug fixedly installed at its inlet end, and the outer wall of the manifold is fixedly connected to a set of second diversion pipes. The number of the second diversion pipes is equal to the number of the metal conduits. The drain end of each second diversion pipe passes through a corresponding plug and is connected to the interior of a corresponding metal conduit.

[0018] Preferably, each of the metal conduits has an external connector fixedly connected to its outer wall, and each external connector has a return pipe fixedly connected to its bottom. The drain end of each return pipe penetrates the outer wall of the storage tank and is connected to the interior of the storage tank.

[0019] Preferably, the exhaust end of the built-in square tube is fixedly connected to an exhaust connector, and a slotted dustproof baffle is fixedly installed inside the exhaust connector.

[0020] Preferably, an external temperature sensing component is fixedly connected to the bottom of the supporting base plate, a built-in temperature sensing component is fixedly connected to the inner surface of the extended frame, and an embedded temperature sensing component is provided inside the temperature-locking metal plate.

[0021] Preferably, the top of the reinforcing support plate is connected to the bottom of the supporting base plate, and a set of metal assembly joints are fixedly installed on both sides of the outer wall of the electrical assembly.

[0022] Compared with the prior art, the beneficial effects of the present invention are:

[0023] 1. This invention, through the setting of a constant temperature control mechanism, divides the main components of the equipment into three layers in the external structure. The electrical components within the electrical assembly are exposed within the extended frame. This layout allows the temperature within the extended frame to directly affect the operation of each electrical component. The temperature-conducting component inside the main housing is located below the extended frame. During equipment operation, the temperature diffused by the electrical components and the reverse temperature-generating substances produced by the temperature control component all converge into the interior of the extended frame. On one hand, the generated hot and cold temperature substances can diffuse evenly into the extended frame and contact the air inside. On the other hand, by absorbing and heating the hot and cold air within the extended frame, the initial temperature environment within the extended frame is improved, and the temperature environment within the extended frame is gradually adjusted. The mechanism uses a physical temperature control method to continuously supply hot and cold temperature substances into the equipment, completing the absorption and heating of the internal air temperature, thereby preventing the entry of high-speed hot and cold airflows and maintaining a stable internal environment within the equipment. Simultaneously, the introduced hot and cold temperature substances can slowly change the internal temperature environment of the equipment, preventing the reverse temperature from directly impacting the electrical components, thereby extending the aging and damage time of various materials and improving the service life of the equipment.

[0024] 2. This invention incorporates a constant temperature control mechanism. Through metal heat transfer, the heat generated by the temperature control component is evenly distributed into the interior of the device. This effect can be achieved without disturbing the internal airflow, while also preventing the entry of external air. This greatly improves the integrity and sealing of the device body, effectively preventing external dust from entering, reducing the difficulty of later maintenance and cleaning, and avoiding the degradation of multiple functions of the device.

[0025] 3. The temperature control component of this invention can independently complete the transport of hot and cold substances. During operation, relevant electrical components sequentially collect internal and external temperatures and the temperature control component, accurately determine the temperature control type, and monitor the internal temperature of the equipment in real time. After analysis and calculation by relevant modules of the system, the internal temperature environment of the equipment can be changed by adjusting the power of the temperature control component or changing the temperature control type, so as to ensure that the electronic components in the controller are always in a relatively constant temperature environment. Attached Figure Description

[0026] Figure 1 This is a perspective view of the main structure of an intelligent controller for electrical equipment according to the present invention;

[0027] Figure 2 This is a perspective view of the bottom structure of an intelligent controller for electrical equipment according to the present invention;

[0028] Figure 3 This is an enlarged perspective view of the constant temperature control mechanism structure in an intelligent controller for electrical equipment according to the present invention;

[0029] Figure 4 The present invention provides an intelligent controller for electrical equipment. Figure 3 Enlarged 3D view of the structure at point A in the middle;

[0030] Figure 5 This is an enlarged perspective view of the bottom connection structure of the support base plate in an intelligent controller for electrical equipment according to the present invention;

[0031] Figure 6 This is an enlarged perspective view of the top connection structure of the supporting base plate in an intelligent controller for electrical equipment according to the present invention;

[0032] Figure 7 The present invention provides an intelligent controller for electrical equipment. Figure 6 Enlarged 3D view of the structure at point B in the middle;

[0033] Figure 8 This is an enlarged perspective view of a portion of the structure of an intelligent controller for electrical equipment according to the present invention.

[0034] In the diagram: 1. Main casing; 2. Extended frame; 3. Electrical assembly; 4. Top cover plate; 5. Combined frame; 6. Support base plate; 7. Thermostatic control mechanism; 71. Reinforcing support plate; 72. Wiring board; 73. Associated base; 74. External frame; 75. Hollow sleeve; 76. Conductive connector; 77. Miniature refrigeration component; 78. Docking sleeve; 79. Metal conduit; 701. Temperature-conducting arc sleeve; 702. Lifting bar; 703. Temperature-locking metal plate; 704. Internal arc groove; 705. Temperature-conducting fins; 706. Adapter socket; 707. Independent power supply; 708. Control module; 709. Liquid storage tank; 710. Split pump; 711. 712. First diversion pipe; 713. Second diversion pipe; 714. External connector; 715. Return pipe; 716. First conductor; 717. Second conductor; 718. First information line; 719. Second information line; 720. Gas gathering component; 721. Hollow cover; 722. High resistance electric heating component; 723. Fan blade driving component; 724. Built-in square tube; 725. Expansion connector; 726. Third diversion pipe; 727. Exhaust connector; 728. Slotted dustproof baffle; 729. Plug; 730. External temperature sensing component; 731. Built-in temperature sensing component; 732. Embedded temperature sensing component; 8. Metal assembly connector. Detailed Implementation

[0035] 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.

[0036] Please see the appendix Figure 1 -Appendix Figure 8As shown, the present invention provides a technical solution: an intelligent controller for electrical equipment, including a main housing 1, an extension frame 2 fixedly installed on the top of the main housing 1, an electrical assembly 3 fixedly installed on the top of the extension frame 2, an upper sealing plate 4 fixedly installed on the top of the electrical assembly 3, a set of merging frames 5 fixedly installed on both sides of the inner wall of the main housing 1, a supporting base plate 6 fixedly installed between the bottoms of the two sets of merging frames 5, and a constant temperature control mechanism 7 provided at the bottom of the supporting base plate 6.

[0037] according to Figure 2 , Figure 3 , Figure 4 , Figure 5 , Figure 6 and Figure 7 As shown, the constant temperature control mechanism 7 includes a reinforcing support plate 71. A wiring plate 72 is fixedly installed at the bottom of the reinforcing support plate 71. A set of associated bases 73 is fixedly installed at the bottom of the wiring plate 72. An external frame 74 is fixedly inserted inside each associated base 73. A hollow sleeve 75 is fixedly installed inside each external frame 74. A conductive connector 76 is fixedly installed on the rear surface of each hollow sleeve 75. A miniature refrigeration component 77 is fixedly connected inside each conductive connector 76. A docking sleeve 78 is fixedly installed on the rear surface of each conductive connector 76. A metal conduit 79 is fixedly fitted on the outer wall of each docking sleeve 78. A temperature-conducting arc sleeve 701 is wrapped around the outer wall of each metal conduit 79. Two lifting bars 702 are fixedly installed on the top of the supporting base plate 6. A temperature-locking metal plate 703 is fixedly installed between the tops of the two lifting bars 702. The bottom of the temperature-locking metal plate 703... A set of internally opened arc grooves 704 are provided, and each temperature-conducting arc sleeve 701 is placed inside a corresponding internally opened arc groove 704. Multiple temperature-conducting scales 705 are welded to the top of the temperature-locking metal plate 703. An internally built square tube 724 is fixedly installed inside the temperature-locking metal plate 703. An expansion joint 725 is fixedly connected to the air inlet end of the internally built square tube 724. A liquid storage tank 709 is fixedly installed at the bottom of the supporting base plate 6. A gas-gathering component 720 is fixedly installed at the bottom of the liquid storage tank 709. A hollow cover 721 is fixedly installed at the bottom of the gas-gathering component 720. A high-resistance electric heating component 722 is provided inside the hollow cover 721. A fan blade driving component 723 is provided at the bottom of the hollow cover 721. A set of third diversion pipes 726 is fixedly connected to the exhaust end of the gas-gathering component 720. The exhaust ends of the set of third diversion pipes 726 all pass through the bottom of the expansion joint 725 and are connected to the interior of the expansion joint 725.

[0038] according to Figure 3 , Figure 4 and Figure 5As shown, a junction box 706 is fixedly connected to the bottom of the wiring board 72, and an independent power supply 707 is fixedly installed on the bottom of the reinforcing bracket 71. A set of first wires 716 is fixedly connected to the output end of the independent power supply 707. The output ends of the set of first wires 716 are all fixedly connected to the inside of the junction box 706. A set of second wires 717 is fixedly connected to the terminal of each conductive connector 76. The input end of each set of second wires 717 is connected to the internal wiring of the wiring board 72. By pre-setting the above components, the cooling component of the mechanism adopts a split power supply mode, which aims to stabilize energy transmission, balance the energy supply of each cooling component, and facilitate the adjustment of output power.

[0039] according to Figure 3 As shown, a control module 708 is fixedly installed at the bottom of the reinforcing support plate 71. The input end of the control module 708 is fixedly connected to a set of first information lines 718, and the input ends of the first information lines 718 are all connected to the internal wiring of the equipment. The output end of the control module 708 is fixedly connected to a set of second information lines 719, and the output ends of the second information lines 719 are all connected to the signal input end of the independent power supply 707. By presetting the above components, the energy power adjustment directly affects the temperature conduction value of each cooling component. The relevant temperature measuring elements of the mechanism can complete the temperature data acquisition from three aspects, which is analyzed and calculated by the system module based on the PID control algorithm. Initially, the temperature control type is determined according to the external temperature, and subsequently, the cooling and heating switching mode is determined by the internal temperature of the equipment.

[0040] according to Figure 5 As shown, a split pump 710 is fixedly installed at the bottom of the supporting base plate 6. The input end of the split pump 710 is fixedly connected to a set of first diversion pipes 712. The liquid inlet ends of the set of first diversion pipes 712 all penetrate the outer wall of the liquid storage tank 709 and are connected to the inside of the liquid storage tank 709. The output end of the split pump 710 is fixedly connected to a manifold 711. By pre-setting the above components, the split pump 710 completes the self-circulation of coolant. The manifold 711 serves the purpose of buffering and pressurizing, so that the coolant can be evenly distributed to each metal conduit 79 and ensure the liquid flow intensity.

[0041] according to Figure 5 and Figure 6 As shown, each metal conduit 79 has a plug 729 fixedly installed at its inlet end. The outer wall of the manifold 711 is fixedly connected to a set of second diversion pipes 713. The number of the set of second diversion pipes 713 is equal to the number of the set of metal conduits 79. The outlet end of each second diversion pipe 713 passes through a corresponding plug 729 and is connected to the interior of the corresponding metal conduit 79.

[0042] according to Figure 5 and Figure 6As shown, each metal conduit 79 has an external connector 714 fixedly connected to its outer wall, and each external connector 714 has a return pipe 715 fixedly connected to its bottom. The drain end of each return pipe 715 penetrates the outer wall of the liquid storage tank 709 and is connected to the inside of the liquid storage tank 709. By pre-setting the above components, the necessary conditions for the circulation and return of coolant can be provided. The purpose is to ensure that the liquid flow can fully guarantee the unobstructed flow of the internal channels of each metal conduit 79 and avoid the phenomenon of frost forming on the inner wall of the metal conduit 79.

[0043] according to Figure 6 As shown, the exhaust end of the built-in square tube 724 is fixedly connected to an exhaust connector 727. A slotted dustproof baffle 728 is fixedly installed inside the exhaust connector 727. By pre-setting the above components, when the high-temperature airflow is continuously introduced into the built-in square tube 724, the temperature can continuously penetrate into the interior of the lifting bar 702. As the temperature of the lifting bar 702 increases, the high temperature can diffuse into the equipment through each heat-conducting fin 705, improving the internal environment of the equipment and regulating the working temperature of the electrical components. The end airflow can be directly discharged from the exhaust connector 727 to avoid entering the equipment, thus achieving physical temperature control without damaging the integrity of the equipment.

[0044] according to Figure 5 , Figure 6 and Figure 8 As shown, an external temperature sensing component 730 is fixedly connected to the bottom of the supporting base plate 6, and an internal temperature sensing component 731 is fixedly connected to the inner surface of the extended frame 2. An embedded temperature sensing component 732 is provided inside the temperature-locking metal plate 703. By presetting the above components, the real-time temperature of the internal and external components and the temperature control components can be collected in sequence. The relevant modules of the system can flexibly adjust the temperature according to the numerical performance to ensure that the equipment works in a constant temperature environment.

[0045] according to Figure 1 , Figure 2 , Figure 3 and Figure 8 As shown, the top of the reinforcing plate 71 is connected to the bottom of the supporting base plate 6, and a set of metal assembly joints 8 are fixedly installed on both sides of the outer wall of the electrical assembly 3.

[0046] The overall mechanism achieves the following effect: the controller body is installed in the designated area through the metal assembly joint 8, the wiring harness is accurately connected according to the type of electrical equipment and the wiring ports of the controller, and after the initial parameters are set, the controller runs synchronously with the electrical equipment.

[0047] The equipment can be independently divided into three spaces through its own structural layout: one is the temperature control component assembly area, the second is the temperature gathering area, and the third is the electrical component assembly area. The purpose is to expose each electrical component in the electrical assembly 3 to the inside of the extended frame 2, so that the heat generated during operation can be diffused into the extended frame 2. At the same time, the intervention temperature generated by the temperature control component will also continue to diffuse into the extended frame 2.

[0048] During the cooling phase, the independent power supply 707 is turned on, and the first wire 716 continuously transmits current, which is then further transmitted by each group of second wires 717, acting sequentially on each conductive connector 76, ensuring that each micro-cooling component 77 is in operation. Before this, the split pump 710 is turned on to continuously draw coolant from the storage tank 709, which is then transported through the first branch pipe 712 and flows into the junction box 711. As the liquid volume increases, the internal hydraulic pressure also gradually increases, which can evenly squeeze some of the liquid into each second branch pipe 713, ultimately completing the injection of liquid into each metal conduit 79. When the liquid comes into contact with the micro-cooling component 77... Upon contact, the continuously diffused cold air can penetrate into the coolant, forcing the coolant temperature to drop further. Then, the cold air penetrates layer by layer, transferring sequentially to the interior of the metal conduit 79, the thermally conductive arc sleeve 701, and the thermally locked metal plate 703. Since the thermally locked metal plate 703 is directly connected to multiple thermally conductive fins 705, the cold air contained within it can be quickly released through each thermally conductive fin 705 and diffuse into the extended frame 2. The diffused cold air is lower than the actual temperature inside the extended frame 2, thus continuously absorbing the heat inside the extended frame 2. At the same time, it can absorb the temperature emitted by each component in a timely manner, avoiding the accumulation of high temperature and preventing the electrical components from being corroded by the surrounding high temperature.

[0049] During the heating phase, the high-resistance heating element 722 inside the hollow cover 721 is energized to continuously diffuse heat. The air-gathering element 720 and the fan blade activating element 723 are activated, and the introduced high-speed airflow continuously blows high-temperature heat into the air-gathering element 720. The air-gathering element 720 controls the direction of airflow output and delivers the high-temperature airflow to the built-in square tube 724 through the third diversion pipe 726 to begin high-temperature penetration. The heat is then transferred to the built-in square tube 724 and the lifting strip 702 in sequence. Then, each heat-conducting fin 705 continuously diffuses the temperature contained in the heat-locking metal plate 703 into the extended frame 2. When the high temperature is injected into the cold environment, the high-temperature material mixes with the surrounding cold air. The temperature of the high-temperature material is higher than the temperature of the surrounding air, so it will heat the air in the extended frame 2, ensuring that each electrical component is working in a more suitable environment.

[0050] During the temperature control phase, before the temperature control components begin operation, the existing external temperature sensor 730 collects external temperature data. The system module first analyzes and determines the temperature control type. If the external temperature is too low, the internal temperature is increased; otherwise, it is cooled. When hot or cold substances are released into the extended frame 2, their temperature performance is first displayed by the temperature-locking metal plate 703. The embedded temperature sensor 732 can collect temperature values ​​in real time. The system module analyzes and determines whether the temperature meets the standard and controls the power output of the micro-cooling component 77 or the high-resistance heating component 722. During the process, the built-in temperature sensor 731 can collect the temperature inside the extended frame 2 in real time and share it with relevant system modules. If the temperature inside the extended frame 2 is too low or too high, the power output can be reduced or the temperature control mode can be flexibly changed to ensure that all electrical components inside the electrical assembly 3 operate in a relatively constant temperature environment.

[0051] Although the present invention has been described in detail with reference to the foregoing embodiments, those skilled in the art can still modify the technical solutions described in the foregoing embodiments or make equivalent substitutions for some of the technical features. Any modifications, equivalent substitutions, improvements, etc., made within the spirit and principles of the present invention should be included within the protection scope of the present invention.

Claims

1. An intelligent controller for electrical equipment, characterized in that: Includes a main housing (1), an extension frame (2) is fixedly installed on the top of the main housing (1), an electrical assembly (3) is fixedly installed on the top of the extension frame (2), an upper sealing plate (4) is fixedly installed on the top of the electrical assembly (3), a set of merging frames (5) are fixedly installed on both sides of the inner wall of the main housing (1), and a supporting base plate (6) is fixedly installed between the bottoms of the two sets of merging frames (5). The bottom of the supporting base plate (6) is provided with a constant temperature control mechanism (7). The constant temperature control mechanism (7) includes a reinforcing support plate (71), a wiring plate (72) is fixedly installed at the bottom of the reinforcing support plate (71), a set of associated bases (73) is fixedly installed at the bottom of the wiring plate (72), an external frame (74) is fixedly inserted inside each associated base (73), a hollow sleeve (75) is fixedly installed inside each external frame (74), a conductive connector (76) is fixedly installed on the rear surface of each hollow sleeve (75), a miniature cooling component (77) is fixedly connected inside each conductive connector (76), a docking sleeve (78) is fixedly installed on the rear surface of each conductive connector (76), and a metal conduit (79) is fixedly sleeved on the outer wall of each docking sleeve (78). Each of the metal conduits (79) is wrapped with a thermally conductive arc sleeve (701) on its outer wall. Two lifting bars (702) are fixedly installed on the top of the supporting base plate (6). A heat-locking metal plate (703) is fixedly installed between the tops of the two lifting bars (702). An internal square tube (724) is fixedly installed inside the heat-locking metal plate (703). An expansion joint (725) is fixedly connected to the air inlet end of the internal square tube (724). A liquid storage tank (709) is fixedly installed at the bottom of the supporting base plate (6). A gas-gathering component (720) is fixedly installed at the bottom of the liquid storage tank (709). A hollow cover (721) is fixedly installed at the bottom of the gas-gathering component (720). A high-resistance electric heating component (722) is provided inside the hollow cover (721).

2. The intelligent controller for electrical equipment according to claim 1, characterized in that: The bottom of the wiring board (72) is fixedly connected to an adapter socket (706), and the bottom of the reinforcing bracket (71) is fixedly installed with an independent power supply (707). The output end of the independent power supply (707) is fixedly connected to a set of first wires (716). The output ends of the set of first wires (716) are all fixedly connected inside the adapter socket (706). The wiring end of each conductive connector (76) is fixedly connected to a set of second wires (717). The input end of each set of second wires (717) is connected to the internal wiring of the wiring board (72).

3. The intelligent controller for electrical equipment according to claim 2, characterized in that: A control module (708) is fixedly installed at the bottom of the reinforcing tray (71). The input end of the control module (708) is fixedly connected to a set of first information lines (718). The input ends of the set of first information lines (718) are all connected to the internal wiring of the device. The output end of the control module (708) is fixedly connected to a set of second information lines (719). The output ends of the set of second information lines (719) are all connected to the signal input end of the independent power supply (707).

4. The intelligent controller for electrical equipment according to claim 1, characterized in that: A split pump (710) is fixedly installed at the bottom of the supporting base plate (6). The input end of the split pump (710) is fixedly connected to a set of first diversion pipes (712). The liquid inlet ends of the set of first diversion pipes (712) all penetrate the outer wall of the liquid storage tank (709) and are connected to the inside of the liquid storage tank (709). The output end of the split pump (710) is fixedly connected to a junction box (711).

5. The intelligent controller for electrical equipment according to claim 4, characterized in that: Each of the metal conduits (79) has a plug (729) fixedly installed at its inlet end. The outer wall of the junction box (711) is fixedly connected to a set of second diversion pipes (713). The number of the set of second diversion pipes (713) is equal to the number of the set of metal conduits (79). The outlet end of each second diversion pipe (713) passes through a corresponding plug (729) and is connected to the interior of a corresponding metal conduit (79).

6. The intelligent controller for electrical equipment according to claim 1, characterized in that: Each of the metal conduits (79) has an external connector (714) fixedly connected to its outer wall. The bottom of each external connector (714) is fixedly connected to a return pipe (715). The drain end of each return pipe (715) penetrates the outer wall of the storage tank (709) and is connected to the interior of the storage tank (709).

7. The intelligent controller for electrical equipment according to claim 1, characterized in that: The exhaust end of the built-in square tube (724) is fixedly connected to an exhaust connector (727), and a slotted dustproof baffle (728) is fixedly installed inside the exhaust connector (727).

8. The intelligent controller for electrical equipment according to claim 1, characterized in that: An external temperature sensing component (730) is fixedly connected to the bottom of the supporting base plate (6), an internal temperature sensing component (731) is fixedly connected to the inner surface of the extended frame (2), and an embedded temperature sensing component (732) is provided inside the temperature-locking metal plate (703).

9. The intelligent controller for electrical equipment according to claim 1, characterized in that: The top of the reinforcing support plate (71) is connected to the bottom of the supporting base plate (6), and a set of metal assembly joints (8) are fixedly installed on both sides of the outer wall of the electrical assembly (3).

10. The intelligent controller for electrical equipment according to claim 1, characterized in that: The bottom of the heat-locking metal plate (703) is provided with a set of inner arc grooves (704), and each heat-conducting arc sleeve (701) is placed inside a corresponding inner arc groove (704). The top of the heat-locking metal plate (703) is welded with multiple heat-conducting scales (705). The bottom of the hollow cover (721) is provided with a fan blade actuation assembly (723). The exhaust end of the gas-gathering assembly (720) is fixedly connected to a set of third diversion pipes (726). The exhaust ends of the set of third diversion pipes (726) all penetrate the bottom of the expansion joint (725) and are connected to the interior of the expansion joint (725).

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