Building electrical weak current intelligent control device and system with heat dissipation structure

Abstract

The invention discloses a building electrical weak current intelligent control device with a heat dissipation structure, which comprises a control box body, a control module, a heat dissipation row, a heat dissipation plate, an input module and main control equipment, and is characterized in that the surface of the control module is provided with an opening and is embedded in the front surface of the control box body; control keys and a display screen are embedded in the two sides of the front face of the control module respectively, the heat dissipation row is assembled on the upper end face of the control box body, heat dissipation fans are evenly distributed on the top of the heat dissipation row, open holes are formed in the surface of the heat dissipation plate, the heat dissipation plate is embedded in the left side of the control box body, and the input module is assembled on the back face of the control box body. And mounted bearings are assembled outside the rotating fan blades. The interior of the control box body is subjected to heat dissipation treatment, so that the heat dissipation plate can normally exhaust and ventilate, the contact area between a water source and the water pump and the contact area between the water source and the heat dissipation row are increased, the heat dissipation and cooling effects of the water source are greatly improved, and the heat dissipation speed and efficiency of the device are improved.

Description

Technical Field

[0001] The present invention relates to the field of electrical weak-current intelligent control devices, and in particular to a building electrical weak-current intelligent control device and system with a heat dissipation structure. Background Art

[0002] With the advancement of technology, smart buildings are becoming increasingly common, and intelligent control of electrical and weak-current systems has become a key component. Currently, most intelligent electrical and weak-current control devices on the market employ integrated designs, integrating various sensors, controllers, and communication modules to enable remote monitoring and fault diagnosis. These devices are responsible for monitoring and managing electrical equipment within a building, ensuring its normal operation and high performance. These devices typically integrate advanced sensors, controllers, and communication technologies to achieve intelligent management and remote monitoring.

[0003] However, current intelligent building electrical and weak-current control devices present several heat dissipation challenges. For one thing, traditional heat dissipation mechanisms may not effectively handle the high temperatures generated by equipment operation, resulting in decreased performance and stability. Furthermore, some heat dissipation structures rely on water for heat dissipation, but this can fail when water is insufficient. Furthermore, heat dissipation efficiency is also limited by the water's flow rate and contact area. Furthermore, some devices lack comprehensive monitoring and management methods, preventing real-time visibility into equipment operating status and environmental parameters, hindering the implementation of intelligent management. Summary of the Invention

[0004] In view of the deficiencies in the prior art, the present application provides a building electrical weak-current intelligent control device and system with a heat dissipation structure to solve the above-mentioned technical problems.

[0005] To achieve the above-mentioned purpose, the present application provides the following technical solutions: an intelligent building electrical weak-current control device with a heat dissipation structure, comprising a control box, a control module, a heat sink, a heat dissipation plate, an input module and a main control device, the control module is embedded in the front of the control box, the heat sink is assembled on the upper end surface of the control box, the heat plate is embedded in the left side of the control box, the input module is assembled on the back of the control box, the main control device is assembled at the bottom of the inner cavity of the control box, the top of the main control device is equipped with a main control processor, and the top of the main control processor is equipped with a water pump, the water inlet and water outlet of the water pump are both connected with a long tube, two groups of the long tubes are respectively connected to the two sides of the outside of the heat sink at one end away from the water pump, the interior of the long tube is connected with a square tube, the interior of the square tube is connected to a water impeller through a bearing with a seat, and the outside of the water impeller is connected to a first conical tooth through a shaft, the outside of the first conical tooth is meshedly connected to the second conical tooth, and the outside of the second conical tooth is connected to a rotating fan blade; The outside of the control box is connected to a water cooling mechanism, and the water cooling mechanism includes a water storage box, the inside of the water storage box is slidably connected to a floating plate, the top of the water storage box is connected to the heat sink through a bent pipe, the bottom of the floating plate is connected to a T-shaped block, the bottom of the T-shaped block is connected to a double-headed hinge, and both sides of the bottom of the double-headed hinge are connected to a connecting rod, the bottom of the connecting rod is connected to a track block through a hinge, the outside of the track block is slidably connected to a track slide block, and the track slide block is connected to the control box, the bottom of the track block is connected to a sealing plate, and the sealing plate is assembled on the outside of the heat sink.

[0006] Preferably, the surface of the control module is provided with openings, and control buttons and display screens are respectively embedded on both sides of the front of the control module, cooling fans are evenly distributed on the top of the heat sink, openings are provided on the surface of the heat sink, input and output interfaces are evenly distributed on the outside of the input module, communication interfaces are evenly distributed on the outside of the input module, a power supply device is installed on the top of the main control device, and a storage device is installed on the top of the main control device through a card slot, and memory stick groups are evenly distributed on the top of the main control device; the outsides of the control module, heat sink and input module are all connected to the power cord, and the other end of the power cord is connected to the main control device, the control module, heat sink and input module are all connected to the control box through bolts, the power cord can connect the control module, heat sink and input module to the main control device, and control them through the main control device, the bolts facilitate quick disassembly of the control module, heat sink and input module, and then facilitate the staff to maintain and repair the entire device.

[0007] Preferably, the inner bottom of the square tube is equipped with a guide plate, the interior of the square tube is equipped with a bearing, the interior of the bearing is connected to the shaft, the guide plate can guide the water source, make the water source move in a concentrated manner, drive the water impeller to rotate, and finally drive the first conical tooth to rotate.

[0008] Preferably, the outside of the rotating fan blade is equipped with a seat bearing, the seat bearing is connected to the outside of the heat sink, and the outside of the heat sink is evenly provided with holes and grooves. The seat bearing can support the rotating fan blade and improve the overall stability of the device. The holes and grooves on the outside of the heat sink facilitate the heat dissipation of the inside of the control box by the heat sink, and the right side of the outside of the control box is provided with heat dissipation holes that cooperate with the holes and grooves for heat dissipation.

[0009] Preferably, the top of the water storage box is connected to a water injection pipe, and the external thread of the water injection pipe is connected to a pipe cover. The water injection pipe makes it convenient for staff to add coolant to the inside of the water storage box. At the same time, the coolant can enter the inside of the radiator for replenishment. The pipe cover can seal the water storage box to avoid the loss of coolant.

[0010] Preferably, a spring is connected to the inner bottom of the water storage box, and the top of the spring is connected to the float plate. A sealing sleeve is provided between the water storage box and the T-shaped block. The spring can drive the float plate to descend when it loses buoyancy support, thereby transmitting the spring and driving it to move.

[0011] Preferably, track grooves are provided on both sides of the track slide block, and the track grooves are slidably connected to the track block. The track grooves can guide the track block to perform linear reciprocating motion, thereby greatly improving the overall stability of the device.

[0012] Preferably, the long pipes are provided in two groups, which are respectively connected to the water inlet and the water outlet of the water pump, and the two groups of pipes are used for water intake and water discharge, respectively.

[0013] Preferably, the rotating fan blades include a transverse axis, the outside of which is evenly distributed with fan blades, the transverse axis is connected to the second conical teeth, and the outside of the transverse axis is connected to the square tube via a bearing.

[0014] A building electrical weak current intelligent control system with a heat dissipation structure, the system includes a main control unit, a power module, a sensor module and a communication port, the power supply end of the power module is connected to the main control unit, the control end of the main control unit is connected to the sensor module, and the data output and input ends of the main control unit are connected to the communication port; The main control unit includes a microprocessor, a memory and an input and output port, the power module includes a DC power conversion circuit and a voltage stabilization circuit, the sensor module includes a temperature and humidity sensor and a current and voltage detection sensor, and the communication port supports wired and wireless transmission.

[0015] In summary, compared with the prior art, the present application provides a building electrical weak current intelligent control device and system with a heat dissipation structure, which has the following beneficial effects: 1. This building electrical weak current intelligent control device and system with a heat dissipation structure, when water flows inside the long tube, it is guided by the guide plate, driving the water impeller to rotate, and finally driving the first conical teeth and the second conical teeth to rotate, thereby driving the rotating fan blades to rotate to generate negative pressure. The negative pressure draws in external air through the heat dissipation plate, and then discharges it through the heat dissipation holes on the right side of the control box, thereby dissipating heat inside the control box; 2. In this building electrical weak current intelligent control device and system with a heat dissipation structure, when the water source inside the water storage box is pumped out for circulating heat dissipation, the floating plate descends, driving the T-shaped block to descend, thereby driving the two connecting rods to move, and finally driving the two track blocks to move away from each other, driving the sealing plate to release the seal on the heat dissipation plate, so that the heat dissipation plate can be exhausted and ventilated normally; 3. The building electrical weak current intelligent control device and system with a heat dissipation structure, when the water impeller rotates inside the square tube, will disturb the water source inside the square tube, thereby reducing the flow rate of the water source, increasing the contact area between the water source, the water pump and the radiator, and then greatly improving the heat dissipation and cooling effect of the water source, thereby improving the speed and efficiency of heat dissipation of the device; 4. The building electrical weak-current intelligent control device and system with a heat dissipation structure adopts a diversified design of sensor modules, which enables the system to comprehensively monitor the operating status and environmental parameters of the building electrical equipment, providing strong support for intelligent management. The added communication port supports wired and wireless transmission, allowing the system to easily access the remote monitoring network, realize remote monitoring and data uploading, and improve management efficiency. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a front schematic diagram of the present invention.

[0017] Figure 2 It is a top cross-sectional view of the present invention.

[0018] Figure 3 It is a schematic diagram of the back side of the present invention.

[0019] Figure 4 It is a front view of the main control device of the present invention.

[0020] Figure 5 It is a front schematic diagram of a water pump of the present invention.

[0021] Figure 6 It is a partial cross-sectional view of the water pump of the present invention.

[0022] Figure 7 It is a partial cross-sectional view of the water cooling mechanism of the present invention.

[0023] Figure 8 It is a schematic flow diagram of the present invention.

[0024] Figure 9 It is a system schematic diagram of the present invention.

[0025] Description of reference numerals: 1. Control box; 2. Control module; 21. Control buttons; 22. Display screen; 3. Heat sink; 31. Cooling fan; 4. Water cooling mechanism; 41. Water storage box; 42. Floating plate; 43. Spring; 44. T-shaped block; 45. Connecting rod; 46. Track block; 47. Track slide block; 48. Closing plate; 49. Bend pipe; 410. Water injection pipe; 5. Heat sink; 6. Input module; 61. Input and output interface; 62. Communication interface; 7. Main control device; 71. Power supply device; 72. Storage device; 73. Memory module group; 74. Main control processor; 8. Water pump; 81. Long tube; 82. Square tube; 83. Water impeller; 84. First conical tooth; 85. Second conical tooth; 86. Rotating fan blade; 87. Guide plate. DETAILED DESCRIPTION

[0026] The following will be combined with the drawings in the embodiments of this application to clearly and completely describe the technical solutions in the embodiments of this application. Obviously, the embodiments described are only part of the embodiments of this application, not all of the embodiments. Based on the embodiments in this application, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of this application.

[0027] This application provides a technical solution, please refer to Figure 1 、 Figure 2 、 Figure 3 、 Figure 4 and Figure 5 as well as Figure 6, a building electrical weak current intelligent control device with a heat dissipation structure, including a control box 1, a control module 2, a heat sink 3, a heat sink 5, an input module 6 and a main control device 7, the surface of the control module 2 is provided with an opening, and is embedded in the front of the control box 1, and control buttons 21 and display screens 22 are respectively embedded on both sides of the front of the control module 2, the heat sink 3 is assembled on the upper end surface of the control box 1, and a heat dissipation fan 31 is evenly distributed on the top of the heat sink 3, the surface of the heat sink 5 is provided with an opening, and is embedded on the left side of the control box 1, the heat sink 5 is a common open hole plate in the prior art, and air flow can enter the interior of the device through the external opening to perform heat dissipation work, the input module 6 is assembled on the back of the control box 1, and the outside of the input module 6 is evenly provided with input and output interfaces 61, and the outside of the input module 6 is evenly distributed with ventilation The communication interface 62, the main control device 7 is installed at the bottom of the inner cavity of the control box 1, the top of the main control device 7 is equipped with a power supply device 71, and the top of the main control device 7 is equipped with a storage device 72 through a card slot, the top of the main control device 7 is evenly distributed with a memory stick group 73, the top of the main control device 7 is equipped with a main control processor 74, and the top of the main control processor 74 is equipped with a water pump 8, the water inlet and outlet of the water pump 8 are connected to a long tube 81, and the two groups of long tubes 81 are connected to the two sides of the outside of the heat sink at one end away from the water pump 8 respectively, the interior of the long tube 81 is connected to the square tube 82, the interior of the square tube 82 is connected to the water impeller 83 through a bearing with a seat, and the outside of the water impeller 83 is connected to the first conical tooth 84 through a shaft, the outside of the first conical tooth 84 is meshed with the second conical tooth 85, and the outside of the second conical tooth 85 is connected to the rotating fan blade 86.

[0028] The control box 1 can perform intelligent electrical weak current control, the control module 2 can control the operation of components inside the device, the control button 21 can control the running program, the display screen 22 can display the running program, the heat sink 3 is a common heat sink in the prior art, which is used to perform heat exchange and heat dissipation on the outside of the control box 1, the heat dissipation fan 31 is used to cooperate with the heat sink 3 to cool the device, the heat sink 5 can ventilate and dissipate heat for the device, the input module 6 can connect the input and output interface 61 and the communication interface 62, the communication interface 62 can input and output data to and output the device, and the communication interface 62 can transmit the signal of the device, the main control device 7 can support the power supply device 71, the power supply device 71 provides energy for the device, the storage device 72 is used to store data information of the device, the memory stick group 73 is used to support the device to run, and the main control processor 74 can process all operating information of the device, the rotating fan blade 86 includes a horizontal axis, and the outside of the horizontal axis is evenly distributed with fan blades. The horizontal axis is connected to the second conical teeth 85, and the outside of the horizontal axis is connected to the square tube 82 through a bearing.

[0029] See also Figure 5 and Figure 6In order to optimize the efficiency of the cooling system, the pipes are designed and extended to a specific length to more efficiently promote the circulation of the coolant. This long pipe 81 not only ensures the smooth movement of the coolant in the system, but also achieves the continuity and stability of the cooling process. In the entire cooling system, the long pipes 81 are set into two groups, which are connected to the water inlet and outlet of the water pump 8 respectively. One group is dedicated to water intake and is responsible for introducing the cooling liquid into the system; the other group is responsible for drainage, ensuring that the used coolant can be discharged smoothly. This one-in and one-out design greatly improves the cooling efficiency. To support and stabilize the rotating components, the system incorporates square tubes 82. With its robust structure, square tubes 82 provide the necessary support platform for water impellers 83. As the core driving component of the cooling system, water impellers 83 are driven directly by the water source. As water flows through water impellers 83, its power is effectively converted into mechanical rotational energy, thereby driving the entire cooling system. The first conical teeth 84 and the second conical teeth 85 cooperate to drive. When the impeller 83 rotates, the first conical teeth 84 are driven to rotate. Due to the special design of the conical teeth, the rotation of the first conical teeth 84 can be seamlessly transmitted to the second conical teeth 85, which in turn drives the rotating blades 86 to start rotating, enhancing the stability and durability of the system. The airflow generated by the rotation of the fan blades 86 is cleverly directed to the heat sink 5. As the primary channel for dissipating heat from the control box 1, the heat sink 5 is designed to maximize heat dissipation area and improve heat dissipation efficiency. When the airflow generated by the rotating fan blades 86 passes over the heat sink 5, it quickly removes heat from within the control box 1, achieving air cooling. This design and operation together form an efficient and stable cooling system, providing reliable heat dissipation for the control box 1 and its internal components.

[0030] See also Figure 7 The outside of the control box 1 is connected to a water cooling mechanism 4, which includes a water storage box 41. The inside of the water storage box 41 is slidably connected to a floating plate 42. The top of the water storage box 41 is connected to the heat sink 3 through a bend 49. The bottom of the floating plate 42 is connected to a T-shaped block 44. The bottom of the T-shaped block 44 is connected to a double-headed hinge, and both sides of the bottom of the double-headed hinge are connected to a connecting rod 45. The double-headed hinge is composed of two sets of hinges that are axially connected, and the two sets of hinges can rotate relative to each other. The two sets of hinges can respectively drive the connecting rod 45 to rotate. The bottom of the connecting rod 45 is connected to a track block 46 through a hinge, and the outside of the track block 46 is slidably connected to a track slide block 47, and the track slide block 47 is connected to the control box 1. The bottom of the track block 46 is connected to a sealing plate 48, which is assembled on the outside of the heat sink 5.

[0031] The control module 2, the heat sink 3 and the input module 6 are all connected to the main control device 7 through power cables. As a key connection medium, the power cable not only effectively connects the control module 2, the heat sink 3 and the input module 6 in series with the main control device 7, but also ensures that the main control device 7 can accurately and correctly control these modules. Through this connection method, the main control device 7 can receive signals from each module in real time and send necessary instructions to it, thereby ensuring the stable operation of the entire system. Bolt fixing is adopted. The control module 2, the heat sink 3 and the input module 6 are all tightly connected to the control box 1 by bolts. The bolt connection method is not only simple and easy, but also greatly improves the installation efficiency and stability of the module. More importantly, the use of bolts also provides great convenience for the staff, allowing them to quickly and easily disassemble and reinstall these modules when needed, thereby effectively improving the operating efficiency and reliability of the entire device.

[0032] The water storage box 41 can store coolant inside, and the coolant is extracted and used when the radiator 3 and the water pump 8 are working. The float plate 42 can be driven upward by the coolant, and the T-shaped block 44 can transmit the track block 46 through the connecting rod 45. The track block 46 can drive the sealing plate 48 to close or release the heat sink 5, and at the same time, the heat sink 5 can be cleaned of external dust.

[0033] See also Figure 5 and Figure 6 The inner bottom of the square tube 82 is equipped with a guide plate 87, and the interior of the square tube 82 is equipped with a bearing. The interior of the bearing is connected to the shaft. The guide plate 87 can guide the water source to one side for concentrated movement, and the concentrated water source impacts the blades outside the water impeller 83, and finally drives the water impeller 83 to rotate, driving the first conical teeth 84 to rotate.

[0034] The outside of the rotating fan blade 86 is equipped with a seat bearing, which is connected to the outside of the heat sink 5, and the outside of the heat sink 5 is evenly provided with holes and grooves. The seat bearing can support the rotating fan blade 86 and improve the overall stability of the device. The holes and grooves on the outside of the heat sink 5 facilitate the heat sink 5 to dissipate heat to the inside of the control box 1, and the right side of the outside of the control box 1 is provided with heat dissipation holes that cooperate with the holes and grooves for heat dissipation.

[0035] See also Figure 7 The top of the water storage box 41 is connected to a water injection pipe 410, and the external thread of the water injection pipe 410 is connected to a pipe cover. The water injection pipe 410 makes it convenient for the staff to add coolant to the inside of the water storage box 41. At the same time, the coolant can enter the inside of the radiator 3 for replenishment. The pipe cover can seal the water storage box 41 to prevent the loss of coolant.

[0036] A spring 43 is connected to the inner bottom of the water storage box 41, and the top of the spring 43 is connected to the float plate 42. A sealing sleeve is provided between the water storage box 41 and the T-shaped block 44. The spring 43 can drive the float plate 42 to descend when it loses buoyancy support, thereby transmitting the spring 43 and driving it to move.

[0037] Track grooves are provided on both sides of the track slide block 47, and the track grooves are slidably connected to the track block 46. The track grooves can guide the track block 46 to make it perform linear reciprocating motion, thereby greatly improving the overall stability of the device.

[0038] See also Figure 9 , an intelligent building electrical weak current control system with a heat dissipation structure, the system includes a main control unit, a power module, a sensor module and a communication port: The main control unit (MCU) includes a microprocessor, memory, and input / output ports, responsible for data processing and control logic. The microprocessor processes data from the sensor modules, executes the control logic, and issues corresponding control instructions. The memory stores system programs, configuration parameters, and historical data. The input / output ports are responsible for signal exchange with external devices.

[0039] The power supply module is responsible for supplying power to the entire device, including a DC power conversion circuit and a voltage stabilization circuit. The DC power conversion circuit converts the input AC power into the DC power required by the system, while the voltage stabilization circuit ensures the stability of the output voltage to prevent voltage fluctuations from affecting system performance. The sensor module includes temperature and humidity sensors, current and voltage detection sensors, and other components for real-time monitoring of environmental parameters and equipment status. The communication port supports both wired and wireless transmission, facilitating remote monitoring and data upload. The temperature and humidity sensors monitor environmental parameters within the building in real time, providing the system with a basis for adjusting the indoor environment. Current and voltage detection sensors monitor the operating status of electrical equipment, enabling timely detection and early warning of potential faults.

[0040] The communication port supports both wired and wireless transmission methods, facilitating data exchange and command transmission with a remote monitoring center. Wired communication is achieved through interfaces such as Ethernet and RS485, while wireless communication can use wireless communication technologies such as Wi-Fi, Bluetooth, or Zigbee.

[0041] To operate this solution, first secure the control box 1 to the pre-planned installation location. During this process, ensure the device is stable and does not easily vibrate. Also, consider the device's heat dissipation requirements and avoid installing it in confined or poorly ventilated spaces. Ensure that the heat sink 5 faces open space and is not obstructed by other objects to ensure proper operation and heat dissipation.

[0042] After securing the device, connect the power cord. Ensure the power adapter correctly matches the device's voltage, current, and other parameters to avoid device damage or performance degradation caused by using an incompatible power adapter. Next, firmly plug one end of the power cord into the device's power port and the other end into a power outlet, ensuring a tight connection.

[0043] In addition, the communication cable must be correctly connected to the input / output interface 61, and then the other end of the communication cable must be connected to the network to ensure that the device can be successfully connected to the local area network or the Internet for remote monitoring and data transmission.

[0044] See also Figure 8 The workflow of this solution is: log in to the remote monitoring platform through a browser or other remote monitoring software, and configure the equipment parameters according to actual needs, including but not limited to setting working hours, working modes, data transmission rates, etc. At the same time, it is also necessary to set the alarm threshold to ensure that when the equipment operating parameters exceed the preset range, an alarm message can be sent to the management personnel in a timely manner. In addition, the communication address must be set correctly to ensure that the remote monitoring center can accurately identify and connect to the equipment. After starting the device, the main control device 7 begins to initialize, reads the data of the sensor module through the main control device 7, and uploads the data to the remote monitoring center through the communication interface 62. If the temperature is detected to exceed the preset threshold, the main control processor 74 will drive the water pump 8 to drive and dissipate heat inside the device. If the data is normal, the internal temperature of the device will continue to be monitored.

[0045] When in use, the start-up control module 2 draws out the water inside the heat sink 3 and the water storage box 41 through the two sets of long tubes 81 and circulates it to dissipate heat for the main control processor 74. At the same time, when the water flows inside the long tube 81, it drives the water impeller 83 to rotate through the guide plate 87, and finally drives the first conical teeth 84 and the second conical teeth 85 to rotate, thereby driving the rotating fan blades 86 to rotate and generate negative pressure. The negative pressure introduces external air through the heat sink 5, and then discharges it through the heat dissipation holes on the right side of the control box 1, thereby dissipating heat inside the control box 1.

[0046] At the same time, when the water source inside the water storage box 41 is pumped out for circulating heat dissipation, the floating plate 42 descends, driving the T-shaped block 44 to descend, thereby driving the two connecting rods 45 to move, and finally driving the two track blocks 46 to move away from each other, driving the sealing plate 48 to release the seal on the heat sink 5, so that the heat sink 5 can be normally exhausted and ventilated.

[0047] At the same time, when the water impeller 83 rotates inside the square tube 82, it will disturb the water source inside the square tube 82, thereby reducing the flow speed of the water source, increasing the contact area between the water source and the water pump 8 and the radiator 3, and then greatly improving the heat dissipation and cooling effect of the water source, thereby improving the speed and efficiency of heat dissipation of the device.

[0048] It should be noted that, in this document, relational terms such as first and second, etc., are used only to distinguish one entity or operation from another entity or operation, and do not necessarily require or imply any actual relationship or order between these entities or operations. Moreover, the terms "comprises," "comprising," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that includes a list of elements includes not only those elements but also other elements not explicitly listed, or elements inherent to such process, method, article, or apparatus.

[0049] Although the embodiments of the present application have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and variations may be made to these embodiments without departing from the principles and spirit of the present application, and the scope of the present application is defined by the appended claims and their equivalents.

Claims

1. A building electrical weak current intelligent control device with a heat dissipation structure, comprising a control box (1), a control module (2), a heat sink (3), a heat sink (5), an input module (6) and a main control device (7), wherein the control module (2) is embedded in the front of the control box (1), the heat sink (3) is mounted on the upper end surface of the control box (1), the heat sink (5) is embedded in the left side of the control box (1), the input module (6) is mounted on the back of the control box (1), the main control device (7) is mounted on the bottom of the inner cavity of the control box (1), the top of the main control device (7) is equipped with a main control processor (74), and the top of the main control processor (74) is equipped with a water pump (8), characterized in that: The water inlet and the water outlet of the water pump (8) are both connected to a long tube (81), and one end of two groups of the long tubes (81) away from the water pump (8) is respectively connected to the outside of the heat sink (3). The interior of the long tube (81) is connected to a square tube (82), and the interior of the square tube (82) is connected to a water impeller (83) via a seat bearing, and the outside of the water impeller (83) is connected to a first conical tooth (84) via a shaft, the outside of the first conical tooth (84) is meshed with a second conical tooth (85), and the outside of the second conical tooth (85) is connected to a rotating fan blade (86); The control box (1) is externally connected to a water cooling mechanism (4), the water cooling mechanism (4) comprising a water storage box (41), the interior of the water storage box (41) being slidably connected to a floating plate (42), the top of the water storage box (41) being connected to the heat sink (3) via a bend pipe (49), the bottom of the floating plate (42) being connected to a T-shaped block (44), the bottom of the T-shaped block (44) being connected to a double-headed hinge, and both sides of the bottom of the double-headed hinge being connected to a connecting rod (45), the bottom of the connecting rod (45) being connected to a track block (46) via a hinge, the outside of the track block (46) being slidably connected to a track chute block (47), and the track chute block (47) being connected to the control box (1), the bottom of the track block (46) being connected to a sealing plate (48), and the sealing plate (48) being assembled on the outside of the heat sink (5).

2. The intelligent building electrical weak current control device with a heat dissipation structure according to claim 1, characterized in that: The control module (2) has openings on its surface, and control buttons (21) and display screens (22) are respectively embedded on both sides of the front of the control module (2); a cooling fan (31) is evenly distributed on the top of the heat sink (3); an opening is provided on the surface of the heat sink (5); an input and output interface (61) is evenly distributed on the outside of the input module (6); a communication interface (62) is evenly distributed on the outside of the input module (6); a power supply device (71) is installed on the top of the main control device (7); a storage device (72) is installed on the top of the main control device (7) through a card slot; and a memory module group (73) is evenly distributed on the top of the main control device (7); the outsides of the control module (2), the heat sink (3) and the input module (6) are all connected to a power line, and the other end of the power line is connected to the main control device (7); the control module (2), the heat sink (3) and the input module (6) are all connected to the control box (1) through bolts.

3. The intelligent building electrical weak current control device with a heat dissipation structure according to claim 1, characterized in that: The inner bottom of the square tube (82) is equipped with a guide plate (87), and the interior of the square tube (82) is equipped with a bearing, and the interior of the bearing is connected to the shaft.

4. The intelligent building electrical weak current control device with a heat dissipation structure according to claim 1, characterized in that: The outside of the rotating blade (86) is equipped with a seat bearing, the seat bearing is connected to the outside of the heat sink (5), and the outside of the heat sink (5) is evenly provided with holes and grooves.

5. The intelligent building electrical weak current control device with a heat dissipation structure according to claim 1, characterized in that: The top of the water storage box (41) is connected to a water injection pipe (410), and the outer surface of the water injection pipe (410) is threadedly connected to a pipe cover.

6. The intelligent building electrical weak current control device with a heat dissipation structure according to claim 1, characterized in that: The inner bottom of the water storage box (41) is connected to a spring (43), and the top of the spring (43) is connected to the floating plate (42). A sealing sleeve is provided between the water storage box (41) and the T-shaped block (44).

7. The intelligent building electrical weak current control device with a heat dissipation structure according to claim 1, characterized in that: Track grooves are provided on both sides of the track slide block (47), and the track grooves are slidably connected to the track block (46).

8. The intelligent building electrical weak current control device with a heat dissipation structure according to claim 1, characterized in that: The long tubes (81) are provided in two groups, which are respectively connected to the water inlet and the water outlet of the water pump (8).

9. The intelligent building electrical weak current control device with a heat dissipation structure according to claim 1, characterized in that: The rotating fan blades (86) include a transverse axis, the exterior of which is evenly distributed with fan blades, the transverse axis being connected to the second conical teeth (85), and the exterior of the transverse axis being connected to the square tube (82) via a bearing.

10. An intelligent building electrical and weak-current control system with a heat dissipation structure, comprising the intelligent building electrical and weak-current control device with a heat dissipation structure according to any one of claims 1 to 9, characterized in that: The system includes a main control unit, a power module, a sensor module and a communication port. The power supply end of the power module is connected to the main control unit, the control end of the main control unit is connected to the sensor module, and the data output and input ends of the main control unit are connected to the communication port. The main control unit includes a microprocessor, a memory and an input and output port, the power module includes a DC power conversion circuit and a voltage stabilization circuit, the sensor module includes a temperature and humidity sensor and a current and voltage detection sensor, and the communication port supports wired and wireless transmission.

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