Drainage control device based on cloud control platform

Abstract

The utility model relates to the technical field of heat supply network drainage control, in particular to a drainage control device based on a cloud control platform. The device comprises a heating network heater, a butterfly valve connected with the heating network heater through a pipeline, a gate valve connected with the heating network heater through a pipeline, a large-caliber adjusting valve connected with the heating network heater through a pipeline, and a small-caliber adjusting valve connected with the heating network heater through a pipeline. The small-caliber adjusting valve and the large-caliber adjusting valve are connected through a three-way valve and are jointly connected to a heating network heater. Through the combination of the large-caliber adjusting valve and the small-caliber adjusting valve, accurate adjustment of different flow requirements can be achieved, the small-caliber adjusting valve is suitable for small-flow accurate control, the large-caliber adjusting valve is suitable for large-flow adjustment, the small-caliber adjusting valve and the large-caliber adjusting valve are connected in parallel through the three-way valve, and different working condition requirements can be flexibly met; the combination of the butterfly valve and the gate valve provides multiple safety guarantees, and flexible configuration and expansion are allowed according to actual requirements.

Description

Technical Field

[0001] This utility model relates to the technical field of drainage control in heating networks, and in particular to a drainage control device based on a cloud control platform. Background Technology

[0002] The heating network control system mainly controls the level of the condensate drain. The control structure consists of a level sensor, normal condensate drain, emergency condensate drain, proportional electric regulating valve, temperature measuring point, pressure measuring point, and control system.

[0003] However, traditional control systems have some problems. The first is the problem of data silos. The local control mode of heating network equipment makes it impossible to remotely monitor data. The monitoring data is limited and there is no corresponding data analysis system or fault early warning system. In the early stages of some equipment failures, it is not easy to detect or diagnose them manually.

[0004] Secondly, there is the issue of the stability of the condensate level. The stability of the condensate level directly affects the working efficiency of the heating network equipment. A high level causes some heat transfer tubes to be submerged in water, resulting in some heat transfer areas becoming ineffective. If the level is too low, the inlet of the condensate cooling water section is exposed above the water surface, losing its water seal and causing erosion and vibration, which can severely damage the heating network heat exchange system. Traditional control methods adjust the opening of an electric proportional control valve to change the condensate flow rate. However, even a small change in the valve opening during adjustment can cause a large change in the water flow rate. Therefore, this control method can only ensure that the level is within a certain range, but it cannot guarantee the stability of the level, thus hindering high-efficiency and energy-saving heat exchange. The stability of the condensate level is the most critical factor. Utility Model Content

[0005] To address the problem of unstable hydrophobic level control and improve the convenience of data control and viewing, this invention provides a hydrophobic control device based on a cloud control platform.

[0006] The hydrophobic control device based on a cloud control platform provided by this utility model adopts the following technical solution:

[0007] A hydrophobic control device based on a cloud control platform, comprising:

[0008] Heater network heater;

[0009] Butterfly valves are connected to the heating network heaters via pipes;

[0010] Gate valve, connected to the heating network heater via a pipeline;

[0011] A large-diameter regulating valve is connected to the heating network heater via a pipeline;

[0012] A small-diameter regulating valve is connected to the heating network heater via a pipeline;

[0013] The small-diameter regulating valve and the large-diameter regulating valve are connected through a three-way valve and are both connected to the heating network heater.

[0014] By combining large-diameter and small-diameter control valves, precise regulation of different flow requirements can be achieved. Small-diameter control valves are suitable for precise control of small flow rates, while large-diameter control valves are suitable for large flow rate regulation. The two are connected in parallel through a three-way valve, which can flexibly meet different working conditions. Butterfly valves and gate valves are used for normal drainage and emergency drainage. The combination of butterfly valves and gate valves provides multiple safety guarantees and allows for flexible configuration and expansion according to actual needs.

[0015] Furthermore, a liquid level sensor is installed inside the heating network heater, and the liquid level sensor is connected to the control box for data communication.

[0016] The liquid level sensor can monitor the changes in liquid level inside the heating network heater in real time, ensuring that the system always operates within the optimal liquid level range. This helps prevent equipment damage or efficiency reduction caused by excessively high or low liquid levels. Based on the data from the liquid level sensor, the control box can automatically adjust the opening of the large-diameter regulating valve and the small-diameter regulating valve to achieve precise drainage control. This automated adjustment reduces the need for manual intervention and improves the system's response speed and accuracy. The liquid level sensor can promptly detect abnormal liquid levels, such as excessively high or low liquid levels, and issue a warning signal through the control box. This helps operators take quick measures to prevent equipment failure or accidents.

[0017] Furthermore, a remote pressure sensor and a remote temperature sensor are installed and connected on the pipe connecting the butterfly valve and the heating network heater. At least one set of butterfly valves is installed and connected on the heating network heater. The remote pressure sensor and the remote temperature sensor are respectively connected to the control box via data communication.

[0018] Remote pressure and temperature sensors can monitor pressure and temperature changes in pipelines in real time, ensuring that the system always operates within a safe and efficient parameter range. The pressure and temperature sensors can detect pressure or temperature anomalies in a timely manner, such as excessively high pressure or excessively low temperature, and issue early warning signals through the control box. Through real-time pressure and temperature monitoring and automatic adjustment, the system can more accurately control fluid flow and temperature rise and fall, reducing energy waste.

[0019] Furthermore, at least one set of gate valves is installed and connected on the heating network heater.

[0020] Gate valves have excellent sealing performance and reliable shut-off capability, and can completely close or open the fluid in the pipeline. Gate valves can withstand high-pressure environments and are suitable for high-pressure conditions that may be encountered in heating network heater systems. This enhances the safety of the system and prevents equipment damage or accidents caused by excessive pressure. Gate valves have a simple structure and are easy to maintain and repair.

[0021] Furthermore, the heating network heater is connected to the drainage channel via a pipe.

[0022] Drainage channels provide a convenient way for the system to drain water, reducing the frequency of manual cleaning and maintenance. This lowers maintenance costs and improves the maintainability of the system. Timely drainage of liquids through drainage channels can reduce potential problems, lower equipment failure rates, and improve system reliability.

[0023] Furthermore, a regulating pressure sensor and a regulating temperature sensor are installed and connected on the pipeline connecting the small-diameter regulating valve and the large-diameter regulating valve to the heating network heater. The regulating pressure sensor and the regulating temperature sensor are respectively connected to the control box via data communication. The small-diameter regulating valve and the large-diameter regulating valve are respectively connected to the control box via control communication.

[0024] Pressure sensors monitor pressure changes within the pipeline in real time to ensure the system operates within a safe pressure range, while temperature sensors monitor temperature changes within the pipeline in real time to ensure the heat exchange process is within the optimal temperature range. The sensors feed data back to the control box in real time, providing accurate data for system adjustments. Small-diameter regulating valves are used for precise control of small flow rates and are suitable for fine-tuning scenarios, while large-diameter regulating valves are used for controlling large flow rates and are suitable for rapid adjustments or scenarios with large-scale flow rate changes. Through commands from the control box, the regulating valves can precisely adjust their opening based on sensor data to achieve accurate flow control.

[0025] Furthermore, a water quality analyzer is installed and connected to the pipeline connecting the small-diameter regulating valve and the large-diameter regulating valve to the heating network heater, and the water quality analyzer is connected to the control box for data communication.

[0026] Water quality analyzers can monitor water quality parameters of fluids in pipelines in real time, such as pH value, conductivity, turbidity, dissolved oxygen, and ion concentration. The real-time monitoring data is recorded and analyzed through the control box, providing important reference for system operation. Through real-time monitoring by water quality analyzers, water quality problems can be detected in time, and corresponding measures can be taken to prevent equipment corrosion and scaling.

[0027] Furthermore, a cavity pressure sensor and a cavity temperature sensor are installed and connected on the heating network heater. The cavity pressure sensor and the cavity temperature sensor are respectively connected to the control box via data communication. A safety valve is installed and connected on the heating network heater. The safety valve includes at least one set.

[0028] The cavity pressure sensor monitors the pressure changes inside the heating network heater cavity in real time to ensure that the pressure is within a safe range. The cavity temperature sensor monitors the temperature changes inside the heating network heater cavity in real time to ensure that the temperature is within the optimal operating range. The sensor data is recorded and analyzed in real time through the control box, providing an accurate basis for system adjustment. Through the real-time monitoring of the cavity pressure sensor and cavity temperature sensor, pressure or temperature abnormalities can be detected in a timely manner, and the control box can take corresponding measures to avoid accidents.

[0029] Furthermore, a longitudinal vibration sensor and a transverse vibration sensor are installed and connected on the heating network heater, and the longitudinal vibration sensor and the transverse vibration sensor are connected to the control box for data communication.

[0030] Longitudinal vibration sensors monitor the vertical vibration of the heating network heater in real time, while transverse vibration sensors monitor the horizontal vibration of the heating network heater in real time. Abnormal equipment vibration may be caused by mechanical failure, fluid impact, improper installation, or external interference. Through real-time monitoring by longitudinal and transverse vibration sensors, abnormal vibration can be detected in time, and corresponding measures can be taken to avoid equipment damage or accidents.

[0031] Furthermore, the control box communicates with and controls the connection to the cloud server, and the cloud server communicates with and controls the connection to the mobile terminal and the computer terminal.

[0032] Through cloud servers, operators can view the real-time operating status of the heating network heaters on their mobile phones or computers, including data such as cavity pressure, cavity temperature, longitudinal vibration, and lateral vibration. This remote monitoring capability allows operators to grasp the equipment's operating status without being physically present on-site, improving monitoring efficiency. Through mobile phones or computers, operators can remotely send commands to control the operating parameters of the heating network heaters. They can also receive timely fault warnings and arrange maintenance or repairs, avoiding downtime or losses caused by sudden malfunctions.

[0033] In summary, this utility model has the following beneficial technical effects:

[0034] 1. This cloud-based hydrophobic control device significantly improves the operating efficiency and reliability of heating network heaters through its advantages in precise control, high energy efficiency, remote monitoring, flexibility, safety, and data-driven decision-making.

[0035] 2. Install a liquid level sensor inside the heating network heater and connect its data communication to the control box. Through the advantages of real-time liquid level monitoring, automatic adjustment, fault early warning, data recording and analysis, remote monitoring and energy-saving optimization, the intelligence level and operating efficiency of the condensate control device are significantly improved.

[0036] 3. Install and connect remote pressure and temperature sensors on the pipeline connecting the butterfly valve and the heating network heater, and connect the data communication of these sensors to the control box. Through the advantages of real-time pressure and temperature monitoring, automatic adjustment and optimization, fault early warning and protection, data recording and analysis, remote monitoring and maintenance, energy-saving optimization and multiple safety guarantees, the intelligent level and operating efficiency of the condensate control device are significantly improved.

[0037] 4. At least one set of gate valves shall be installed and connected on the heating network heater. Through its advantages in reliable shut-off and opening, high pressure resistance, low flow resistance design, convenient maintenance and repair, multiple safety protections, strong adaptability and long-term stability, the functionality and safety of the condensate control device are significantly enhanced, providing important support for the stable operation of the system.

[0038] 5. By connecting the drain channel to the heating network heater through pipes, the system's drainage function is significantly optimized, and its operating efficiency and safety are improved. This design provides an important guarantee for the long-term stable operation of the heating network heater. It offers advantages in many aspects, including efficient drainage, maintaining stable pressure, improving heat exchange efficiency, reducing failure risk, simplifying maintenance operations, adapting to complex working conditions, environmental protection and resource conservation, and enhancing system safety.

[0039] 6. Install and connect regulating pressure sensors and regulating temperature sensors on the pipes connected to the heating network heater. At the same time, connect the small-diameter regulating valve and the large-diameter regulating valve to the control box for data communication. Through real-time monitoring and feedback, precise control of fluid flow, automatic adjustment and optimization, improved system stability, reduced need for manual intervention, adaptation to complex working conditions, data recording and analysis, and enhanced safety, the system's control accuracy and operating efficiency are significantly improved. This design provides an important guarantee for the intelligent operation and long-term stable operation of the heating network heater.

[0040] 7. Install and connect a water quality analyzer on the pipes connected to the heating network heater, and connect the water quality analyzer to the control box for data communication. Through real-time water quality monitoring, prevention of equipment corrosion and scaling, optimization of heat exchange efficiency, automatic adjustment and optimization, improvement of system stability, reduction of maintenance costs, environmental protection and resource conservation, data recording and analysis, enhanced safety, and adaptability to complex working conditions, this design significantly improves the system's operating efficiency, safety, and environmental performance. This design provides an important guarantee for the intelligent operation and long-term stable operation of the heating network heater.

[0041] 8. Install and connect a cavity pressure sensor and a cavity temperature sensor on the heating network heater, and connect the sensors to the control box for data communication. Install a safety valve on the heating network heater. Through real-time monitoring of cavity pressure and temperature, prevention of pressure and temperature anomalies, automatic adjustment and optimization, improved system stability, enhanced safety, reduced need for manual intervention, adaptation to complex working conditions, data recording and analysis, extended equipment service life, and environmental protection and resource conservation, the system's safety, stability, and operating efficiency are significantly improved. This design provides an important guarantee for the intelligent operation and long-term stable operation of the heating network heater.

[0042] 9. Install and connect longitudinal and transverse vibration sensors on the heating network heater, and connect the sensors to the control box for data communication. Through real-time monitoring of equipment vibration, prevention of abnormal equipment vibration, improvement of system stability, enhancement of safety, reduction of manual intervention requirements, adaptation to complex working conditions, data recording and analysis, extension of equipment service life, environmental protection and resource conservation, and fault diagnosis and early warning, the system's safety, stability and operating efficiency are significantly improved. This design provides an important guarantee for the intelligent operation and long-term stable operation of the heating network heater.

[0043] 10. The control box is connected to a cloud server, which in turn connects to mobile and computer terminals. This enables remote real-time monitoring, remote control and adjustment, data storage and analysis, fault diagnosis and early warning, multi-terminal collaborative management, improved system intelligence, enhanced system security, reduced need for manual intervention, adaptability to complex operating conditions, and data sharing and collaboration. These advantages significantly enhance the system's intelligence, remote monitoring, and management capabilities. This design provides crucial assurance for the intelligent and long-term stable operation of the heating network heaters. Attached Figure Description

[0044] Figure 1 This is a schematic diagram of the component connection structure of this utility model.

[0045] Explanation of reference numerals in the attached figures:

[0046] 1. Heater for heating network; 2. Butterfly valve; 3. Gate valve; 4. Large-diameter regulating valve; 5. Small-diameter regulating valve; 6. Three-way valve; 7. Liquid level sensor; 8. Control box; 9. Remote pressure sensor; 10. Remote temperature sensor; 11. Drainage channel; 12. Water quality analyzer; 13. Regulating pressure sensor; 14. Regulating temperature sensor; 15. Cavity pressure sensor; 16. Cavity temperature sensor; 17. Safety valve; 18. Longitudinal vibration sensor; 19. Lateral vibration sensor. Detailed Implementation

[0047] The following will be combined with the appendix Figure 1The technical solutions in the embodiments of this utility model are clearly and completely described herein. Obviously, the described embodiments are only some embodiments of this utility model, and not all embodiments. Based on the embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort are within the protection scope of this utility model.

[0048] In the description of this utility model, it should be understood that the terms "longitudinal", "lateral", "up", "down", "front", "back", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this utility model and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this utility model.

[0049] Example 1:

[0050] This utility model discloses a hydrophobic control device based on a cloud control platform, referring to... Figure 1 ,include:

[0051] Heater 1 for heating network;

[0052] Butterfly valve 2 is connected to heating network heater 1 via a pipeline;

[0053] Gate valve 3 is connected to heating network heater 1 via a pipeline;

[0054] A large-diameter regulating valve 4 is connected to the heating network heater 1 via a pipeline;

[0055] Small-diameter regulating valve 5 is connected to heating network heater 1 via a pipeline;

[0056] The small-diameter regulating valve 5 and the large-diameter regulating valve 4 are connected through a three-way valve 6 and are jointly connected to the heating network heater 1.

[0057] Check the status of all valves, ensuring that butterfly valve 2 and gate valve 3 are closed, and large-diameter regulating valve 4 and small-diameter regulating valve 5 are closed or at their minimum opening. Slowly open butterfly valve 2 to allow the medium to gradually enter the system. Open gate valve 3 as needed to ensure the pipeline is completely unobstructed. Adjust the opening of large-diameter regulating valve 4 and small-diameter regulating valve 5 as needed to control the flow rate into the heating network heater 1.

[0058] Reference Figure 1 The heating network heater 1 is equipped with a liquid level sensor 7, which is connected to the control box 8 via data communication.

[0059] The level sensor 7 is a magnetic float level gauge with remote signal transmission, which feeds back to the control box 8 in real time and further sends it to the control system. The control system adopts closed-loop control and compares the set value with the set value. Through a specific algorithm, such as the PID algorithm, it outputs an analog quantity to adjust the proportional opening of the large-diameter regulating valve 4 to adjust the deviation value from the liquid level, so that it can quickly reach the set liquid level value.

[0060] The amount of water generated after the equipment is running normally changes dynamically, but the change is relatively small, so only fine-tuning is needed.

[0061] By keeping the opening of the large-diameter regulating valve 4 constant, the deviation value is dynamically compensated by the small-diameter regulating valve 5, which avoids the fluctuation of liquid level caused by the large-diameter regulating valve 4 during fine adjustment, and promotes more efficient and stable operation of the equipment.

[0062] Reference Figure 1 The remote pressure sensor 9 and the remote temperature sensor 10 are installed and connected on the pipe connecting the butterfly valve 2 and the heating network heater 1. At least one set of butterfly valves 2 are installed and connected on the heating network heater 1. The remote pressure sensor 9 and the remote temperature sensor 10 are respectively connected to the control box 8 for data communication.

[0063] Reference Figure 1 At least one set of gate valves 3 are installed and connected on the heating network heater 1.

[0064] Reference Figure 1 The heating network heater 1 is connected to the drainage channel 11 via a pipe.

[0065] Reference Figure 1 The small-diameter regulating valve 5 and the large-diameter regulating valve 4 are connected to the pipelines of the heating network heater 1 by a regulating pressure sensor 13 and a regulating temperature sensor 14. The regulating pressure sensor 13 and the regulating temperature sensor 14 are respectively connected to the control box 8 via data communication. The small-diameter regulating valve 5 and the large-diameter regulating valve 4 are respectively connected to the control box 8 via control communication.

[0066] The large-diameter regulating valve 4 is used for flow regulation in the main circulation pipeline. By adjusting the valve opening, the flow rate of the large-flow medium can be controlled. The small-diameter regulating valve 5 is used for flow regulation in the auxiliary circulation pipeline. By adjusting the valve opening, the flow rate of the small-flow medium can be controlled. The three-way valve 6 combines the flow rates of the large-diameter regulating valve 4 and the small-diameter regulating valve 5 to ensure that the medium enters the heating network heater 1 evenly.

[0067] Reference Figure 1 A water quality analyzer 12 is installed and connected to the pipeline connecting the small-diameter regulating valve 5 and the large-diameter regulating valve 4 to the heating network heater 1. The water quality analyzer 12 is connected to the control box 8 for data communication.

[0068] Reference Figure 1The heating network heater 1 is equipped with and connected to a cavity pressure sensor 15 and a cavity temperature sensor 16. The cavity pressure sensor 15 and the cavity temperature sensor 16 are respectively connected to the control box 8 via data communication. The heating network heater 1 is equipped with and connected to a safety valve 17, and the safety valve 17 includes at least one set.

[0069] Reference Figure 1 The heating network heater 1 is equipped with a longitudinal vibration sensor 18 and a transverse vibration sensor 19, which are connected to the control box 8 via data communication.

[0070] The control system establishes models for each operating condition of the equipment, i.e., the parameters corresponding to each operating condition. If the actual operating condition exceeds the built-in model, the corresponding parameters, such as flow rate and temperature, are adjusted.

[0071] Reference Figure 1 The control box 8 communicates and controls the connection to the cloud server, and the cloud server communicates and controls the connection to the mobile terminal and the computer terminal.

[0072] Operational practice of the intelligent heating network drainage control system shows that the system has strong self-regulation capabilities and can operate fully automatically, ensuring more stable water levels and more efficient and energy-saving heat exchange.

[0073] Furthermore, maintenance personnel can monitor the equipment's operation status in all aspects at any time through computers, mobile phones, and tablets, and can remotely modify any unreasonable parameters, reducing the workload of maintenance personnel.

[0074] Predictive maintenance is the future trend, enabling the timely detection of potential problems and alerting maintenance personnel to resolve them, ensuring the production line operates continuously 24 / 7 year-round.

[0075] Users can see a clear overview of the devices on the homepage.

[0076] Users can search for target devices according to their needs.

[0077] Users can keep records of consumable parts consumption and receive reminders when they are due.

[0078] Users can configure device settings to receive SMS push notifications.

[0079] Users can view detailed information about the device's operation, including various parameters and index charts.

[0080] It automatically diagnoses and generates diagnostic reports, which are then pushed to users.

[0081] Users can view all historical data details of the device since it was first put into use.

[0082] Users can receive alarm notifications from faulty devices immediately.

[0083] Users can view the alarm list and detailed information.

[0084] Users can enable cursor mode for manual, experience-based diagnostics.

[0085] Users can view the sensor list and sensor details.

[0086] The above description is merely an example and illustration of the structure of this utility model. Those skilled in the art can make various modifications or additions to the specific embodiments described or use similar methods to replace them, as long as they do not deviate from the structure of the utility model or exceed the scope defined in the claims, they should all fall within the protection scope of this utility model.

Claims

1. A hydrophobic control device based on a cloud control platform, characterized in that, include: Heater for heating network (1); Butterfly valve (2) is connected to the heating network heater (1) via a pipeline; Gate valve (3) is connected to heat network heater (1) via a pipeline; A large-diameter regulating valve (4) is connected to a heating network heater (1) via a pipeline; A small-diameter regulating valve (5) is connected to a heating network heater (1) via a pipeline; The small-diameter regulating valve (5) and the large-diameter regulating valve (4) are connected through a three-way valve (6) and are jointly connected to the heating network heater (1).

2. The hydrophobic control device based on a cloud control platform according to claim 1, characterized in that: The heat network heater (1) is equipped with a liquid level sensor (7), which is connected to the control box (8) via data communication.

3. The hydrophobic control device based on a cloud control platform according to claim 1, characterized in that: The butterfly valve (2) is connected to the pipeline of the heating network heater (1) by a remote pressure sensor (9) and a remote temperature sensor (10). At least one set of butterfly valves (2) is installed and connected on the heating network heater (1). The remote pressure sensor (9) and the remote temperature sensor (10) are respectively connected to the control box (8) via data communication.

4. The hydrophobic control device based on a cloud control platform according to claim 1, characterized in that: At least one set of gate valves (3) are installed and connected on the heating network heater (1).

5. The hydrophobic control device based on a cloud control platform according to claim 1, characterized in that: The heating network heater (1) is connected to the drainage channel (11) via a pipe.

6. The hydrophobic control device based on a cloud control platform according to claim 1, characterized in that: The small-diameter regulating valve (5) and the large-diameter regulating valve (4) are connected to the pipelines of the heating network heater (1) by a regulating pressure sensor (13) and a regulating temperature sensor (14). The regulating pressure sensor (13) and the regulating temperature sensor (14) are respectively connected to the control box (8) via data communication. The small-diameter regulating valve (5) and the large-diameter regulating valve (4) are respectively connected to the control box (8) via control communication.

7. A hydrophobic control device based on a cloud control platform according to claim 6, characterized in that: A water quality analyzer (12) is installed and connected to the pipes connecting the small-diameter regulating valve (5) and the large-diameter regulating valve (4) to the heating network heater (1). The water quality analyzer (12) is connected to the control box (8) via data communication.

8. The hydrophobic control device based on a cloud control platform according to claim 1, characterized in that: The heating network heater (1) is equipped with and connected to a cavity pressure sensor (15) and a cavity temperature sensor (16). The cavity pressure sensor (15) and the cavity temperature sensor (16) are respectively connected to the control box (8) via data communication. The heating network heater (1) is equipped with and connected to a safety valve (17). The safety valve (17) includes at least one set.

9. The hydrophobic control device based on a cloud control platform according to claim 1, characterized in that: The heating network heater (1) is equipped with and connected to a longitudinal vibration sensor (18) and a transverse vibration sensor (19), and the longitudinal vibration sensor (18) and the transverse vibration sensor (19) are connected to the control box (8) via data communication.

10. A hydrophobic control device based on a cloud control platform according to any one of claims 2, 3, 6, 7, 8 and 9, characterized in that: The control box (8) communicates and controls the connection to the cloud server, and the cloud server communicates and controls the connection to the mobile terminal and the computer terminal.

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