Heating filter control method and device, electronic equipment and storage medium

Abstract

The invention relates to a heater filtering control method and device, electronic equipment and a storage medium, and the method comprises the steps: accessing a preset Internet of Things, displaying the operation information of a heater filtering device in a display terminal of the preset Internet of Things, receiving a control instruction through the preset Internet of Things, and displaying the operation information of the heater filtering device in the display terminal of the preset Internet of Things. The control instruction carries a target operation mode of the heater filtering device; responding to the control instruction, calling a control module of the heater filtering device, and controlling the on-off state of an electric waterway on-off component of the heater filtering device according to a preset target mode state corresponding relation so as to execute the target operation mode; and after the target operation mode is executed, updating operation information displayed in the display terminal. A user can remotely check the running state, the water temperature and the water pressure through a terminal (such as a mobile phone and a computer), on-site operation is not needed, heating abnormity is rapidly found, and the management cost is reduced.

Description

Technical Field

[0001] This application relates to the field of data processing technology, and in particular to a heating filtration control method, device, electronic device and storage medium. Background Technology

[0002] In northern my country, centralized heating is the primary way to ensure indoor temperature during winter. With the improvement of residents' living standards, underfloor heating, with its advantages of even heat distribution and small space requirement, has seen a continuous increase in its application in heating systems. However, during long-term operation, underfloor heating and radiator pipes are susceptible to the accumulation of impurities such as mud, rust, and scale inside the pipes due to multiple factors including heating water quality, pipe aging, and improper system maintenance. The presence of these impurities has become a key issue affecting the stability and lifespan of the heating system.

[0003] Specifically, the accumulation of impurities can lead to the following problems: First, impurities can clog the inner diameter of pipes, increasing water flow resistance and significantly reducing the efficiency of heating water circulation. This directly results in insufficient indoor heating and a greatly reduced heating effect, especially during the cold season, severely impacting residents' comfort. Second, long-term adhesion of impurities to the inner wall of pipes accelerates corrosion and aging, reducing the structural strength of the pipes. When the blockage is severe, the water pressure inside the pipes can rise sharply, easily causing safety accidents such as blockage and bursting of underfloor heating pipes. This not only requires high repair costs but may also cause damage to indoor furniture and decorations due to leaks, leading to significant property losses. Third, impurities entering the underfloor heating radiator terminals can affect the heat conduction efficiency of the radiator elements, further exacerbating the problem of poor heating performance. It also shortens the overall lifespan of the underfloor heating system, increasing users' later maintenance and replacement costs.

[0004] Currently, most existing heating filtration devices on the market only have basic inlet water filtration functions and cannot monitor the operating status of the heating system (such as inlet, outlet, and return water pressure and temperature) in real time, making it difficult to predict system failure risks in advance. Moreover, filter cleaning mostly relies on manual operation, requiring users to disassemble and clean it regularly, which is cumbersome and prone to filter failure due to untimely cleaning. In addition, the lack of cleaning function for deep impurities inside underfloor heating pipes cannot fundamentally solve the problems of pipe blockage and corrosion, and it does not have network intelligent control capabilities, which is out of step with the current development trend of the smart home field and fails to meet users' needs for automated and intelligent operation and maintenance of heating systems.

[0005] Therefore, there is an urgent need to develop a new technical solution to solve one or more of the aforementioned problems. Summary of the Invention

[0006] In view of this, in order to solve the above-mentioned technical problems or some of the technical problems, the present invention provides a heating filtration control method, device, electronic device and storage medium.

[0007] In a first aspect, this application provides a heating filtration control method, including:

[0008] The device is connected to a preset Internet of Things (IoT) and its operating information, including operating status and water temperature and pressure data, is displayed on the display terminal of the preset IoT.

[0009] The preset Internet of Things receives control commands, which carry the target operating mode of the heating filter device.

[0010] In response to the control command, the control module of the heating filter device is invoked, and the on / off state of the electric water circuit switching component of the heating filter device is controlled according to the preset target mode state correspondence, so as to execute the target operation mode.

[0011] After executing the target operating mode, the real-time water temperature and pressure data of the heating filter device are collected by the temperature sensor and pressure sensor, and the operating status is updated by the status monitoring module. The updated water temperature and pressure data and operating status are uploaded to the preset Internet of Things platform to update the operating information displayed on the display terminal.

[0012] In one possible implementation, when the target operating mode is normal heating mode, the step of invoking the control module of the heating filter device and controlling the on / off state of the electric water circuit switching component of the heating filter device according to a preset target mode state correspondence to execute the target operating mode includes:

[0013] The control module of the heating filter device is invoked to control the water circuit opening and closing components corresponding to the heating inlet, outlet, and return water to be in the open state, and to control the water circuit opening and closing components corresponding to the external water circuit and drainage to be in the closed state, so that the heating water enters the underfloor heating system after being filtered by the filter to achieve heating.

[0014] In one possible implementation, when the target operating mode is the filter flushing mode, the step of invoking the control module of the heating filter device and controlling the on / off state of the electric water circuit switching component of the heating filter device according to a preset target mode state correspondence to execute the target operating mode includes:

[0015] The control unit of the heating filter device is invoked to control the water circuit on / off components corresponding to the heating inlet and return water to be closed, and to control the water circuit on / off components corresponding to the heating outlet, external water circuit, and drainage to be open. External clean water source is controlled to enter the filter through the external water circuit for backwashing, and the wastewater generated during backwashing is discharged through the drainage path.

[0016] In one possible implementation, the method further includes:

[0017] After the filter is flushed, the heating filter is switched to normal heating mode to restore the filtration and heating process of the heating water. The real-time water temperature and pressure data of the heating filter are collected by the temperature sensor and pressure sensor, and the operating status is updated by the status monitoring module. The updated water temperature and pressure data and operating status are uploaded to the preset Internet of Things platform to update the operating information displayed on the display terminal.

[0018] In one possible implementation, when the target operating mode is the floor heating cleaning mode, the step of invoking the control module of the heating filter device and controlling the on / off state of the electric water circuit switching component of the heating filter device according to a preset target mode state correspondence to execute the target operating mode includes:

[0019] The control unit of the heating filter device is invoked to control the water circuit on / off components corresponding to the heating water inlet to be in the closed state, control the water circuit on / off components corresponding to the heating water outlet, return water, and external water circuit to be in the open state, control the water circuit on / off components corresponding to the drainage to be in the closed state, control the external clean water source to enter the floor heating pipes sequentially through the external water circuit, filter, and heating water outlet path for flushing, and discharge the flushed wastewater through the heating water return path.

[0020] In one possible implementation, the method further includes:

[0021] After the underfloor heating system is cleaned, the heating filter device is switched to normal heating mode, and the on / off state of each water circuit component is restored to that of normal heating to ensure that the heating water enters the underfloor heating system after normal filtration.

[0022] In one possible implementation, when the target operating mode is the automatic filter flushing mode, the step of invoking the control module of the heating filter device and controlling the on / off state of the electric water circuit switching component of the heating filter device according to a preset target mode state correspondence to execute the target operating mode includes:

[0023] Obtain the flushing cycle preset by the user through local operating components or smart home system;

[0024] The control unit is invoked to start timing according to the rinsing cycle, and the control device enters the filter rinsing mode when the timing reaches the set cycle.

[0025] After the flushing is complete, switch back to normal heating mode and restart the timer to cycle through the preset automatic flushing operation.

[0026] Secondly, embodiments of this application provide a heating filtration control device, comprising:

[0027] An access module is used to access a preset Internet of Things (IoT) and display the operating information of the heating filter device on the display terminal of the preset IoT. The operating information includes operating status and water temperature and pressure data.

[0028] A receiving module is used to receive control commands via the preset Internet of Things, the control commands carrying the target operating mode of the heating filter device;

[0029] The calling module is used to respond to the control command, call the control module of the heating filter device, and control the on / off state of the electric water circuit switching component of the heating filter device according to the preset target mode state correspondence, so as to execute the target operation mode.

[0030] The update module is used to collect real-time water temperature and pressure data of the heating filter device through the temperature sensor and pressure sensor after executing the target operation mode, and update the operation status through the status monitoring module. The updated water temperature and pressure data and operation status are then uploaded to the preset Internet of Things platform to update the operation information displayed on the display terminal.

[0031] Thirdly, embodiments of this application provide an electronic device, including a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor executes the computer program to implement the steps of the heating filter control method described above.

[0032] Fourthly, embodiments of this application provide a storage medium storing a computer program thereon, which, when executed by a processor, implements the steps of the heating filtration control method described above.

[0033] The technical solutions provided in this application have the following advantages compared with the prior art:

[0034] 1. More convenient remote visual monitoring: After connecting to the Internet of Things, users can remotely view the operating status, water temperature and pressure through terminals (such as mobile phones and computers), without on-site operation, quickly detect heating abnormalities, and reduce management costs.

[0035] 2. Precise and reliable remote control: Based on the Internet of Things, the system receives control commands and precisely controls the on / off state of water circuit components according to preset correspondences, avoiding human operation errors, ensuring accurate switching of operating modes (such as heating and flushing), and improving the stability of the device.

[0036] 3. Data closed-loop facilitates management: After the mode is executed, water temperature and pressure are collected in real time, the operating status is updated and uploaded, and users can keep track of the results in a timely manner; at the same time, it provides data support for equipment failure prediction, life extension and subsequent intelligent upgrades. Attached Figure Description

[0037] Figure 1 A schematic flowchart of a heating filtration control method provided in an embodiment of this application;

[0038] Figure 2 This is a schematic diagram of the structure of a heating filter control device provided in an embodiment of this application;

[0039] Figure 3 A schematic diagram of a heating filter device provided in an embodiment of this application;

[0040] Figure 4 A schematic diagram of another heating filter device provided in an embodiment of this application;

[0041] Figure 5 This is a schematic diagram of the structure of an electronic device provided in an embodiment of this application. Detailed Implementation

[0042] To make the objectives, technical solutions, and advantages of the embodiments of this application clearer, the technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, not all embodiments. Based on the embodiments of this application, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this application.

[0043] The following disclosure provides numerous different embodiments or examples for implementing various structures of the invention. To simplify the disclosure, specific examples of components and arrangements are described below. These are merely examples and are not intended to limit the scope of the invention. Furthermore, reference numerals and / or letters may be repeated in different examples. Such repetition is for simplification and clarity and does not in itself indicate a relationship between the various embodiments and / or arrangements discussed.

[0044] Currently, most mainstream heating filtration equipment on the market suffers from limited functionality and insufficient intelligence. These devices mostly only provide basic inlet water filtration, lacking comprehensive monitoring capabilities for the heating system's operation. They cannot collect and analyze key parameters such as water pressure and temperature at the inlet, outlet, and return pipes in real time, making it difficult to provide timely warnings of system malfunctions and offering users effective fault prediction and risk prevention. Regarding filter cleaning, existing equipment mostly uses traditional mechanical filtration methods, relying entirely on manual operation. Users need to manually disassemble and clean the filters at fixed intervals, which is not only cumbersome and time-consuming but also prone to filter clogging due to delayed cleaning, severely impacting filtration efficiency and lifespan. More importantly, existing equipment generally lacks specialized cleaning functions for deep-seated impurities inside underfloor heating pipes, failing to effectively remove stubborn dirt and scale adhering to the pipe walls, and thus failing to fundamentally prevent and solve systemic problems such as pipe blockage and corrosion. Furthermore, these traditional devices are not equipped with IoT modules and lack modern functions such as remote monitoring and intelligent adjustment. They are severely out of touch with the rapidly developing smart home ecosystem, unable to achieve interconnection between devices or meet users' upgrade needs for automated operation and maintenance and intelligent management of heating systems. They also have significant shortcomings in terms of user experience and energy conservation and environmental protection.

[0045] The embodiments of this application aim to solve at least one of the above-mentioned technical problems, and therefore provide a heating filtration control method, device, electronic device and storage medium, according to which at least one of the above-mentioned technical problems can be solved.

[0046] Figure 1 This is a flowchart illustrating a heating filtration control method provided in an embodiment of this application, as shown below. Figure 1 As shown, the method includes:

[0047] S1: Connect to a preset Internet of Things (IoT) and display the operating information of the heating filter device on the display terminal of the preset IoT. The operating information includes operating status and water temperature and pressure data.

[0048] S2: Receive control commands via the preset Internet of Things, the control commands carrying the target operating mode of the heating filter device;

[0049] S3: In response to the control command, the control module of the heating filter device is invoked, and the on / off state of the electric water circuit switching component of the heating filter device is controlled according to the preset target mode state correspondence, so as to execute the target operation mode.

[0050] S4: After executing the target operating mode, the real-time water temperature and pressure data of the heating filter device are collected by the temperature sensor and pressure sensor, and the operating status is updated by the status monitoring module. The updated water temperature and pressure data and operating status are uploaded to the preset Internet of Things platform to update the operating information displayed on the display terminal.

[0051] Specifically, the system first connects to a pre-configured IoT platform network to establish a stable communication connection. On the IoT platform's display terminals (such as mobile apps, computer clients, or smart control screens), various operational information of the heating filter device is displayed in real time. This operational information includes not only the device's basic operating status (such as running / standby / fault), but also important water temperature and pressure monitoring data, providing users with a comprehensive display of the device's operating status.

[0052] The system receives remote control commands from users or automatic control systems through a pre-set IoT platform. These control commands are transmitted in encrypted form to ensure security, and each command clearly carries the target operating mode parameters that the heating filter needs to switch to, such as energy-saving mode, high-power mode, or timer mode.

[0053] Upon receiving a valid control command, the system responds and executes it immediately. First, it invokes the intelligent control module built into the heating filter device. Then, based on a pre-stored table of target modes and states, it precisely controls the on / off states of the electric water circuit components within the heating filter device. By adjusting the on / off combinations of these key components, it achieves smooth switching between different operating modes, ensuring the equipment accurately executes the target operating mode as required by the command.

[0054] After successfully switching to the target operating mode, the system continuously collects the actual operating parameters of the heating filter device through high-precision temperature and pressure sensors, including key data such as real-time water temperature and pressure. Simultaneously, the status monitoring module dynamically updates the device's operating status information. All updated water temperature and pressure data, as well as operating status information, are uploaded to the IoT platform server in real time via a secure channel, ultimately synchronizing and updating the operating information displayed on the terminal, forming a complete monitoring loop to ensure users are always aware of the device's latest status.

[0055] In addition, the system has a self-diagnostic function, capable of performing self-tests periodically or automatically under abnormal conditions. During the self-diagnostic process, the system checks the accuracy of each sensor, the response speed and reliability of the electric water circuit switching components, and the operating status of other key components. Once any abnormality or malfunction is detected, the system will automatically record the fault information and promptly notify the user through the IoT platform, while providing possible fault cause analysis and suggested maintenance measures.

[0056] To further enhance the user experience, the system also integrates intelligent learning algorithms. By collecting and analyzing users' habits and preferences over a long period, the system can learn and predict users' needs for the operating modes of the heating filter. For example, the system can automatically adjust the operating mode of the heating filter based on the user's daily routine to achieve the best balance between energy saving and comfort. In addition, the system can intelligently adjust water temperature and pressure based on seasonal changes, external ambient temperature and humidity, and other external factors to ensure indoor environmental comfort.

[0057] To ensure the long-term stable operation of the system, a remote upgrade function is also designed. When the system detects a new software update or feature enhancement, it will automatically download the update package through the IoT platform and perform the system upgrade within the maintenance time window specified by the user. During the upgrade process, the system will ensure the safe operation of the heating filtration device and will not interfere with the user's normal life.

[0058] Finally, to ensure user data security and privacy, the system was designed with security and privacy protection measures in mind. All data transmitted through the IoT platform undergoes advanced encryption to ensure data security during transmission. Simultaneously, the system provides multi-level user access control, ensuring that only authorized users can access and control the heating filter device, thus protecting user privacy while providing convenient services.

[0059] In one possible implementation, when the target operating mode is normal heating mode, the step of invoking the control module of the heating filter device and controlling the on / off state of the electric water circuit switching component of the heating filter device according to a preset target mode state correspondence to execute the target operating mode includes:

[0060] S3-1: Call the control module of the heating filter device to control the water circuit on / off components corresponding to the heating inlet, outlet and return water to be in the open state, and control the water circuit on / off components corresponding to the external water circuit and drainage to be in the closed state, so that the heating water enters the underfloor heating system after being filtered by the filter to achieve heating.

[0061] In a specific example, the detailed steps are as follows:

[0062] First, the system invokes the built-in intelligent control module of the heating filtration device. This module, through preset program logic and sensor feedback, precisely regulates the operating status of each water circuit on / off component. Specifically, the system simultaneously controls the electric water circuit on / off components corresponding to the heating inlet, outlet, and return inlet to be fully open, ensuring unobstructed water flow. At the same time, the system strictly controls the water circuit on / off components corresponding to external water circuit connections and drainage functions to be fully closed, preventing water leakage or contamination with untreated water. This precise valve control strategy ensures that the heating water follows a preset path, first undergoing thorough purification through the built-in high-efficiency filter to remove any impurities and particulate matter, and then delivering the filtered clean hot water to the various pipes of the underfloor heating system, thus achieving a safe, efficient, and stable heating effect. Throughout the process, the system continuously monitors the status of each valve and water flow parameters to ensure the stable operation of the heating system. S3-2: After ensuring the correct configuration of the water circuit on / off components, the system further monitors and adjusts the water temperature to adapt to the current heating demand. The system monitors the water temperature in the underfloor heating system in real time using temperature sensors and compares it with a preset temperature range. If the detected water temperature is lower than the set minimum heating temperature threshold, the system will automatically activate the heating device to gradually raise the water temperature to a suitable heating level. Conversely, if the water temperature exceeds the set maximum temperature threshold, the system will adjust the valve opening or activate the cooling system to lower the water temperature to prevent overheating and damage to the underfloor heating system.

[0063] In addition, to ensure the continuity and energy efficiency of heating, the system dynamically adjusts the heating intensity and operating time based on parameters such as changes in indoor and outdoor temperatures, user-set temperature preferences, and schedules. For example, at night or when users are away from home for extended periods, the system may automatically switch to energy-saving mode, reducing the water temperature or the frequency of heating. Before users return home, the system will start in advance to ensure the indoor temperature reaches a comfortable level.

[0064] Throughout the heating season, the system will also perform regular self-diagnostics and maintenance reminders. Through its built-in diagnostic program, the system can detect filter blockage, water circuit sealing, and the operational status of various components. If a potential problem is detected, the system will issue a warning to the user via the user interface or remote communication, providing corresponding maintenance suggestions or automatically executing necessary maintenance procedures, such as automatically flushing the filter or adjusting water circuit components, to ensure the long-term stable operation of the heating system.

[0065] In one possible implementation, when the target operating mode is the filter flushing mode, the step of invoking the control module of the heating filter device and controlling the on / off state of the electric water circuit switching component of the heating filter device according to a preset target mode state correspondence to execute the target operating mode includes:

[0066] S3-2: Call the control unit of the heating filter device to control the water circuit on / off components corresponding to the heating water inlet and return to the closed state, control the water circuit on / off components corresponding to the heating water outlet, external water circuit, and drainage to the open state, control the external clean water source to enter the filter through the external water circuit for backwashing, and discharge the wastewater generated by backwashing through the drainage path.

[0067] In a specific example, the intelligent control unit of the heating filter first sends a control command to completely shut off the electric water circuit switching components corresponding to the inlet and return water pipes of the heating system, ensuring that the system is in an isolated state. At the same time, the electric water circuit switching components corresponding to the outlet water pipe, external clean water supply pipe, and drainage pipe of the heating system are all opened to form a complete backwashing loop. In this state, the external clean water source enters the filter under pressure through the external water pipe, performing a powerful backwashing on the filter screen to thoroughly remove accumulated impurities and dirt. Finally, the wastewater containing impurities generated during the rinsing process is completely discharged from the system through a specially designed drainage path, thereby completing the entire filter cleaning process.

[0068] After completing the above steps, the system will enter a brief pause phase to ensure stable water pressure inside the filter and allow sufficient time for loosened impurities to settle. During this period, the control unit will continuously monitor the pressure and water level inside the filter to ensure safe and stable system operation.

[0069] Subsequently, the control unit will initiate the filter's drainage process, gradually expelling residual water from inside the filter by controlling the electrically operated water circuit on / off components in the drainage path. During the drainage process, the control unit will intelligently adjust the drainage speed based on real-time monitored water level data to prevent damage to the filter's internal structure due to excessively rapid drainage.

[0070] After all the water inside the filter has been completely drained, the control unit executes a drying procedure by activating an external clean air source to blow dry air through the filter, removing any residual moisture and potential dampness. This process helps prevent the growth of bacteria or mold inside the filter due to moisture, ensuring long-term stable operation of the filter and maintaining air quality.

[0071] After the drying process is complete, the control unit will shut off all electrically operated water circuit switches, restoring the system to its initial state before the filter flushing mode. At this point, the system will send a signal to the user interface, indicating that the filter flushing and maintenance work is complete and the system is ready to resume normal operation.

[0072] Finally, the control unit will record detailed data for this filter flushing, including flushing time, water consumption, wastewater discharge, and flushing effect evaluation. This data will be stored in the system's log file for future analysis and maintenance. Using this data, the system can intelligently adjust future flushing cycles and modes to achieve more efficient and energy-saving operation.

[0073] In one possible implementation, the method further includes:

[0074] After the filter is flushed, the heating filter is switched to normal heating mode to restore the filtration and heating process of the heating water. The real-time water temperature and pressure data of the heating filter are collected by the temperature sensor and pressure sensor, and the operating status is updated by the status monitoring module. The updated water temperature and pressure data and operating status are uploaded to the preset Internet of Things platform to update the operating information displayed on the display terminal.

[0075] In a specific example, the detailed steps are as follows:

[0076] Once the system detects that the filter has completed its flushing process, the control module smoothly transitions the heating filter's operating mode from flushing mode to normal heating mode. During this process, the system gradually restores the regular filtration function and heating circulation of the heating water. Simultaneously, the system continuously collects real-time temperature and pressure parameters of the heating water flow using high-precision temperature and pressure sensors installed on the pipes. This real-time data is immediately transmitted to the status monitoring module for processing and analysis, which dynamically updates the system's current operating status based on the latest data. The updated water temperature data, water pressure data, and system operating status information are uploaded in real-time to a pre-set cloud-based IoT management platform via the IoT communication module. Upon receiving this data, the platform immediately updates the system operating information displayed on the terminal (including but not limited to mobile app, PC management software, or on-site control panel), ensuring that operators can monitor the device's latest operating status at any time.

[0077] In one additional example, after data is uploaded to the IoT platform, the system automatically performs data analysis and diagnostics. Through advanced algorithms, the system can conduct in-depth analysis of the uploaded water temperature, water pressure, and operational status, identifying any potential anomalies or trend changes. For example, the system might detect minute fluctuations in water temperature, which could be caused by a decrease in the efficiency of a component in the heating system. This real-time monitoring and analysis allows the system to provide early warnings of potential faults, enabling maintenance teams to conduct timely inspections and repairs, preventing heating outages due to system failures.

[0078] Furthermore, the IoT platform can optimize the performance of the heating system based on historical and real-time data. For example, the platform can automatically adjust the operating parameters of the heating system based on historical operating data and current environmental conditions to achieve more efficient energy use and better heating results. This intelligent optimization function not only reduces energy waste but also improves user comfort.

[0079] To further enhance the system's intelligence, the IoT platform can also be integrated with weather forecasting systems. By acquiring real-time weather information, the system can predict the impact of external environmental changes on heating demand and adjust heating strategies accordingly. For example, before cold weather arrives, the system can increase heating output in advance to ensure users can still enjoy a warm indoor environment when temperatures drop sharply.

[0080] Finally, to ensure the long-term stable operation of the system, the IoT platform also features remote control capabilities. When necessary, system administrators can remotely adjust the heating system settings through the platform, or remotely shut down the system in emergencies to prevent potential equipment damage or safety accidents. Simultaneously, the platform will regularly generate operational reports, providing data support for system maintenance and upgrades.

[0081] In one possible implementation, when the target operating mode is the floor heating cleaning mode, the step of invoking the control module of the heating filter device and controlling the on / off state of the electric water circuit switching component of the heating filter device according to a preset target mode state correspondence to execute the target operating mode includes:

[0082] S3-3: The control unit of the heating filter device is invoked to control the water circuit on / off component corresponding to the heating water inlet to be in the closed state, control the water circuit on / off component corresponding to the heating water outlet, return water, and external water circuit to be in the open state, control the water circuit on / off component corresponding to the drainage to be in the closed state, control the external clean water source to enter the floor heating pipe sequentially through the external water circuit, filter, and heating water outlet path for flushing, and discharge the flushed sewage through the heating water return path.

[0083] In a specific example, the detailed steps are as follows:

[0084] First, the intelligent control unit of the heating filter device issues precise commands to completely shut off the water supply components connected to the heating inlet pipe, ensuring that heating water does not enter the system. Simultaneously, it keeps the water supply components connected to the heating outlet pipe, return pipe, and external clean water source pipe fully open. Furthermore, it ensures that the water supply components connected to the drainage pipe are completely closed. With this configuration, external clean water can smoothly enter the underfloor heating system through the external water supply pipe, precision filter, and heating outlet pipe, thoroughly flushing the inner walls of the pipes with high-pressure water flow. Simultaneously, the wastewater containing impurities and dirt generated during flushing is completely discharged through the heating return pipe system, thus achieving efficient cleaning of the underfloor heating pipes.

[0085] After completing the above steps, the system will enter a brief pause to ensure that the water pressure in all pipes reaches a balanced state. This phase helps to avoid unnecessary damage to the underfloor heating pipes due to sudden changes in water pressure.

[0086] Subsequently, the control unit will initiate a cyclic flushing program, which periodically opens and closes the water supply components connected to the external clean water source to intermittently flush the underfloor heating pipes. This intermittent flushing method helps improve cleaning efficiency while reducing water waste.

[0087] During the circulating flushing process, the control unit monitors the water temperature in the underfloor heating pipes in real time. Once the water temperature exceeds the preset safety threshold, the system will automatically adjust the status of the water circuit on / off components to reduce water flow, thereby lowering the water temperature and ensuring the safety of the entire cleaning process.

[0088] After completing the predetermined number of flushing cycles, the control unit will shut off the water circuit connection to the external clean water source and open the corresponding water circuit connection for drainage, allowing the flushed wastewater to be smoothly discharged from the system.

[0089] Finally, the system will perform a thorough drainage operation to ensure that no moisture remains inside the underfloor heating pipes. After drainage is complete, the control unit will shut off all water circuit switches, restoring the system to standby mode, awaiting the next start of cleaning or heating mode.

[0090] In one possible implementation, the method further includes:

[0091] After the underfloor heating system is cleaned, the heating filter device is switched to normal heating mode, and the on / off state of each water circuit component is restored to that of normal heating to ensure that the heating water enters the underfloor heating system after normal filtration.

[0092] In one possible implementation, the specific steps are as follows:

[0093] Once the system detects that the underfloor heating cleaning process is complete, it first needs to switch the operating mode of the heating filter device currently in cleaning mode to normal heating mode. Specifically, the filter device is switched from cleaning mode to normal heating mode. Subsequently, the system automatically controls the on / off state of each water circuit component, gradually restoring their operating status to the standard on / off configuration during normal heating. This series of operations ensures that the filtered heating water can smoothly enter the underfloor heating system according to the preset process, while simultaneously ensuring that the entire heating system returns to normal operation, providing users with continuous and stable heating services.

[0094] After completing the mode switching and restoring the on / off components, the system will perform a comprehensive test procedure to verify that all components have been correctly restored to normal heating conditions. This includes checking that the water circuit is unobstructed, the filter is working properly, and all relevant sensors and control units are operating under optimal conditions.

[0095] Once the testing procedure confirms that all components are in normal working order, the system will automatically initiate a preheating cycle. During this cycle, the underfloor heating system will gradually heat up to avoid unnecessary pressure or damage to the pipes or filters due to sudden temperature changes.

[0096] After the preheating cycle is complete, the system will enter monitoring mode to monitor the operating parameters of the underfloor heating system in real time, such as temperature, pressure, and flow rate. These parameters will be compared with the preset optimal operating parameters to ensure that the underfloor heating system operates in the best possible condition.

[0097] If any anomalies are detected during monitoring, the system will automatically trigger an alarm mechanism and take appropriate measures based on the nature of the problem. For example, if a clogged filter is detected, the system will prompt the user to clean or replace the filter; if the temperature rises abnormally, the system will automatically adjust the water flow to lower the temperature and ensure safety.

[0098] While ensuring the stable operation of the underfloor heating system, the system also records all operational data and maintenance events, providing a detailed historical record for future maintenance and fault diagnosis. This data will help optimize the performance of the underfloor heating system and provide users with personalized maintenance recommendations.

[0099] Finally, the system will periodically remind users to perform routine checks and maintenance to ensure the long-term stable operation of the underfloor heating system. In this way, users can ensure that their heating system is always in optimal condition, providing comfortable and efficient heating services.

[0100] In one possible implementation, when the target operating mode is the automatic filter flushing mode, the step of invoking the control module of the heating filter device and controlling the on / off state of the electric water circuit switching component of the heating filter device according to a preset target mode state correspondence to execute the target operating mode includes:

[0101] S3-4-1: Obtain the flushing cycle preset by the user through local operating components or smart home system;

[0102] S3-4-2: The control unit is invoked to start timing according to the rinsing cycle, and the control device enters the filter rinsing mode when the timing reaches the set cycle.

[0103] S3-4-3: After flushing is complete, switch back to normal heating mode and restart the timer to cycle through the preset automatic flushing operation.

[0104] In a specific example, the control process will implement the automatic rinsing function through the following detailed steps:

[0105] First, the system invokes the built-in intelligent control module of the heating filter device. This module precisely controls the opening and closing of the electric water circuit components in the heating filter device according to the target mode state correspondence table pre-stored in the system, thereby ensuring that the target operating mode can be accurately executed. The specific implementation process includes three key steps: The system obtains the flushing cycle parameters set by the user through two methods: one is to directly read the value set by the user on the device's local operation panel, and the other is to obtain the remote preset value through the cloud configuration interface of the smart home system; After receiving the flushing cycle parameters, the main control unit of the system will start the high-precision timing function. When the cumulative running time reaches the preset cycle threshold, the control unit will send a command to automatically switch the entire device to the filter flushing working mode; After the system completes the complete flushing process, the control unit will first perform a mode switching operation to restore the device to the normal heating mode, and at the same time reset and restart the cycle timer. This forms a complete closed-loop control system that can continuously and cyclically execute automatic flushing and maintenance operations according to the preset cycle, thereby ensuring that the heating filter system maintains its optimal working condition for a long time.

[0106] Figure 2 This is a schematic diagram of the structure of a heating filter control device provided in an embodiment of this application, as shown below. Figure 2 As shown, the device includes:

[0107] An access module is used to access a preset Internet of Things (IoT) and display the operating information of the heating filter device on the display terminal of the preset IoT. The operating information includes operating status and water temperature and pressure data.

[0108] A receiving module is used to receive control commands via the preset Internet of Things, the control commands carrying the target operating mode of the heating filter device;

[0109] The calling module is used to respond to the control command, call the control module of the heating filter device, and control the on / off state of the electric water circuit switching component of the heating filter device according to the preset target mode state correspondence, so as to execute the target operation mode.

[0110] The update module is used to collect real-time water temperature and pressure data of the heating filter device through the temperature sensor and pressure sensor after executing the target operation mode, and update the operation status through the status monitoring module. The updated water temperature and pressure data and operation status are then uploaded to the preset Internet of Things platform to update the operation information displayed on the display terminal.

[0111] In one possible implementation, the calling module is further used to call the control module of the heating filter device to control the water circuit on / off components corresponding to the heating inlet, outlet, and return water to be in the open state, and to control the water circuit on / off components corresponding to the external water circuit and drainage to be in the closed state, so that the heating water enters the underfloor heating system after being filtered by the filter to achieve heating.

[0112] In one possible implementation, the calling module is further configured to call the control unit of the heating filter device to control the water circuit on / off components corresponding to the heating inlet and return water to be in a closed state, control the water circuit on / off components corresponding to the heating outlet, external water circuit, and drainage to be in an open state, control the external clean water source to enter the filter through the external water circuit for backwashing, and discharge the wastewater generated during backwashing through the drainage path.

[0113] In one possible implementation, the update module is further configured to switch the heating filter device to normal heating mode after the filter is flushed, restore the filtration and heating process of the heating water, collect real-time water temperature and pressure data of the heating filter device through the temperature sensor and pressure sensor, update the operating status through the status monitoring module, and upload the updated water temperature and pressure data and operating status to the preset Internet of Things platform to update the operating information displayed on the display terminal.

[0114] In one possible implementation, the calling module is further configured to call the control unit of the heating filter device to control the water circuit on / off component corresponding to the heating water inlet to be in a closed state, control the water circuit on / off components corresponding to the heating water outlet, return water, and external water circuit to be in an open state, control the water circuit on / off component corresponding to the drainage to be in a closed state, control the external clean water source to sequentially enter the floor heating pipe through the external water circuit, filter, and heating water outlet path for flushing, and discharge the flushed wastewater through the heating water return path.

[0115] In one possible implementation, the update module is further configured to switch the heating filter device to normal heating mode after the underfloor heating cleaning is completed, and control each water circuit on / off component to return to the on / off state during normal heating, so as to ensure that the heating water enters the underfloor heating system after normal filtration.

[0116] In one possible implementation, the calling module is further configured to: obtain a pre-set flushing cycle by the user through a local operating component or a smart home system; call the control unit to start timing according to the flushing cycle, and control the device to enter the filter flushing mode when the timing reaches the set cycle; after flushing is completed, switch back to the normal heating mode and restart timing to cyclically execute the pre-set cycle of automatic flushing operation.

[0117] The heating filter control device provided in this embodiment can be as follows: Figure 2 The heating filter control device shown can perform the following functions: Figure 1 All steps of the central heating system filtration control method, thereby achieving Figure 1 For details on the technical effects of the heating filtration control method shown, please refer to [link / reference needed]. Figure 1 The relevant descriptions are presented concisely and will not be elaborated upon here.

[0118] The device embodiments described above are merely illustrative. The units described as separate components may or may not be physically separate. The components shown as units may or may not be physical units; that is, they may be located in one place or distributed across multiple network units. Some or all of the modules can be selected to achieve the purpose of this embodiment according to actual needs.

[0119] In a specific example, such as Figures 3 to 4 As shown, the present invention discloses a heating filtration device including a heating water inlet detection and control module, a heating water return detection and control module, an external water inlet control module, a heating filtration outlet and drainage control module, a computer circuit board, a power supply module, etc.

[0120] Power module:

[0121] The power module is the module that enables external power supply for the device of the present invention. It adopts an AC-DC module, which converts the externally input 220V AC power into 24V DC power and connects the 24V to the computer circuit board through internal cables.

[0122] Computer circuit board:

[0123] The computer circuit board is the control module of the device of this invention, and has functions such as digital power conversion, microcontroller minimum system, WIFI & Bluetooth communication, data acquisition and signal control.

[0124] (1) The 24V DC power supply is converted into a 3.3V digital power supply by the DC / DC isolated DC power supply module and supplied to the subsequent circuit.

[0125] (2) An STM32F429 microcontroller is used as the central processing unit. A WIFI & Bluetooth module is connected to the RF terminal via the SDIO interface. The RF terminal is connected to the antenna of the device of the present invention.

[0126] (3) Lead out 3 wiring terminals and connect them to 3 external temperature sensors to collect the inlet water temperature of the heating system, the outlet water temperature of the filtered heating system, and the return water temperature of the heating system.

[0127] (4) Lead out 4 analog signal acquisition terminals, connect sampling resistors at the terminals, and connect to 3 external water pressure sensors to acquire 4-20mA current transmitted by the water pressure sensors, and detect the water pressure of the heating inlet, the water pressure of the filtered heating outlet, the water pressure of the heating return, and the water pressure of the external water source inlet.

[0128] (5) Lead out 5 GPO interfaces to control 5 solid-state relays, output 24V DC signals, lead to the output terminals, and connect to the external DC electromagnetic drive water circuit electronic switch;

[0129] (6) Extend one display interface through the LCD-TFT interface, connect to the LCD-TFT connector, and connect to the window display on the chassis to display water temperature and pressure and configuration interface;

[0130] (7) Four GPI inputs are led out and connected to the input terminals. The terminals have filter capacitors to remove external button input jitter. The four GPI inputs are connected to external buttons, which represent setting input, up input, down input and confirmation input respectively.

[0131] (8) Lead out 4 GPOS, connect them to the output terminal, connect them to the external LED, and control the 4 LED displays to represent power on, WIFI connection, system normal, and system abnormal respectively.

[0132] Heating system water inlet detection and control module:

[0133] The heating water inlet detection and control module is the first module that external water heating water passes through after entering the house. This module consists of a 24V DC electromagnetic drive water circuit electronic switch, a water pressure sensor, and a water temperature sensor, which are connected to the corresponding terminals of the computer circuit. The 24V DC electromagnetic drive water circuit electronic switch is connected to the incoming water heating pipe on the inlet side and is controlled by the computer circuit board to open and close the water circuit switch and detect water pressure and water temperature.

[0134] Heating water output detection and control module:

[0135] The heating water outlet detection and control module is the module through which the filter's heating water passes. This module consists of a 24V DC electromagnetic drive water circuit electronic switch, a water pressure sensor, and a water temperature sensor, each connected to the corresponding terminals on the computer circuit. The filter's heating water outlet is connected to the 24V DC electromagnetic drive water circuit electronic switch, and the other end is connected to the inlet pipe of the underfloor heating manifold. Controlled by the computer circuit board, it opens and closes the water circuit switch and detects water pressure and temperature.

[0136] Heating return water detection and control module:

[0137] The heating return water detection and control module is the last module the water heating system passes through after leaving the house. This module consists of a 24V DC electromagnetic drive water circuit electronic switch, a water pressure sensor, and a water temperature sensor, each connected to the corresponding terminals on the computer circuit. The outlet of the underfloor heating manifold is connected to the 24V DC electromagnetic drive water circuit electronic switch, and the other end is connected to the main return water pipe. Controlled by the computer circuit board, the water circuit switch is opened and closed, and water pressure and temperature are detected.

[0138] External water inlet control module:

[0139] The external water inlet control module is the interface for external water to enter the device of this invention. This module consists of an inlet pipe, a 24V DC electromagnetic drive water circuit electronic switch, and a water pressure sensor; each connected to a corresponding terminal on the computer circuit. The external water inlet is connected to the 24V DC electromagnetic drive water circuit electronic switch, and the other side is connected to the external water inlet for rinsing the filter. Controlled by the computer circuit board, the external water supply switch is opened and closed, and the external water pressure is detected.

[0140] Heating filter water outlet and drainage control module:

[0141] The heating filter water outlet and drainage control module consists of a heating filter inlet, a filter, a heating filter outlet, a backwash inlet, a drain outlet, a 24V DC electromagnetic drive water circuit electronic switch, and a drain pipe.

[0142] (1) The water inlet of the heating filter is connected to the water outlet side of the water inlet 24V DC electromagnetic drive water circuit electronic switch of the heating water inlet detection and control module;

[0143] (2) The water outlet of the heating filter is connected to the water inlet side of the 24V DC electromagnetic drive water circuit electronic switch of the heating water outlet detection and control module;

[0144] (3) The flushing inlet is connected to the outlet side of the 24V DC electromagnetic drive water circuit electronic switch;

[0145] (4) The drain outlet is connected to the 24V DC electromagnetic drive water circuit electronic switch and the drain pipe, and its opening and closing are controlled by the computer board.

[0146] The control principle of the above-mentioned heating filter device includes the following steps:

[0147] Step 1: After powering on, the microcontroller runs the LINUX system and uses SDIO to connect to the home IoT via WIFI or Bluetooth, and uses a third-party smart home driver to achieve IoT connection;

[0148] Step 2: Use GPI to drive four external lights to display the current status;

[0149] Step 3: The LCD-TFT display shows the configuration interface, equipment information, inlet and outlet water pressure and temperature, etc. Users can control the equipment's operating status through four external buttons; they can also remotely control and read relevant information through smart home devices.

[0150] Step 4: Users can configure the system to normal operating mode. In this mode, the computer board controls the 24V DC electromagnetic drive water circuit electronic switch for the heating system's inlet water to open; the 24V DC electromagnetic drive water circuit electronic switch for the heating system's outlet water to open; the 24V DC electromagnetic drive water circuit electronic switch for the return water to open; the 24V DC electromagnetic drive water circuit electronic switch for the external water source to close; and the 24V DC electromagnetic drive water circuit electronic switch for the drainage to close. This enables water-based filtration and heating, and displays water pressure and temperature information on the screen. Information can also be viewed remotely.

[0151] Step 5: The user can configure the filter flushing mode. In this mode, the computer board controls the following: the 24V DC electromagnetic drive water circuit electronic switch for inlet water is closed; the 24V DC electromagnetic drive water circuit electronic switch for heating outlet water is open; and the 24V DC electromagnetic drive water circuit electronic switch for return water is closed. The external water source 24V DC electromagnetic drive water circuit electronic switch is open; and the drain 24V DC electromagnetic drive water circuit electronic switch is open, allowing external high-pressure clean water to enter and backwash the filter screen, cleaning the filter element. Wastewater is discharged through the drain pipe. The user can set the cleaning time. After completion, the filter flushing mode automatically closes, and the system enters normal operating mode.

[0152] Step Six: Users can configure the underfloor heating cleaning mode. In this mode, the computer board controls the 24V DC electromagnetic drive water circuit electronic switch to close; the 24V DC electromagnetic drive water circuit electronic switch to open; the 24V DC electromagnetic drive water circuit electronic switch to open; the 24V DC electromagnetic drive water circuit electronic switch to open; the 24V DC electromagnetic drive water circuit electronic switch to open; the 24V DC electromagnetic drive water circuit electronic switch to open; and the 24V DC electromagnetic drive water circuit electronic switch to close. This allows high-pressure external cleaning water to enter the underfloor heating pipes, flushing out dirt and grime from the underfloor heating system and discharging it through the return water pipes. Users can set the cleaning time. Once completed, the underfloor heating cleaning mode will automatically close, and the system will enter normal operating mode.

[0153] Step 7: Users can set an automatic filter flushing mode and set a fixed cycle to enter the filter flushing mode to clean the filter;

[0154] Figure 5 This is a schematic diagram of the structure of an electronic device provided in an embodiment of this application, such as... Figure 5 As shown, this application embodiment provides an electronic device, including a processor 501, a communication interface 502, a memory 503, and a communication bus 504. The processor 501, communication interface 502, and memory 503 communicate with each other via the communication bus 504. The memory 503 stores computer programs. When the processor 501 executes the program stored in the memory 503, it implements the steps of the heating filter control method provided in any of the aforementioned method embodiments.

[0155] The system connects to a preset Internet of Things (IoT) and displays the operating information of the heating filter device on the display terminal of the preset IoT. The operating information includes the operating status and water temperature and pressure data. It receives control commands through the preset IoT, the control commands carrying the target operating mode of the heating filter device. In response to the control commands, it invokes the control module of the heating filter device and controls the on / off state of the electric water circuit switching components of the heating filter device according to the preset target mode state correspondence to execute the target operating mode. After executing the target operating mode, it collects real-time water temperature and pressure data of the heating filter device through the temperature sensor and pressure sensor, updates the operating status through the status monitoring module, and uploads the updated water temperature and pressure data and operating status to the preset IoT platform to update the operating information displayed on the display terminal.

[0156] In one possible implementation, the control module of the heating filter device is invoked to control the water circuit on / off components corresponding to the heating inlet, outlet, and return water to be in the open state, and to control the water circuit on / off components corresponding to the external water circuit and drainage to be in the closed state, so that the heating water enters the underfloor heating system after being filtered by the filter to achieve heating.

[0157] In one possible implementation, the control unit of the heating filter device is invoked to control the water circuit on / off components corresponding to the heating inlet and return water to be in a closed state, and to control the water circuit on / off components corresponding to the heating outlet, external water circuit, and drainage to be in an open state. External clean water source is controlled to enter the filter through the external water circuit for backwashing, and the wastewater generated during backwashing is discharged through the drainage path.

[0158] In one possible implementation, after the filter is flushed, the heating filter is switched to normal heating mode to restore the filtration and heating process of the heating water. The real-time water temperature and pressure data of the heating filter are collected by the temperature sensor and pressure sensor, and the operating status is updated by the status monitoring module. The updated water temperature and pressure data and operating status are uploaded to the preset Internet of Things platform to update the operating information displayed on the display terminal.

[0159] In one possible implementation, the control unit of the heating filter device is invoked to control the water circuit on / off component corresponding to the heating water inlet to be in a closed state, control the water circuit on / off components corresponding to the heating water outlet, return water, and external water circuit to be in an open state, control the water circuit on / off component corresponding to the drainage to be in a closed state, control the external clean water source to enter the floor heating pipe sequentially through the external water circuit, filter, and heating water outlet path for flushing, and discharge the flushed wastewater through the heating water return path.

[0160] In one possible implementation, after the underfloor heating cleaning is completed, the heating filter device is switched to normal heating mode, and the on / off state of each water circuit component is restored to the normal heating state to ensure that the heating water enters the underfloor heating system after normal filtration.

[0161] In one possible implementation, the user obtains a preset flushing cycle via a local operating component or a smart home system; the control unit is invoked to start timing according to the flushing cycle, and when the timing reaches the set cycle, the control device enters the filter flushing mode; after flushing is completed, the system switches back to the normal heating mode and restarts timing to cyclically execute the preset cycle of automatic flushing operation.

[0162] Thirdly, embodiments of this application provide an electronic device, including a memory, a processor, and a computer program stored in the memory and executable on the processor, wherein the processor executes the computer program to implement the steps of the heating filter control method described above.

[0163] Fourthly, embodiments of this application provide a storage medium storing a computer program thereon, which, when executed by a processor, implements the steps of the heating filtration control method described above.

[0164] It should be understood that the terminology used herein is for the purpose of describing particular exemplary embodiments only and is not intended to be limiting. Unless the context clearly indicates otherwise, the singular forms “a,” “an,” and “described” as used herein may also include the plural forms. The terms “comprising,” “including,” “containing,” and “having” are inclusive and therefore indicate the presence of the stated features, steps, operations, elements, and / or components, but do not exclude the presence or addition of one or more other features, steps, operations, elements, components, and / or combinations thereof. The method steps, processes, and operations described herein are not construed as requiring them to be performed in a particular order described or illustrated unless the order of performance is explicitly indicated. It should also be understood that additional or alternative steps may be used.

[0165] The above description is merely a specific embodiment of the present invention, enabling those skilled in the art to understand or implement the invention. Various modifications to these embodiments will be readily apparent to those skilled in the art, and the general principles defined herein may be implemented in other embodiments without departing from the spirit or scope of the invention. Therefore, the present invention is not to be limited to the embodiments shown herein, but is to be accorded the widest scope consistent with the principles and novel features claimed herein.

Claims

1. A heating system filtration control method, characterized in that, include: The device is connected to a preset Internet of Things (IoT) and its operating information, including operating status and water temperature and pressure data, is displayed on the display terminal of the preset IoT. The preset Internet of Things receives control commands, which carry the target operating mode of the heating filter device. In response to the control command, the control module of the heating filter device is invoked, and the on / off state of the electric water circuit switching component of the heating filter device is controlled according to the preset target mode state correspondence, so as to execute the target operation mode. After executing the target operating mode, the real-time water temperature and pressure data of the heating filter device are collected by the temperature sensor and pressure sensor, and the operating status is updated by the status monitoring module. The updated water temperature and pressure data and operating status are uploaded to the preset Internet of Things platform to update the operating information displayed on the display terminal.

2. The method according to claim 1, characterized in that, When the target operating mode is normal heating mode, the control module of the heating filter device is invoked, and the on / off state of the electric water circuit switching component of the heating filter device is controlled according to the preset target mode state correspondence to execute the target operating mode, including: The control module of the heating filter device is invoked to control the water circuit opening and closing components corresponding to the heating inlet, outlet, and return water to be in the open state, and to control the water circuit opening and closing components corresponding to the external water circuit and drainage to be in the closed state, so that the heating water enters the underfloor heating system after being filtered by the filter to achieve heating.

3. The method according to claim 1, characterized in that, When the target operating mode is the filter flushing mode, the control module of the heating filter is invoked, and the on / off state of the electric water circuit switching component of the heating filter is controlled according to the preset target mode state correspondence to execute the target operating mode, including: The control unit of the heating filter device is invoked to control the water circuit on / off components corresponding to the heating inlet and return water to be closed, and to control the water circuit on / off components corresponding to the heating outlet, external water circuit, and drainage to be open. External clean water source is controlled to enter the filter through the external water circuit for backwashing, and the wastewater generated during backwashing is discharged through the drainage path.

4. The method according to claim 3, characterized in that, The method further includes: After the filter is flushed, the heating filter is switched to normal heating mode to restore the filtration and heating process of the heating water. The real-time water temperature and pressure data of the heating filter are collected by the temperature sensor and pressure sensor, and the operating status is updated by the status monitoring module. The updated water temperature and pressure data and operating status are uploaded to the preset Internet of Things platform to update the operating information displayed on the display terminal.

5. The method according to claim 1, characterized in that, When the target operating mode is the floor heating cleaning mode, the control module of the heating filter device is invoked, and the on / off state of the electric water circuit switching component of the heating filter device is controlled according to the preset target mode state correspondence to execute the target operating mode, including: The control unit of the heating filter device is invoked to control the water circuit on / off components corresponding to the heating water inlet to be in the closed state, control the water circuit on / off components corresponding to the heating water outlet, return water, and external water circuit to be in the open state, control the water circuit on / off components corresponding to the drainage to be in the closed state, control the external clean water source to enter the floor heating pipes sequentially through the external water circuit, filter, and heating water outlet path for flushing, and discharge the flushed wastewater through the heating water return path.

6. The method according to claim 5, characterized in that, The method further includes: After the underfloor heating system is cleaned, the heating filter device is switched to normal heating mode, and the on / off state of each water circuit component is restored to that of normal heating to ensure that the heating water enters the underfloor heating system after normal filtration.

7. The method according to claim 6, characterized in that, When the target operating mode is the automatic filter flushing mode, the control module of the heating filter is invoked, and the on / off state of the electric water circuit switching component of the heating filter is controlled according to the preset target mode state correspondence to execute the target operating mode, including: Obtain the flushing cycle preset by the user through local operating components or smart home system; The control unit is invoked to start timing according to the rinsing cycle, and the control device enters the filter rinsing mode when the timing reaches the set cycle. After the flushing is complete, switch back to normal heating mode and restart the timer to cycle through the preset automatic flushing operation.

8. A heating filtration control device, characterized in that, include: An access module is used to access a preset Internet of Things (IoT) and display the operating information of the heating filter device on the display terminal of the preset IoT. The operating information includes operating status and water temperature and pressure data. A receiving module is used to receive control commands via the preset Internet of Things, the control commands carrying the target operating mode of the heating filter device; The calling module is used to respond to the control command, call the control module of the heating filter device, and control the on / off state of the electric water circuit switching component of the heating filter device according to the preset target mode state correspondence, so as to execute the target operation mode. The update module is used to collect real-time water temperature and pressure data of the heating filter device through the temperature sensor and pressure sensor after executing the target operation mode, and update the operation status through the status monitoring module. The updated water temperature and pressure data and operation status are then uploaded to the preset Internet of Things platform to update the operation information displayed on the display terminal.

9. An electronic device comprising a memory, a processor, and a computer program stored in the memory and executable on the processor, characterized in that, When the processor executes the computer program, it implements the steps of the heating filtration control method according to any one of claims 1 to 7.

10. A storage medium having a computer program stored thereon, characterized in that, When the computer program is executed by the processor, it implements the steps of the heating filtration control method according to any one of claims 1 to 7.

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