Movable multifunctional emergency water treatment system

Abstract

The invention discloses a mobile multifunctional emergency water treatment system, which relates to the technical field of emergency water treatment, and comprises: a water source detection module for detecting the water quality and pollution degree of a water source; the water treatment module establishes a water treatment selection model according to the water quality data provided by the water source detection module, and selects a water treatment mode based on the output of the model; the water storage module is used for storing the treated water source and automatically adjusting the water quantity according to requirements; the energy management module is used for monitoring the power consumption condition of the system and dynamically adjusting the use of energy according to environmental conditions; and the control module comprehensively dispatches the work of each module. The mobile multifunctional emergency water treatment system provided by the invention has the characteristics of high intelligence and automation, can accurately detect water quality, select a proper treatment method, reasonably dispatch energy and automatically manage water quantity, ensures long-term stable operation of the system, provides efficient emergency water treatment service, and meanwhile, improves the water quality of the system. And the method has relatively high adaptability and reliability.

Description

Technical Field

[0001] The present invention relates to the technical field of emergency water treatment, and specifically relates to a mobile multi-functional emergency water treatment system. Background Art

[0002] With the increasingly serious problems of global water shortage and water pollution, especially in disaster areas or remote areas, it is particularly important to provide reliable emergency water source treatment solutions. Traditional water treatment systems often cannot provide clean water efficiently and continuously when facing sudden water pollution, energy shortage or equipment failure. Mobile emergency water treatment systems can solve this problem, which have the characteristics of being easy to deploy quickly, adapting to various water source environments, and having strong flexibility. However, there are still some problems in existing emergency water treatment systems, such as incomplete water quality detection, inaccurate selection of treatment methods, inflexible energy management, and untimely system scheduling.

[0003] Traditional emergency water treatment systems usually rely on manual operation and fixed water treatment solutions, and fail to dynamically adjust treatment methods and solutions according to real-time water quality data. In addition, existing systems often lack automatic adjustment and optimization of each module, resulting in low water treatment efficiency and inability to meet complex and changeable emergency needs. To solve these problems, an integrated, intelligent, mobile and multi-functional water treatment system is needed to facilitate dealing with different water source situations and environmental conditions, maximize water treatment efficiency, and ensure the long-term stable operation of the system. Summary of the Invention

[0004] To solve the above technical problems, a mobile multi-functional emergency water treatment system is provided, and this technical solution solves the above problems.

[0005] To achieve the above purposes, the technical solution adopted by the present invention is as follows:

[0006] A mobile multi-functional emergency water treatment system, comprising:

[0007] A water source detection module: The water source detection module is used to detect the water quality and pollution degree of the water source;

[0008] A water treatment module: The water treatment module is electrically connected to the water source detection module. The water treatment module is used to establish a water treatment selection model according to the water quality data provided by the water source detection module, and select a water treatment method based on the output of the model;

[0009] A water storage module: The water storage module is electrically connected to the water treatment module. The water storage module is used to store the treated water source and automatically adjust the water volume according to needs;

[0010] Energy Management Module: The energy management module is used to monitor the power consumption of the system and dynamically adjust the energy usage according to environmental conditions to ensure the long-term operation of the system;

[0011] Control Module: The control module is electrically connected to the water source detection module, the water treatment module, the water storage module, and the energy management module. The control module is used to comprehensively schedule the work of each module to ensure the efficiency and safety of the water treatment process.

[0012] Preferably, the water source detection module specifically includes:

[0013] Water Quality Sensing Unit: Real-time monitoring of water quality parameters in water, including but not limited to turbidity, pH value, dissolved oxygen, and total dissolved solids;

[0014] Chemical Pollutant Detection Unit: Detection of harmful chemical substances in water based on nano-sensing technology;

[0015] Bacteria and Microorganism Detection Unit: Real-time monitoring of the concentration of bacteria, viruses, and other microorganisms in water based on molecular biology methods and biosensors;

[0016] Water Source Temperature Monitoring Unit: Detection of the water source temperature, combined with a real-time data processing system, can deduce the potential impact of temperature changes on water quality;

[0017] Water Source Flow Monitoring Unit: Used to detect changes in water flow, combined with flow and water quality monitoring data, establish a dynamic water quality change model, and real-time predict the change trend of water quality under different flow conditions;

[0018] Water Source Pollution Source Identification Unit: Through geographic information system technology and sensing data, locate potential pollution sources, and compare with historical pollution data to judge the type and source of water source pollution;

[0019] Data Transmission and Processing Unit: Transmit data to the water treatment module in real time and generate a water quality report.

[0020] Preferably, the one for detecting changes in water flow, combined with flow and water quality monitoring data, establishing a dynamic water quality change model, and real-time predicting the change trend of water quality under different flow conditions specifically includes:

[0021] Among them, the formula of the dynamic water quality change model is:

[0022] In the formula, is the predicted water quality index, the value at time moment, is the constant term, is the coefficient in the model, is the historical water quality data, Indicates the influence degree of historical water flow data on the current water quality prediction. is historical water flow data. is the error term.

[0023] Preferably, the water treatment module specifically includes:

[0024] Water quality data receiving and preprocessing unit: Receives sensor data, performs data cleaning, removes outliers, and conducts data normalization to ensure data is used on a unified scale.

[0025] Water treatment model establishment unit: Inputs the preprocessed water quality data into the decision model, and the model outputs the fitness scores for each water treatment method.

[0026] Water treatment method selection unit: Selects the water treatment method with the highest score according to the scores output by the decision model. When the scores of multiple treatment methods are close, the method is selected according to the priority.

[0027] Control and execution unit: Sends instructions to the corresponding equipment according to the selected water treatment method, continuously monitors the water treatment effect, and ensures that the expected water quality target is achieved.

[0028] Feedback and adjustment unit: Receives the processed water quality data, compares the water quality changes before and after treatment, evaluates the treatment effect, and adjusts the treatment method and treatment parameters according to the effect, including the dosage of chemicals and the filtration speed.

[0029] Preferably, the water quality data receiving and preprocessing unit specifically includes:

[0030] Among them, the normalization formula is:

[0031] In the formula, is the original data, is the minimum value of this data, is the maximum value of this data, is the data after normalization.

[0032] Preferably, the water treatment model establishment unit specifically includes:

[0033] Among them, the water treatment model formula is:

[0034] In the formula, is the score of each treatment method, is the th feature in the water quality data, is the weight coefficient corresponding to this feature, is the total number of features.

[0035] Preferably, the feedback and adjustment unit specifically includes:

[0036] Receiving water quality data from the water treatment system, including various pH values, dissolved oxygen, turbidity, chemical oxygen demand, and suspended solids, to obtain the water quality data before treatment;

[0037] Comparing the water quality data before and after treatment to obtain the degree of water quality change and evaluating whether the treatment effect meets the expected goal;

[0038] According to the comparison result, evaluating the effect of the current water treatment process, and the evaluation criteria include whether the water quality goal is achieved, whether the treatment effect meets the actual requirements, and whether there is over-treatment. According to the evaluation result, judging whether it is necessary to adjust the treatment method or parameters;

[0039] According to the water quality change and treatment effect, it is found that too low a dosage of chemicals leads to poor treatment effect and too high a dosage leads to waste and side effects, and adjust the dosage of chemicals;

[0040] It is found that too fast a filtration speed leads to insufficient water treatment and too slow a speed leads to low energy efficiency, and adjust the filtration speed and the filter media replacement cycle.

[0041] Preferably, the water storage module specifically includes:

[0042] Water storage tank unit: used to store the treated water source;

[0043] Water level sensor unit: used to monitor the water level change in the water storage tank in real time, provide real-time water level data, and feedback the information to the control module;

[0044] Automatic water inlet valve unit: used to automatically open when the water level in the water storage tank is too low, allowing the treated water source to enter the water storage tank, and can be controlled according to the data of the water level sensor to ensure sufficient water volume;

[0045] Water outlet valve unit: used to control the water storage module to provide water source to users and other systems. When the required water volume exceeds the current water storage volume, the water outlet valve will automatically adjust to ensure stable water supply;

[0046] Flowmeter unit: used to measure the water volume entering and leaving the water storage module and feedback the water flow condition of the system in real time.

[0047] Preferably, the energy management module specifically includes:

[0048] Power monitoring unit: monitoring and recording the power consumption of the system in real time, including voltage, current, power factor, and power;

[0049] Load management unit: monitoring and managing the load conditions of various devices in the system, and dynamically adjusting the devices according to the real-time data of power consumption;

[0050] Energy scheduling and control unit: Adjust the energy flow within the system according to real-time power consumption data, environmental conditions, and system requirements;

[0051] Environmental perception unit: Used to collect external environmental data related to energy consumption;

[0052] Automatic control and regulation unit: Automatically adjust power usage according to monitoring data and optimization strategies. When the system is overloaded and energy efficiency is low, take energy-saving measures, including reducing the operating intensity of equipment and switching to backup energy.

[0053] Preferably, the control module specifically includes:

[0054] Central processing unit: Based on sensor inputs, preset algorithms, and strategies, schedule the working states of each subsystem and make real-time adjustment and optimization decisions;

[0055] Data acquisition unit: Collect real-time data from each module;

[0056] Status monitoring and alarm unit: Responsible for monitoring the working states of each module and issuing an alarm when an abnormality is detected. The abnormal situations include excessive water quality, abnormal water flow, insufficient water storage, and excessive power consumption. When an abnormality is detected, remind the operator and automatically take measures, including stopping operation, adjusting equipment parameters, and switching to backup solutions.

[0057] Compared with the prior art, the beneficial effects of the present invention are as follows:

[0058] The mobile multi-functional emergency water treatment system proposed by the present invention is highly intelligent and automated, capable of accurately detecting water quality and selecting appropriate treatment methods, reasonably scheduling energy, and automatically managing water volume, ensuring the long-term stable operation of the system. While providing efficient emergency water treatment services, it has strong adaptability and reliability. BRIEF DESCRIPTION OF THE DRAWINGS

[0059] Figure 1 It is a system framework diagram of the present invention. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0060] The following description is used to disclose the present invention so that those skilled in the art can implement the present invention. The preferred embodiments described below are only examples, and those skilled in the art can think of other obvious variations.

[0061] Referring to Figure 1 shown, a mobile multi-functional emergency water treatment system includes:

[0062] Water source detection module:

[0063] Water quality sensing unit: Real-time monitoring of water quality parameters in water, including but not limited to turbidity, pH value, dissolved oxygen, and total dissolved solids;

[0064] Chemical pollutant detection unit: Detection of harmful chemical substances in water based on nanosensing technology;

[0065] Bacteria and microorganism detection unit: Real-time monitoring of the concentrations of bacteria, viruses, and other microorganisms in water based on molecular biology methods and biosensors;

[0066] Water source temperature monitoring unit: Detection of water source temperature, combined with a real-time data processing system, can deduce the potential impact of temperature changes on water quality;

[0067] Water source flow monitoring unit: Used to detect changes in water flow, combined with flow and water quality monitoring data, establish a dynamic water quality change model, and real-time predict the change trend of water quality under different flow conditions;

[0068] Among them, the formula for the dynamic water quality change model is:

[0069] In the formula, is the predicted water quality index, the value at time , is the constant term, is the coefficient in the model, is the historical water quality data, represents the influence degree of historical water flow data on the current water quality prediction, is the historical water flow data, is the error term

[0070] Water source pollution source identification unit: Through geographic information system technology and sensing data, locate potential pollution sources, and compare with historical pollution data to judge the type and source of water source pollution;

[0071] Data transmission and processing unit: Transmit data to the water treatment module in real time to generate a water quality report.

[0072] The water source detection module can achieve real-time and comprehensive monitoring of water quality, and provide accurate data support for the water treatment system. The water quality sensing unit can detect changes in the water source in a timely manner by monitoring key water quality parameters, ensuring that the water quality meets the drinking standards. The chemical pollutant detection unit can detect trace harmful chemical substances by using nanosensing technology to ensure that the water source is non-toxic. The bacteria and microorganism detection unit can monitor the concentration of microorganisms in the water in real time through biosensors and molecular biology techniques, effectively preventing pathogen pollution. The water source temperature monitoring unit can predict the impact of temperature changes on water quality by combining real-time data processing, improving the accuracy of water quality management. The water source flow monitoring unit can establish a dynamic water quality change model through flow and water quality data to predict water quality changes under different flows, providing a basis for treatment decisions. In addition, the pollution source identification unit can locate pollution sources through GIS technology to prevent potential pollution hazards. The data transmission and processing unit ensures the transmission of real-time monitoring data and generates accurate water quality reports. The integration of these functions improves the efficiency and accuracy of water quality monitoring, contributing to the optimization and efficient operation of the emergency treatment system.

[0073] Water treatment module:

[0074] Water quality data reception and preprocessing unit: Receives sensor data, cleans the data, removes outliers, and performs data normalization to ensure that the data is used on a unified scale;

[0075] Among them, the normalization formula is:

[0076] In the formula, is the original data, is the minimum value of this data, is the maximum value of this data, is the data after normalization;

[0077] Water treatment model establishment unit: Inputs the preprocessed water quality data into the decision model, and the model outputs the fitness scores for each water treatment method;

[0078] Among them, the water treatment model formula is:

[0079] In the formula, is the score for each treatment method, is the th feature in the water quality data, is the weight coefficient corresponding to this feature, is the total number of features;

[0080] Water treatment method selection unit: Select the water treatment method with the highest score according to the score output by the decision model. When the scores of multiple treatment methods are close, select the method according to the priority;

[0081] Control and execution unit: Send instructions to the corresponding equipment according to the selected water treatment method, continuously monitor the water treatment effect, and ensure that the expected water quality target is achieved;

[0082] Feedback and adjustment unit: Receive water quality data from the water treatment system, including various pH values, dissolved oxygen, turbidity, chemical oxygen demand, and suspended solids, obtain the water quality data before treatment, compare the water quality data before and after treatment, obtain the degree of water quality change, evaluate whether the treatment effect meets the expected target, evaluate the effect of the current water treatment process according to the comparison result, and the evaluation criteria include whether the water quality target is achieved, whether the treatment effect meets the actual requirements, and whether there is over-treatment. According to the evaluation result, judge whether it is necessary to adjust the treatment method or parameters. According to the water quality change and treatment effect, it is found that too low a dosage of chemicals leads to poor treatment effect and too high a dosage leads to waste and side effects, and adjust the dosage of chemicals. It is found that too fast a filtration speed leads to insufficient water treatment and too slow a speed leads to low energy efficiency, and adjust the filtration speed and the filter media replacement cycle.

[0083] Through systematic data processing and dynamic adjustment, the water treatment module ensures the high efficiency and accuracy of water quality treatment. The water quality data reception and preprocessing unit can clean and normalize sensor data to make it unified and standardized, ensuring the reliability of subsequent processing. The water treatment model establishment unit outputs the fitness score of the water treatment method through the decision model to help select the most suitable treatment method and improve the treatment efficiency. When the scores of multiple treatment methods are close, the priority selection ensures the rationality of the treatment method. The control and execution unit ensures that each water treatment equipment operates precisely according to the instructions and monitors the water quality change in real time to ensure that the water quality meets the standards. The feedback and adjustment unit evaluates the treatment effect according to the comparison of the water quality data before and after treatment, can timely discover and solve problems such as chemical dosage and filtration speed, avoid waste or side effects, and optimize the treatment process. Through this adaptive adjustment, the system not only improves the accuracy of water quality treatment, but also can greatly improve the resource utilization rate, reduce the treatment cost, and achieve long-term and stable water quality management.

[0084] Water storage module:

[0085] Water storage tank unit: Used to store the treated water source;

[0086] Water level sensor unit: Used to monitor the water level change in the water storage tank in real time, provide real-time data of the water level, and feedback the information to the control module;

[0087] Automatic water inlet valve unit: It is used to automatically open when the water level in the water storage tank is too low, allowing the treated water source to enter the water storage tank. It can be controlled according to the data of the water level sensor to ensure sufficient water volume.

[0088] Outlet valve unit: It is used to control the water storage module to supply water to users and other systems. When the required water volume exceeds the current water storage volume, the outlet valve will automatically adjust to ensure stable water supply.

[0089] Flowmeter unit: It is used to measure the water volume entering and flowing out of the water storage module and provide real-time feedback on the water flow status of the system.

[0090] Energy management module:

[0091] Power monitoring unit: It monitors and records the power consumption of the system in real time, including voltage, current, power factor, and power.

[0092] Load management unit: It monitors and manages the load conditions of various devices in the system and dynamically adjusts the devices according to the real-time data of power consumption.

[0093] Energy scheduling and control unit: It adjusts the energy flow within the system according to the real-time power consumption data, environmental conditions, and system requirements.

[0094] Environmental perception unit: It is used to collect external environmental data related to energy consumption.

[0095] Automatic control and regulation unit: It automatically adjusts power usage according to the monitoring data and optimization strategies. When the system load is too heavy and the energy efficiency is low, energy-saving measures are taken, including reducing the operating intensity of devices and switching to backup energy.

[0096] Control module:

[0097] Central processing unit: Based on sensor inputs, preset algorithms, and strategies, it schedules the working states of each subsystem and makes real-time adjustment and optimization decisions.

[0098] Data acquisition unit: It collects real-time data from each module.

[0099] Status monitoring and alarm unit: It is responsible for monitoring the working states of each module and sending an alarm when an abnormality is found. The abnormal situations include excessive water quality, abnormal water flow, insufficient water storage volume, and excessive power consumption. When an abnormality is detected, it reminds the operator and automatically takes measures, including stopping operation, adjusting device parameters, and switching to backup solutions.

[0100] In summary, the advantages of the present invention are as follows:

[0101] The system conducts real-time monitoring and dynamic analysis of the water quality of water sources through multiple water quality monitoring units, enabling a comprehensive assessment of the pollution degree and its changing trends of water sources, providing accurate data for subsequent water treatment decisions. The introduction of a dynamic water quality change model can adjust water treatment strategies in real time according to the changing trends of water flow and water quality data to ensure continuous compliance of water quality;

[0102] The water treatment module can establish a water treatment selection model based on the real-time data provided by the water source detection module, and dynamically select the most suitable water treatment method according to the output of the model, improving the adaptability and efficiency of water treatment. It conducts real-time assessment of the treated water quality and optimizes treatment parameters according to the assessment results to ensure that the water quality meets the expected goals and avoid over-treatment or energy efficiency waste;

[0103] The water storage module combines a water level sensor and an automatic water inlet valve, enabling real-time monitoring of the water level in the water storage tank and automatically adjusting the water volume to ensure stable water source supply. The addition of the water outlet valve unit and the flow meter unit enables accurate feedback of the water flow condition, ensuring the flexibility and stability of the system's water supply;

[0104] The energy management module dynamically adjusts by real-time monitoring of the system's power consumption and combining external environmental data to ensure efficient and energy-saving operation of the system under different environmental conditions;

[0105] The automatic control and regulation unit flexibly adjusts the operation intensity of equipment or switches to standby energy according to data such as real-time load and power factor, effectively reducing the system's energy consumption and extending the service life of equipment;

[0106] The control module, through the central processing unit, precisely schedules the water source detection, treatment, water storage, and energy management modules based on preset algorithms and real-time data to ensure the coordinated and efficient operation of each module;

[0107] The status monitoring and alarm unit monitors the system operation status in real time, promptly discovers and alarms abnormal situations, and automatically takes corresponding measures to reduce manual intervention and improve system stability;

[0108] The mobility and versatility of the system enable it to be quickly deployed to different regions to handle various types of water sources, especially suitable for emergency water source treatment, water supply in disaster areas, and regions with water resource shortages, meeting the high-efficiency requirements for water treatment during emergencies.

[0109] The foregoing has shown and described the basic principles, main features and advantages of the present invention. Those skilled in the art should understand that the present invention is not limited by the above embodiments, and what is described in the above embodiments and the specification is only the principle of the present invention. Without departing from the spirit and scope of the present invention, the present invention will have various changes and improvements, and these changes and improvements fall within the scope of the present invention claimed. The scope of protection required by the present invention is defined by the appended claims and their equivalents.

Claims

1. A mobile multifunctional emergency water treatment system, characterized in that: include: Water source detection module: The water source detection module is used to detect the water quality and pollution degree of the water source; Water treatment module: The water treatment module is electrically connected to the water source detection module. The water treatment module is used to establish a water treatment selection model according to the water quality data provided by the water source detection module, and select a water treatment method based on the output of the model; Water storage module: The water storage module is electrically connected to the water treatment module, and is used to store treated water and automatically adjust the water volume as needed; Energy management module: The energy management module is used to monitor the power consumption of the system and dynamically adjust the use of energy according to environmental conditions to ensure long-term operation of the system; Control module: The control module is electrically connected to the water source detection module, water treatment module, water storage module and energy management module. The control module is used to comprehensively schedule the work of each module to ensure the efficiency and safety of the water treatment process.

2. A mobile multifunctional emergency water treatment system according to claim 1, characterized in that: The water source detection module specifically includes: Water quality sensing unit: real-time monitoring of water quality parameters in water, including but not limited to turbidity, pH value, dissolved oxygen and total dissolved solids; Chemical pollutant detection unit: Based on nanosensing technology, it detects harmful chemicals in water; Bacteria and microorganism detection unit: real-time monitoring of the concentration of bacteria, viruses and other microorganisms in water based on molecular biology methods and biosensors; Water source temperature monitoring unit: detects water source temperature and, combined with a real-time data processing system, can calculate the potential impact of temperature changes on water quality; Water source flow monitoring unit: used to detect water flow changes, combine flow and water quality monitoring data, establish a dynamic water quality change model, and predict the changing trend of water quality under different flow conditions in real time; Water pollution source identification unit: locates potential pollution sources through geographic information system technology and sensor data, and compares them with historical pollution data to determine the type and source of water pollution; Data transmission and processing unit: transmits data to the water treatment module in real time and generates water quality reports.

3. A mobile multifunctional emergency water treatment system according to claim 2, characterized in that: The method is used to detect water flow changes, combine flow and water quality monitoring data to establish a dynamic water quality change model, and predict the change trend of water quality under different flow conditions in real time. include: Among them, the dynamic water quality change model formula is: In the formula, For the predicted water quality index, The value of the moment, is a constant term, are the coefficients in the model, For historical water quality data, Indicates the degree of influence of historical water flow data on current water quality prediction, is the historical water flow data, is the error term.

4. A mobile multifunctional emergency water treatment system according to claim 3, characterized in that: The water treatment module specifically includes: Water quality data receiving and preprocessing unit: receiving sensor data, cleaning data, removing outliers, and normalizing data to ensure that data is used at a unified scale; Water treatment model building unit: input the pre-treated water quality data into the decision model, and the model output is the fitness score of each water treatment method; Water treatment method selection unit: According to the score output by the decision model, the water treatment method with the highest score is selected. When the scores of multiple treatment methods are close, the method is selected according to the priority. Control and execution unit: according to the selected water treatment method, send instructions to the corresponding equipment, continuously monitor the water treatment effect, and ensure that the expected water quality target is achieved; Feedback and adjustment unit: Receive treated water quality data, compare water quality changes before and after treatment, evaluate treatment effects, and adjust treatment methods and parameters according to the effects, including dosage and filtration speed.

5. A mobile multifunctional emergency water treatment system according to claim 4, characterized in that: The water quality data receiving and preprocessing unit specifically include: Among them, the normalization formula is: In the formula, is the original data, is the minimum value of the data, is the maximum value of the data, is the normalized data.

6. A mobile multifunctional emergency water treatment system according to claim 5, characterized in that: The water treatment model establishment unit specifically include: Among them, the water treatment model formula is: In the formula, To rate each treatment method, The water quality data Item features, is the weight coefficient corresponding to the feature, is the total number of features.

7. A mobile multifunctional emergency water treatment system according to claim 6, characterized in that: The feedback and adjustment unit specifically includes: Receive water quality data from the water treatment system, including pH value, dissolved oxygen, turbidity, chemical oxygen demand and suspended solids, and obtain water quality data before treatment; Compare the water quality data before and after treatment to obtain the degree of water quality change and evaluate whether the treatment effect has achieved the expected goal; Based on the comparison results, the effectiveness of the current water treatment process is evaluated. The evaluation criteria include whether the water quality target has been achieved, whether the treatment effect meets the actual needs, and whether there is over-treatment. Based on the evaluation results, it is determined whether the treatment method or parameters need to be adjusted; According to the changes in water quality and treatment effects, if too low a dosage leads to poor treatment effects or too high a dosage leads to waste and side effects, adjust the dosage of the agent; It was found that the filtration speed was too fast resulting in insufficient water treatment, while the filtration speed was too slow resulting in low energy efficiency. The filtration speed and filter material replacement cycle were adjusted.

8. A mobile multifunctional emergency water treatment system according to claim 7, characterized in that: The water storage module specifically comprises: Water storage tank unit: used to store treated water; Water level sensor unit: used to monitor the water level changes in the water storage tank in real time, provide real-time data of the water level, and feed back the information to the control module; Automatic water inlet valve unit: used to automatically open when the water level in the water tank is too low, allowing the treated water to enter the water tank. It can be controlled according to the data of the water level sensor to ensure sufficient water; Water outlet valve unit: used to control the water storage module to provide water to users and other systems. When the required water volume exceeds the current water storage volume, the water outlet valve will automatically adjust to ensure stable water supply; Flow meter unit: used to measure the amount of water entering and flowing out of the water storage module, and provide real-time feedback on the water flow conditions of the system.

9. A mobile multifunctional emergency water treatment system according to claim 8, characterized in that: The energy management module specifically includes: Power monitoring unit: real-time monitoring and recording of system power consumption, including voltage, current, power factor and power; Load management unit: monitors and manages the load of each device in the system, and dynamically adjusts the equipment based on real-time data on power consumption; Energy dispatch and control unit: regulates energy flow within the system based on real-time power consumption data, environmental conditions, and system requirements; Environmental sensing unit: used to collect external environmental data related to energy consumption; Automatic control and regulation unit: Automatically adjusts power usage based on monitoring data and optimization strategies, and takes energy-saving measures when the system is overloaded and energy efficiency is low, including reducing the operating intensity of equipment and switching to backup energy.

10. A mobile multifunctional emergency water treatment system according to claim 9, characterized in that: The control module specifically includes: Central processing unit: Based on sensor input, preset algorithms and strategies, it schedules the working status of each subsystem and makes real-time adjustments and optimization decisions; Data acquisition unit: collects real-time data from each module; Status monitoring and alarm unit: responsible for monitoring the working status of each module and issuing an alarm when an abnormality is found, including water quality exceeding the standard, abnormal water flow, insufficient water storage and excessive power consumption. When an abnormality is detected, the operator is reminded and measures are taken automatically, including stopping operation, adjusting equipment parameters and switching to backup plans.

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