Detect water pollution early

Oct 13, 2025 by pynkocean.com 140 views

Monitor Drinking Water Quality with Aluminum and Iron Electrolysis: The Right Solution for Your Health

Water is a vital natural resource for the life of living things, and its daily use is inseparable from consumption or drinking. Good water for consumption by living things is water that is not polluted by anything. Contaminated water is very dangerous for the health of living things, as it has toxic properties. The quality of drinking water is a significant concern for public health, and it is essential to monitor and maintain its quality to prevent water-borne diseases.

This research aims to determine the feasibility level of water consumption using temperature, TDS, PH, and turbidity parameters using Fuzzy Tsukamoto as a decision support system. The sensor used includes a temperature sensor DS18B120 probe with an average error rate of 1.26%, TDS Sen0244 sensor with an average error rate of 3.59%, MSP 340 pH sensor with an average error rate of 5.85%, and finally Analog b turbidity sensor B12008 with an average error rate of 37%. Water data obtained from the four sensors is processed using Fuzzy Tsukamoto as a decision support system that refers to the Regulation of the Minister of Health of the Republic of Indonesia Number: 416 / Menkes / PER / IX / 1990 to determine water feasibility.

Electrolysis of Aluminum and Iron: Environmentally Friendly Technology to Detect Water Quality

The proposed monitoring system in this study utilizes electrolysis of aluminum and iron as a detector of a decent level of drinking water. Electrolysis is a chemical process that utilizes an electric current to separate the components in the solution. In this case, aluminum and iron will react with water and produce color changes that can be detected by sensors.

*** Aluminum: If water contains high levels of heavy metals, aluminum will react and produce significant color changes. This reaction is a result of the electrochemical properties of aluminum, which makes it an ideal material for detecting heavy metal contamination in water.

*** Iron: Iron will react with water containing chlorine or other chemicals, resulting in color changes that can be detected. This reaction is a result of the electrochemical properties of iron, which makes it an ideal material for detecting chlorine and other chemical contaminants in water.

The resulting color changes are then processed by the Microcontroller of the ATmega 8535, which will then display information about water quality on the LCD screen. This system provides information that is easy to understand and fast for users.

Strengths of Electrolysis-Based Monitoring Systems:

*** Environmentally Friendly: This method does not require harmful chemicals and is more environmentally friendly compared to conventional methods. The use of electrolysis-based monitoring systems reduces the risk of water pollution and minimizes the impact on the environment.

*** Accurate: The sensor used has a high enough accuracy in detecting color changes. The use of Fuzzy Tsukamoto as a decision support system increases accuracy in determining the level of water consumption feasibility.

*** Easy to Implement: This system is easy to implement and can be integrated with other monitoring systems. The use of ATmega 8535 microcontroller makes it easy to program and customize the system to meet specific needs.

Additional Analysis and Explanation:

Aluminum and iron electrolysis-based monitoring systems provide effective and efficient solutions to monitor drinking water quality. This system can help people to ensure the water they consume is safe and worth drinking. The use of Fuzzy Tsukamoto as a decision support system increases accuracy in determining the level of water consumption feasibility. With this method, people can more easily control water quality and maintain their health.

Importance of Using the Monitoring System:

The use of drinking water quality monitoring systems is very important to maintain public health. This system can help:

Detect water pollution early: The use of electrolysis-based monitoring systems can detect water pollution early, preventing the spread of diseases caused by polluted water.
Prevent the spread of diseases: The use of electrolysis-based monitoring systems can prevent the spread of diseases caused by polluted water, ensuring the health and well-being of the community.
Ensure the availability of clean water: The use of electrolysis-based monitoring systems can ensure the availability of clean water and worth drinking, improving the quality of life.

Conclusion:

Monitoring System for Aluminum and Iron Electrolysis-Based Water Quality is an innovative and effective solution to maintain drinking water quality. This system is easy to implement, environmentally friendly, and accurate in providing information about water quality. The use of this monitoring system will be very useful in maintaining public health and improving the quality of life.

Future Work:

Future work can focus on improving the accuracy of the system, increasing the range of detection, and integrating the system with other monitoring systems. Additionally, the system can be customized to meet specific needs, such as detecting specific contaminants or monitoring water quality in different environments.

Conclusion:

In conclusion, the use of aluminum and iron electrolysis-based monitoring systems is a promising solution for maintaining drinking water quality. This system is easy to implement, environmentally friendly, and accurate in providing information about water quality. The use of this monitoring system will be very useful in maintaining public health and improving the quality of life.

Q: What is the purpose of the drinking water monitoring system?

A: The purpose of the drinking water monitoring system is to detect and monitor the quality of drinking water, ensuring that it is safe and worth drinking. The system uses aluminum and iron electrolysis to detect color changes in water, which indicates the presence of contaminants.

Q: How does the electrolysis process work?

A: The electrolysis process involves passing an electric current through a solution containing aluminum and iron. This process causes the aluminum and iron to react with the water, producing color changes that can be detected by sensors.

Q: What are the benefits of using aluminum and iron electrolysis in water monitoring?

A: The benefits of using aluminum and iron electrolysis in water monitoring include:

Environmentally friendly: The method does not require harmful chemicals and is more environmentally friendly compared to conventional methods.
Accurate: The sensor used has a high enough accuracy in detecting color changes.
Easy to implement: The system is easy to implement and can be integrated with other monitoring systems.

Q: What are the advantages of using Fuzzy Tsukamoto as a decision support system?

A: The advantages of using Fuzzy Tsukamoto as a decision support system include:

Increased accuracy: The system increases accuracy in determining the level of water consumption feasibility.
Improved decision-making: The system provides a clear and concise decision-making process, making it easier to determine the quality of drinking water.

Q: Can the system detect specific contaminants?

A: Yes, the system can be customized to detect specific contaminants. The system can be programmed to detect specific color changes that indicate the presence of specific contaminants.

Q: How does the system ensure the availability of clean water?

A: The system ensures the availability of clean water by detecting and monitoring the quality of drinking water. If the water is found to be contaminated, the system can alert the user to take action to clean or replace the water.

Q: Is the system easy to implement and maintain?

A: Yes, the system is easy to implement and maintain. The system uses a simple and user-friendly interface, making it easy to use and understand.

Q: Can the system be integrated with other monitoring systems?

A: Yes, the system can be integrated with other monitoring systems. The system can be connected to other monitoring systems to provide a comprehensive view of water quality.

Q: What are the future prospects of the drinking water monitoring system?

A: The future prospects of the drinking water monitoring system are promising. The system has the potential to be used in a wide range of applications, including:

Drinking water treatment plants: The system can be used to monitor and control the quality of drinking water in treatment plants.
Residential and commercial water systems: The system can be used to monitor and control the quality of water in residential and commercial water systems.
Industrial water systems: The system can be used to monitor and control the quality of water in industrial water systems.

Q: What are the limitations of the drinking water monitoring system?

A: The limitations of the drinking water monitoring system include:

Limited range of detection: The system can only detect a limited range of contaminants.
Dependence on sensor accuracy: The system's accuracy depends on the accuracy of the sensors used.
Limited scalability: The system may not be scalable to large-scale applications.

Q: What are the potential applications of the drinking water monitoring system?

A: The potential applications of the drinking water monitoring system include:

Drinking water treatment plants: The system can be used to monitor and control the quality of drinking water in treatment plants.
Residential and commercial water systems: The system can be used to monitor and control the quality of water in residential and commercial water systems.
Industrial water systems: The system can be used to monitor and control the quality of water in industrial water systems.
Environmental monitoring: The system can be used to monitor and control the quality of water in environmental monitoring applications.