Summary of Final Year project Clean Water is a tremendously important part of our lives. It is used for irrigation, cooking, washing, cleaning, drinking, etc. In simple words, Water is Life. Water covers approximately 70% of the Earth's surface, where approximately 97.2
RO Plant Management System
Summary of Final Year project
Clean Water is a tremendously important part of our lives. It is used for irrigation, cooking, washing, cleaning, drinking, etc. In simple words, Water is Life. Water covers approximately 70% of the Earth's surface, where approximately 97.2% of it is saline, only 2.8% fresh. According to the World Health Organization, the most common diseases linked with poor water quality are cholera, diarrhea, dysentery, hepatitis, typhoid, and polio. As a result, of poor water quality and bad sanitation, an estimated 829,000 people die each year from diarrhea. More than 2,000 children's lives are lost every day. Reverse osmosis (RO) is a water purification process that uses a partially permeable membrane to separate ions, unwanted molecules, and larger particles from drinking water. By 2025, half of the world's population will be living in water-stressed areas. we have many methods to make the water clean, pure, drinkable and for use also. But now the only problem is we facing maintaining those systems. RO Plant is one of the efficient methods to clean water but not easy to maintain these plants in remote areas. In some remote areas, either RO plants are not properly functional water quality, TDS (Total Dissolved Mineral) or they are continuously not operational, so we need to monitor them in the real-time so we can fix problems and monitor them collectively in one place. We can monitor and make check the balance of the electricity theft. With the aging of the RO plant system, the equipment run out and they do not perform their function properly due to this reason the level of the PH, and the TDS of the water do not remain suitable that was harmful to drink and there is no check and balance of the RO plant systems. In some areas, the government planted the RO plants in many schools, other government sectors, and different colonies. In most cases, electricity theft is common in areas allotted only for the RO plant. Our project aims to maintain the PH, TDS (Total dissolved solids), and the acidity level of the water that is drinkable and not harmful to the living things, the electricity theft can be controlled and we can also predict and manage the aging of the parts of the RO plant system. And also controls the Water loss and water production using a flow rate sensor. The plant’s power consumption can be calculated using the Potential and Current sensor. And the PH uses a PH sensor and the TDS uses TDS Sensor. Then, these data will be transferred using the Transmitting end which is based on the GSM Module and Arduino. We are collecting the data of more than one plant and the data collected on the receiver end and the comparison graph of Power Consumption, PH, TDS, and Flow rate is displayed on the GUI.
Project Objective
Project Implementation Method
The implementation of the proposed project will be in the Six steps
At first, we make the Transmitting end and receiving end for the sending and receiving purpose of the message only to the mobile using the GSM module 800L and Microcontroller Arduino UNO.
Figure 1: Transmitting End Circuit

Figure 2: Transmitting Circuit in working condition

Figure 6: Receiving End Circuit
Figure 7: Receiving end circuit in working condition
Second, I used the PH Sensor with Arduino and check the PH of the dirty water, clean water, and milk the readings are attached below.

Figure 8: PH Sensor using Arduino

Figure 9: Clean Water Figure 10: Dirty Water Figure 11: Milk
Third, I used the TDS meter with the Arduino and take the reading of the reading that is attached below.

Figure 12: TDS Meter using Arduino

Figure 13: TDS Reading
Fourth, I used the flow rate sensor with the Arduino the readings were sent to the Arduino and then transmits using the transmitter end, and the taken readings are attached below.

Figure 14: Flow Rate Sensor Figure 15: Flow rate sensor reading
In the fifth step, the current sensor with Arduino measures the value of the current, and the potential sensor measures voltage. By this, we can calculate the Power and then transmit using the transmitter.
In a sixth step, all readings (the TDS, PH, Flow rate, and the Power) values are received at a single receiver and then display on the GUI. Then, I analyze and compare these values with the reference value and in this way, we can make checks and balance the system.
Benefits of the Project
The project covers a lot of applications in the educational, industrial, domestic, and commercial sectors, but some of the major benefits of this project, based on what this project was chosen to work on are.
Technical Details of Final Deliverable
This section specifies information necessary for the design and specification for the management of the RO Plant components such as.
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| Name of Component | Function & Working principle | Specifications |
| PH Sensor | Our main purpose in this project is to maintain the quality of water that is not harmful to drinking. It checks the PH of the Water. | voltage rating: 3.3-5.5V Response Time:<2min Temperature: 5~60°C Detection Range: 0~14 |
| Flow Rate Sensor | The Flow Rate Sensor measures the velocity of water in studying the discharge, flow patterns, and sediment transport of a stream or river. | Voltage rating: 5 to 18V Current rating: 15mA @ 5V, Working Flow rate: 1 to 30 L/min, Pressure:2.0 MPa |
| TDS (Total Dissolved solids) Sensor | TDS is an abbreviation for Total Dissolved Solids in a liquid, including organic and inorganic substances in a molecular or micro-granular suspended form. The lower a TDS figure, the purer the water. | Input Voltage: 3.3-5.5V TDS Measurement Range: 0-1000ppm Temperature Range:55°C |
| Voltage Sensor | A voltage Sensor is a precise low-cost sensor for measuring voltage. It is based on the principle of resistive voltage divider design. | Input Voltage:0-25V Voltage Regulation:0.00489V Voltage Detection Range:0.02445-25v |
| Current Sensor | A current sensor is a device that detects and converts current to an easily measurable output voltage, which is proportional to the current through the measured path. | Vcc:5V DC Nominal Measurement range: -30A to +30A Scale Factor: 66mV per |
| Microcontroller (Atmel328) | The Arduino Uno is an open-source microcontroller board based on the Microchip ATmega328P microcontroller and developed by Arduino. cc. | Microchip Atmega328 Input voltage:7 to20volts Digital i/o pins: 14 Analog pins:6 Dc current: 20-50mA |
| GSM module 800L | SIM800L GSM/GPRS module is a miniature GSM modem, which can be integrated into a great number of IoT projects. You can use this module to SMS text messages, make or receive phone calls, and connect to the internet through GPRS, TCP/IP. | Usage/application: GSM Data Communication Brand: Sim Com Interface: Wireless |
| SIM900 GSM GPRS Shield | The Shield GPRS/GSM SIM900 is the easiest way to connect your Arduino projects to the cellular network we can receive text messages (SMS), and voice calls and even connect to the Internet via GPRS and thus enter the world of the Internet of things (IoT). | Main chip: SIM900 External supply voltage: 5-12V DC (Recommend 9V power supply) Four GSM / GPRS bands: |
| Veroboard | Veroboard is a brand of stripboard, which was originated and developed in the early 1960s by the Electronics Department of Vero Precision Engineering Ltd (VPE). | |
| Adapter | A power supply for electronic devices. Also called an "AC adapter" or "charger, " power adapters plug into a wall outlet and convert AC to a single DC voltage. | Input: AC 100V 240V 50/60 Hz Output Current: Max 5A Output Wattage: Max 60W &l |
Name of Component
PH Sensor
Flow Rate Sensor
TDS (Total Dissolved solids) Sensor
Voltage Sensor
Current Sensor
Microcontroller
(Atmel328)
GSM module 800L
SIM900 GSM GPRS Shield
Veroboard
Adapter
| Elapsed time in (days or weeks or month or quarter) since start of the project | Milestone | Deliverable |
|---|---|---|
| Month 1 | Market data collection/ costanalysis and component selection or availability and visit of different RO Plants | Component ratings |
| Month 2 | Initial working on Hardware (Transmitter and Receiver end) | Send and Receive message |
| Month 3 | Work on Flow rate sensor | Send and Receive the Flow rate of RO Plants |
| Month 4 | Work on PH Sensor | Send and Receive the PH of RO Plants |
| Month 5 | Work on TDS Sensor | Send and Receive the PH of RO Plants |
| Month 6 | Work on Power Sensor and GUI Display | Send and Receive the Power Consumption of RO Plants and Display whole data on GUI |
| Month 7 | Report Writing | Final Thesis Report |
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