Project Code :TEMBMA3869
Objective
This study explores the integration of computational intelligence and Internet of Things (IoT) technologies in transforming agricultural environmental control systems. IoT-based sensors continuously monitor critical parameters such as temperature, humidity, soil moisture, and light intensity. Computational intelligence techniques analyze the collected data to enable predictive decision-making and automated control. The proposed approach enhances crop productivity, resource efficiency, and sustainable agricultural practices.
Abstract
Agricultural environmental control plays a vital role
in improving crop productivity, resource management, and sustainable farming
practices. This project presents Computational Intelligence and IoT in
Transforming Agricultural Environmental Control using sensor monitoring,
machine learning techniques, and automated irrigation systems. The proposed
system uses an Arduino microcontroller integrated with pH, soil moisture,
DHT11, atmospheric, and MQ135 gas sensors to monitor environmental and soil
conditions in agricultural fields. The system continuously monitors parameters
such as soil moisture, pH level, temperature, humidity, atmospheric conditions,
and gas concentration for efficient agricultural management. A NodeMCU module
is used for IoT-based cloud uploading, enabling continuous monitoring and data
analysis. An LCD display is used to show sensor readings and environmental
conditions, while a buzzer provides alerts during abnormal situations. Machine
learning algorithms developed in Python are used for crop prediction based on
soil and environmental conditions. If abnormal conditions such as low soil
moisture or improper pH levels are detected, the relay-controlled DC water pump
is automatically activated to maintain suitable agricultural conditions. The
proposed system improves smart farming automation, supports efficient water
management, enhances crop prediction accuracy, and promotes sustainable
agriculture using IoT and computational intelligence technologies.
NOTE: Without the concern of our team, please don't submit to the college. This Abstract varies based on student requirements.
Block Diagram

Specifications
Hardware
components:
- Arduino Uno
- NodeMCU
- pH Sensor
- Soil Moisture Sensor
- DHT11 Sensor
- Atmospheric Sensor
- MQ135 Gas Sensor
- Relay Module
- DC Water Pump
- LCD Display
- Buzzer
- Power Supply
- 12V Adapter
- Connectors β 30
Software
components:
- Embedded C
- Arduino IDE
- Python
Learning Outcomes
- Arduino pin diagram and architecture
- How to install Arduino IDE and required software
- Setting up and installation procedure for Arduino IDE
- Introduction to Arduino development environment
- Basics of Embedded C / Python programming
- Basics of IoT platforms
- Working of power supply
- About Project Development Life Cycle:
- Planning and Requirement Gathering (softwareβs, tools, hardware components, etc.,)
- Schematic preparation
- Code development and debugging
- Hardware development and debugging
- Development of the Project and Output testing
- Practical exposure to:
- Hardware and software tools
- Solution providing for real-time problems
- Working with team / individual
- Work on creative ideas
- Project development Skills:
- Problem analyzing skills
- Problem solving skills
- Creativity and imaginary skills
- Programming skills
- Deployment
- Testing skills
- Debugging skills
- Project presentation skills
- Thesis writing skills