AI-Driven Ventilation Management Using Embedded IoT Devices

Project Code :TEMBMA3603

Objective

To develop an AI-driven ventilation management system that leverages embedded IoT devices for monitoring and optimizing indoor air quality. The system integrates various sensors to measure temperature, humidity, particulate matter, CO2, and gases, and uses real-time data processed by an Arduino microcontroller and cloud-based analytics. It aims to automate ventilation controls, enhance indoor air quality, and improve energy efficiency through predictive maintenance.

Abstract

Effective ventilation management is essential for maintaining optimal indoor air quality and ensuring a healthy environment. This study introduces an AI-based Key Performance Indicator (KPI) system for ventilation, leveraging embedded IoT devices to monitor and control indoor air quality. The system integrates a range of sensors and components, including the DHT11 for temperature and humidity measurement, the PMS7003 for particulate matter detection, the MQ6 for CO2 concentration measurement, and the MQ135 for gas detection. Real-time data from these sensors is collected and processed by an Arduino microcontroller. The system uses an ESP8266 module to upload this data to ThingSpeak, a cloud-based IoT platform, for remote monitoring and analysis. Additionally, the system operates a CPU fan to enhance ventilation when temperature or CO2 levels exceed predefined thresholds. The collected data is also sent to a machine learning model that predicts gas content and CO2 levels, enabling advanced analysis and predictive maintenance.The integration of AI and IoT in this system provides a comprehensive solution for monitoring indoor air quality, enabling proactive management of ventilation systems. This approach not only ensures a healthier indoor environment but also contributes to energy efficiency by automating ventilation controls based on real-time data and predictive analytics.

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 Requirements:

  • Arduino
  • DHT11 Sensor
  • MQ6 Sensor
  • Relays
  • CPU Fan
  • 16x2 LCD
  • Pms7003
  • MQ135
  • 5V Power Supply Board
  • 12V 1A Adapter
  • Connecting wires
  • ESP8266

Software Requirements:

  • Arduino IDE
  • Embedded C
  • python

Learning Outcomes

  • Arduino Pin diagram and Architecture
  • How to install and setting up of Arduino IDE
  • Basic embedded C coding
  • DHT11 Sensor interface with arduino
  • MQ6 Sensor interface with arduino
  • MQ135 interface with arduino
  • Relays, Thermocouple and CPU Fan interface with arduino
  • LCD interface with arduino
  • Data sending to a third party server using arduino and gprs
  • About Project Development Life Cycle:
  • Planning and Requirement Gathering( software’s, 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

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