The objective of this system is to monitor driver vigilance and behavior using a YOLO-based computer vision model. It aims to detect signs of drowsiness, distraction, or unsafe actions in real time. The system provides automated alerts to prevent potential accidents. Additionally, it enhances road safety by ensuring continuous driver awareness and timely intervention.
The project titled βDriver Vigilance and Behaviour Monitoring with Automated Alerts using YOLOβ aims to enhance road safety by detecting driver drowsiness and unsafe behaviors in real time. This system uses a Raspberry Pi as the central processing unit, integrated with a webcam to continuously monitor the driverβs facial expressions and activities such as drowsiness, mobile usage, and eating while driving. The YOLO (You Only Look Once) algorithm is employed for fast and accurate object detection and behavior analysis.
When abnormal conditions are detected, the system immediately triggers alert mechanisms including a buzzer and vibration motor to warn the driver. An LCD display is used to show system status and alerts. Additionally, a motor driver is used for controlling connected DC motor components if required for extended automation. This system provides a low-cost, efficient, and real-time solution to reduce accidents caused by driver inattention and fatigue.
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Hardware components:
Software components:
Learning outcomes:
β’ Raspberry Pi pin diagram and architecture
β’ How to install Raspberry Pi OS / setup software
β’ Setting up and installation procedure for Raspberry Pi
β’ Introduction to Raspberry Pi development environment
β’ Basic programming in Raspberry Pi (Python / C / C++)
β’ Basics of Embedded Python / Raspberry Pi programming
β’ Basics of IoT platforms
β’ Working of power supply
β’ About
Project Development Life Cycle:
ββ’ Planning and Requirement Gathering (software, tools, hardware components,
etc.)
ββ’ Schematic preparation
ββ’ Code development and debugging
ββ’ Hardware development and debugging
ββ’ Development of the project and output testing
β’
Practical exposure to:
ββ’ Hardware and software tools
ββ’ Solution providing for real-time problems
ββ’ Working with team/individual
ββ’ Work on creative ideas
β’ Skills
developed:
ββ’ Project development skills
ββ’ Problem analyzing skills
ββ’ Problem solving skills
ββ’ Creativity and imaginative skills
ββ’ Programming skills
ββ’ Deployment
ββ’ Testing skills
ββ’ Debugging skills
ββ’ Project presentation skills
ββ’ Thesis writing skills