Skip to content

Folders and files

NameName
Last commit message
Last commit date

Latest commit

 

History

9 Commits
 
 
 
 

Repository files navigation

Step 1: Define the Project Scope and Goals

Objective: Build a system to detect driver drowsiness in real-time (e.g., using eye closure, head tilt, or yawning) and trigger an alert. Key Questions: What hardware will you use? (e.g., webcam, Raspberry Pi, or car-mounted camera) What’s your target platform? (e.g., desktop app, embedded system, mobile) Do you need real-time performance? (Most likely yes for safety.) Output: A simple alert (sound, vibration, etc.) when drowsiness is detected. Let me know your specific constraints (e.g., budget, tools you’re comfortable with) so I can tailor this further!

Step 2: Gather Tools and Resources

Since you’re starting fresh, here’s what you’ll need:

Software Programming Language: Python (widely used for computer vision and ML). Libraries: OpenCV: For image processing and camera input. Dlib: For facial landmark detection (e.g., eyes, mouth). NumPy: For numerical operations. TensorFlow/PyTorch (optional): If you want to train a custom ML model. Pygame or playsound: For alert sounds. IDE: PyCharm, VS Code, or Jupyter Notebook. Hardware A camera (webcam or Raspberry Pi camera module). A computer or microcontroller (e.g., Raspberry Pi if it’s embedded). Dataset (if using ML) You’ll need images/videos of drivers (drowsy vs. alert). Options: Public Datasets: Search for "drowsiness detection dataset" (e.g., NTHU Drowsy Driver Dataset). DIY: Record your own videos mimicking drowsy/alert states.

Step 3: Design the System

A typical drowsiness detection system has these components:

Input: Video feed from a camera. Processing: Detect the driver’s face. Track facial features (eyes, mouth). Analyze for drowsiness signs (e.g., prolonged eye closure, yawning). Output: Trigger an alert if drowsiness is detected. Basic Algorithm Use Eye Aspect Ratio (EAR) to detect eye closure: EAR = (distance between vertical eye landmarks) / (distance between horizontal eye landmarks). If EAR drops below a threshold (e.g., 0.2) for several frames, assume eyes are closed. Detect yawning by measuring mouth aspect ratio. Monitor head tilt using facial landmarks.

Step 4: Implementation Plan

Here’s a beginner-friendly roadmap with code snippets:

1. Setup Environment

Install dependencies: pip install opencv-python dlib numpy playsound For Dlib, you’ll need a pre-trained facial landmark model (e.g., shape_predictor_68_face_landmarks.dat). Download it from Dlib’s official site or a trusted source.

##2. Basic Code Structure (check the code in the file named driver deetction)

3. Test and Tune

Run the code with your webcam. Adjust EAR_THRESHOLD and CONSECUTIVE_FRAMES based on how sensitive you want the detection to be. Add yawning detection or head pose estimation if needed (I can provide code for those too!).

Step 5: Enhance the Project

Once the basics work, consider these upgrades: Machine Learning: Train a model (e.g., CNN) on a drowsiness dataset for better accuracy. Multi-Driver Support: Handle multiple faces in the frame. Embedded Deployment: Port it to a Raspberry Pi with a camera module. Alert Variety: Add SMS alerts, vibrations, or integration with a car system.

About

this is to help work on the code that will be used fro drowsiness detection in drivers

Resources

Stars

Watchers

Forks

Releases

Packages

Contributors

Languages