deepraj21 / SafeDrive

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"SafeDrive: AI-Powered Driver Drowsiness Detection and Emergency Response System"

Problem Statement:

Develop a smart driver monitoring system using computer vision and machine learning to detect driver drowsiness and prevent accidents caused by drowsy driving. The system should be able to continuously monitor the driver's eyes and alert them if their eyes are closed for more than 10 seconds. Additionally, in case of an accident, the system should automatically send an emergency notification to a nearby hospital, ensuring swift medical assistance.

Solution:

The proposed solution involves building a driver monitoring system with the following components:

  1. Eye Detection using Computer Vision: Utilizing OpenCV, a popular computer vision library, to process video input from a camera focused on the driver's face. Implement an eye detection algorithm to track the driver's eyes in real-time.

  2. Drowsiness Detection using Machine Learning: Train a machine learning model (e.g., Convolutional Neural Network) on a dataset of open and closed eyes. Use the trained model to classify the current state of the driver's eyes as open or closed. If the eyes are closed for more than 5-10 seconds, trigger an alert.

  3. Alert System: When drowsiness is detected, generate a beep sound or an audible alert within the car to wake up the driver. The alert should be strong enough to get the driver's attention without causing panic.

  4. Emergency Notification System: Implement networking capabilities to allow the system to send an emergency notification to a nearby hospital. Use cellular data or a Wi-Fi connection to establish communication. When an accident is detected, the system should immediately send a notification along with the GPS coordinates of the car to the hospital's designated server.

  5. Offline Emergency Notification: In case the device is damaged and turns off due to an accident, implement a fail-safe mechanism. Store a draft of the emergency notification locally on the device. If the device powers back on after a crash, it should automatically send the pending notification to the hospital.

  6. Ambulance Dispatch: Upon receiving the emergency notification, the hospital's server should dispatch an ambulance to the location provided in the notification. The ambulance's GPS navigation system can guide the responders to the accident site.

Networking Part:

  1. Communication Protocol: Choose a communication protocol (e.g., HTTP) for transmitting data between the driver monitoring system and the hospital's server.

  2. Emergency Notification API: Develop an API on the hospital's server to receive and process emergency notifications. The API should extract the GPS coordinates and dispatch an ambulance accordingly.

  3. Data Encryption and Security: Ensure data security by implementing encryption for the transmitted data to prevent unauthorized access.

  4. Network Reliability: Account for potential network interruptions by implementing retry mechanisms for failed communication attempts.

By combining computer vision, machine learning, and networking, this solution addresses the issue of drowsy driving accidents by detecting driver drowsiness and facilitating rapid medical assistance in case of an accident. Remember to thoroughly test the system's components, including the eye detection algorithm, drowsiness detection model, and the networking aspects, to ensure its reliability and effectiveness in real-world scenarios.

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License:MIT License


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Language:Python 100.0%