Monitor driver's cardiac health using real-time sensors.

Detect abnormalities such as cardiac arrest through pattern recognition.

Enable automated emergency alerts and vehicle safety measures.

Arduino UNO: Central microcontroller for coordinating inputs and outputs.

Heart Rate Sensor: Continuous monitoring of heart rate to detect anomalies.

GPS Module: Tracks vehicle location for emergency response.

GSM Module: Sends alerts and location details to designated contacts.

Ultrasonic Sensor & Servo Motor: Enables automatic vehicle steering towards the safest side during emergencies.

Hardware Integration: Utilized components like Arduino UNO, GPS module, GSM module, pulse rate sensor, ultrasonic sensor, and servo motor for monitoring, control, and communication.

Software: Programmed with algorithms to analyze heart rate variability and detect cardiac emergencies. Integrated GPS for precise location tracking.

Safety Protocols: Automated vehicle pull-over system and emergency notification mechanism via GSM.

Developed a system capable of detecting abnormal heart rates (<65 bpm or >160 bpm).

Ensured automated location transmission to emergency services and family.

Demonstrated safe vehicle control during driver incapacitation.

Created a user-friendly system that is accessible to at-risk individuals and caregivers.

Individually tested all components, including heart rate, ultrasonic sensors, and GPS.

Successfully integrated the modules into a compact system for synchronized functionality.

Conducted simulations to verify emergency response accuracy and reliability.

Potential use in vehicles for elderly drivers or individuals with pre-existing heart conditions.

Could be extended to wearable devices for continuous cardiac monitoring.

Future developments include enhanced AI algorithms for prediction and broader health metrics integration.