Motor vehicle accidents continue to be among the primary causes of mortality and serious injury across the globe. Traditional road accident detection and safety measures utilize either few sensors or a single mode of communication that might have a negative impact on the accuracy of identifying accidents and responding to emergencies. An Accident Detection and Data level sensor fusion is presented based on data-level sensor fusion and ML-based communication technologies. The recommended design incorporates (i) a range of sensors like the accelerometer, gyroscope, ultrasonic sensor, speed sensor, brake switch, and humidity sensor that constantly track vehicle dynamics and environment, (ii) machine learning systems that help process data from these sensors and detect collision incidents, (iii) Li-Fi communication technology for transferring alerts to other cars, and (iv) Long-range LoRa communications system used for notifying accident notifications and providing emergency alert information over long distances. Once there is any accident, then the system notes down the geolocation of the accident and provides information about that to rescue services and concerned people to help provide timely support. Data gathered is also used to analyze any accident to find out the reason behind the accident. The developed system uses techniques like data level sensor fusion, intelligent decisions, inter-vehicle communications, alerting of emergencies, and location tracking into one integrated framework.
N. R, V. D· International Conference Com...· 0 citations
The proposed system is an ADAS-integrated safety system to reduce road accidents caused by impaired driving conditions such as alcohol influence and driver fatigue. The system uses a dual controller architecture, where an ESP32 micro-controller and a Raspberry Pi are combined to achieve efficient and real-time operation. The ESP32 mainly handles the safety critical functions. These include alcohol detection, vehicle speed monitoring, engine lockout, and adaptive speed control. On the other hand, the Raspberry Pi is used for vision-based drowsiness detection. It performs facial landmark analysis to identify signs of fatigue from drivers. To further improve the system capability, GPS based tracking is also included with the cloud supported telematics. This enables real-time fleet monitoring and alert generation. During critical conditions, vehicle location and alerts information is sent to the authorized team. At the same time, the driver receives safety warnings and next safe rest stop recommendations when fatigue is detected. The proposed system combines driver monitoring, vehicle control, and telematics into one embedded solution. As a result, it can be applied effectively in intelligent transportation and fleet safety systems.
A. S, Vijendra Babu D· 2026 International Conferenc...· 0 citations
We use cookies to run the site and, with your consent, for analytics and to show ads.
See our Cookie Policy.