An Integrated Vehicle to Vehicle Communication Control System Using Li-Fi Technology

Abstract

In recent years, vehicle-to-vehicle communication has become a significant aspect of detecting anomalous environmental activities through many wireless devices. Transferring data from one place to another is one of the important daily activities. Though using many wireless devices like Wi-Fi-Bluetooth readers helps us connect, there are also many limitations like providing signal only in the shortest range with fewer security features, speed, and range between the communication. These challenges will give rise to the solution using recent technology developed by Light Fidelity (Li-Fi), which will concise the vehicle-to-vehicle communication to optical networking technology. The proposed system with Li-Fi technology includes an ultrasonic sensor, gas sensor, vibration sensor, temperature sensor, LCD display, normal robot setup, Li-Fi transmitter, and receiver. If any abnormal circumstances are in front of the vehicle, the vehicle will be stopped, and a notification will be sent to the beside vehicle. Li-Fi transmitter and receiver are connected to the microcontroller's UART (Universal Asynchronous Receiver/Transmitter) function. In the proposed system, the object is detected using a Machine Learning (ML) algorithm called the Haar Cascade classification algorithm, where a cascade classification process is trained from the collection of positive and negative images. The proposed system increases the performance metrics like data transfer speed and decreases the time for transferring the communication data. Finally, the system saves many lives of persons from road accidents.

Application of IoT Technologies in Seaport Management

“…The OBU receives and transmits signals over one or more channels by approaching competing channels [128]. With its outstanding advantages, DSRC has laid the foundation for the success of combined projects such as Connected Vehicles, Cooperative Vehicle Infrastructure Systems, Cooperative Systems for Road Safety, Strategic Platforms for Intelligent Traffic Systems, Car-2-Car [71,[129][130][131][132], and many great projects have been and will be implemented. The above projects meet IEEE 802.11p standards in 5.850 GHz to 5.925 GHz, which allows the devices to transmit up to 1 km with 32 dBm power contributing to improved smoothness of transportation [133].…”