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Dr.S.Sathiya Priya, Dr.V.JeyaRamya, Ashwin Kumar. N. A, Manish Kandan K, Pattabiraman M
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Page No: 1 - 9
Abstract : Real time data sharing between vehicles through V2V communication has been presented as a possible solution to improve traffic efficiency and reduce road safety issues which are major problems in contemporary transportation systems on account of rapid growth in vehicle traffic. This paper describes a real-time V2V communication system implementation that uses wireless communication technologies to enable vehicles to transmit vital information, including position, speed, and emergency alarms. The system helps increase drivers' situational awareness and their proactive decision-making by providing low-latency, secure, and reliable message transmission. Results from experiments show better reaction times, less chance of accidents, and better traffic flow. V2V communication offers collision avoidance techniques that are quicker and more efficient than those found in traditional warning systems. The suggested solution is intended to support the advancement of Intelligent Transportation Systems (ITS) by being scalable and responsive to various traffic situations. Furthermore, security measures like authentication and encryption are put in place to stop data manipulation and unwanted access. To find the best strategy for real-time applications, the study also investigates a number of wireless communication protocols, such as LoRa, Wi-Fi, and DSRC. In order to further improve transportation efficiency and safety, future improvements will incorporate AI-based predictive analytics and expand into Vehicle-to-Infrastructure (V2I) communication.
Keyword Intelligent Transportation System (ITS), Vehicular Ad-hoc Network (VANET), Low-Latency Communication, Network Congestion Management, Artificial Intelligence in Transportation, Cybersecurity in V2V Communication.
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The rapid advancement of vehicle technology has substantially influenced current transportation systems.
making them safer, more efficient, more intelligent. However, despite the incorporation of advanced driver-
assistance systems (ADAS) such as sensors. Road accidents remain a significant global concern, causing thousands of fatalities and severe injuries every year. One major cause of these incidents is the lack of real-time communication between vehicles. Without this, drivers cannot make proactive decisions to avoid collisions.

Classic vision-based systems enhance safety by identifying nearby obstacles. However, they face limitations in challenging conditions like fog, rain, and obstructed views. These environmental factors reduce their effectiveness and compromise safety.

Vehicle-to-vehicle (V2V) communication offers a solution. By enabling real-time data sharing, it enhances radar and camera systems for collision avoidance. This advanced technology can address visibility challenges and improve overall road safety..

Introduction

V2V (Vehicle To Vehicle Communication for Intelligent) communication enables vehicles to transmit crucial information, such as speed, location, acceleration, and braking status, in real time. This wireless communication network allows vehicles to communicate situational dat., letting drivers and
automated systems react to potential risks before they become serious threats. Unlike conventional radar-based
safety measures, V2V systems transcend direct visual constraints by relying on a network of connected
vehicles. making road mobility safer and more efficient. Despite technological breakthroughs in collision avoidance systems. accidents remain prevalent due to delayed
driver responses and unpredictable traffic conditions. V2V communication directly tackles these difficulties by
providing cooperative awareness among vehicles.

Related works

By tackling existing obstacles and exploiting upcoming technology. V2V (Vehicle To Vehicle Communication for Intelligent) communication can change modern transportation systems. leading to safer roads and an intelligent, fully linked driving ecosystem Despite its benefits. V2V (Vehicle To Vehicle Communication for Intelligent) communication faces various obstacles. particularly in cybersecurity and data privacy. Since V2V relies on wireless communication, it is subject to hacking, spoofing, and unwanted access. To ensure secure data sharing, researchers are studying new encryption approaches, blockchain-based security frameworks, and anomaly detection systems to defend automobiles from cyber threats. Establishing a comprehensive cybersecurity framework is important to earning public trust and enabling mass deployment of V2V technologies.

Figure Shows the Flow chart for Vehicle To Vehicle Communication for Intelligent




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