J. Ravindra
P. V. Krishna Reddy
R. UPENDRA
N. Sunil Kumar
- Assistant Professor Department of Electronics and Electrical Engineering , Bapatla Engineering College,GBCRD,Mahatmajipuram,Bapatla Andhra Pradesh India
- Student Department of Electronics and Electrical Engineering , Bapatla Engineering College,GBCRD,Mahatmajipuram,Bapatla Andhra Pradesh India
- Student Department of Electronics and Electrical Engineering , Bapatla Engineering College,GBCRD,Mahatmajipuram,Bapatla Andhra Pradesh India
- Student Department of Electronics and Electrical Engineering , Bapatla Engineering College,GBCRD,Mahatmajipuram,Bapatla Andhra Pradesh India
Abstract
The coming of the Controlling Area Network (CAN) protocol has totally transformed the car industry, enabling smooth communication between various electronical control units (ECUs) within modern vehicles. Using this strong communication framework, our project centers on the execution of a Remote Keyless Entry (RKE) system, providing improved security and ease to vehicle owners. This project aims at designing and developing a complex RKE system employing the CAN protocol, which allows wireless entry to vehicles through coded signals. By amalgamating CAN-powered ECUs like the body control unit (BCU) and the key dongle, our solution promises reliable and secure communication between the key fob and the vehicle, making user interaction simpler. The suggested RKE system consists of two prime components: the key dongle and the vehicle’s BCU. The key dongle dispatches coded signals to the BCU via the CAN bus, triggering keyless entry functions like locking, unlocking, and remote beginning. Through careful coding techniques and validation mechanisms, our system alleviates the danger of unauthorized access, securing the vehicle against theft or manipulation. Moreover, embedding the RKE system using the CAN protocol proposes scalability and intercommunication, enabling smooth integration with existing vehicle nets and future improvements. By complying with industry norms and best practices, our solution ensures compliance with a broad array of vehicle makes and manufacturers, thus enhancing its practicality and marketability. To sum up, the Remote Keyless Entry Implementation Using CAN Protocol project stands as a notable leap forward in automotive security and ease. By utilizing the power of the CAN protocol, our solution offers a strong, efficient, and user-friendly approach to remotely accessing vehicles, heralding a fresh age of clever and secure automotive systems.
Keywords: RKE, ECU, CAN communication, BCM, CAN cable, Arbitration, IVN Bed, CAN High and CAN Low.
[This article belongs to Journal of Telecommunication, Switching Systems and Networks(jotssn)]
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Journal of Telecommunication, Switching Systems and Networks
| Volume | 11 |
| Issue | 01 |
| Received | May 12, 2024 |
| Accepted | May 24, 2024 |
| Published | June 4, 2024 |