Design and Implementation of a Secure and Accurate Electronic Voting Machine using Verilog on Zynq FPGA

Project Code :TVMAFE685

Objective

The objective of this project is to design and implement a secure and accurate electronic voting machine using Verilog on a Zynq FPGA platform. It focuses on developing a reliable digital system that ensures voter privacy, data integrity, and accurate vote counting. The design will incorporate security features such as authentication and error detection to prevent tampering and unauthorized access. Simulation and hardware implementation on FPGA will be carried out to verify functionality and performance. The overall goal is to create a robust, efficient, and tamper-resistant voting system suitable for real-time election applications.

Abstract

Abstract:

A Verilog-based EVM on a Zynq Board that may enhance the security, reliability, and transparency of voting will be designed and developed. Using the Zynq System-on-Chip platform, it contains an integrative on-chip structure of ARM processor and FPGA fabric, thereby providing robust hardware for processing votes with minimal errors. This HDL called Verilog will be used to program the vote counting logic, results to be displayed, and user interaction. The system has several security layers - voter authentication and validation of votes - which therefore ensures integrity. It also supports multiple candidates and can accommodate real-time updates of votes displayed. The programmable nature of the Zynq platform allows it to be scaled and adapted for future use in different types and configurations of elections. In addition, the hardware implementation utilized here reduces tampering and unauthorized access threats, one of the major concerns when doing procedures in an election. Testing and simulation results confirm that the system is accurate and can perform according to the standards set up. The project will stress the efficient application of embedded systems and digital design to real-world applications, especially mission-critical areas like voting.

NOTE: Without the concern of our team, please don't submit to the college. This Abstract varies based on student requirements.

Block Diagram

Specifications

Β·         Xilinx Vivado

Β·         HDL: Verilog

Learning Outcomes

Β·         Understand the architecture of Zynq SoC and its role in secure embedded systems

Β·         Design and implement Verilog-based voting logic on FPGA platforms

Β·         Apply hardware-level security concepts for mission-critical applications

Β·         Analyze EVM performance in terms of accuracy, latency, and reliability

Β·         Gain experience in testing, simulation, and validation of real-world digital systems

Β·         Develop scalable and adaptable embedded system designs

Demo Video