
The main aim of the project is to design and implement a blockchain-based online auction system that ensures secure, transparent, and tamper-resistant bidding. Traditional auction platforms are often plagued with trust issues, including bid manipulation, fraudulent practices, and lack of clarity in auction rules and winner selection. This project addresses these challenges by using blockchain’s immutable ledger to log all transactions and deploying smart contracts to automate the bidding and winner selection processes. The system will allow users to participate in auctions with full transparency, eliminating human interference. Optionally, machine learning can be incorporated to detect fraudulent bidding behavior and offer personalized auction suggestions to users. By the end of the project, students are expected to deliver a working prototype of a decentralized auction platform, demonstrating core blockchain functionality in a real-world application.
Over a twelve-week development cycle, students will perform a series of structured tasks. Initially, they will learn about blockchain architecture and smart contract development using platforms such as Ethereum or Binance Smart Chain. They will also explore front-end tools to build an interactive user interface for auction creation and participation. Concurrently, the integration of machine learning libraries such as TensorFlow or scikit-learn may be explored for fraud detection or analytics.
In the development phase, students will implement smart contracts that enforce auction rules such as minimum bid amounts, bidding time limits, and automatic winner determination. The platform will include a basic user registration and authentication system, a dashboard to view active auctions, and a secure bidding mechanism. The final stages of the project will focus on system testing, optimization, comprehensive documentation, and a final group presentation. Ethical coding, teamwork, and data privacy must be observed throughout the project.