Bitcoin's pseudonymous, peer-to-peer design lets criminal actors move, layer, and cash out illicit funds - ransomware payments, darknet-market proceeds, extortion, and laundering - while evading traditional financial surveillance. The objective of problem statement is to design and build a complete system (offline) that ingests bulk Bitcoin transaction/network metadata (in CSV/JSON/XML), correlates network-layer (IP/port/timing) observations with blockchain-layer (wallet/TXID/amount) data, and a
i.Challenge Objectives- • Ingest & parse a bulk metadata dataset (timestamp, src/dst IP & port, TXID, input/output wallet addresses, amounts, fee, script type).
Bitcoin's pseudonymous, peer-to-peer design lets criminal actors move, layer, and cash out illicit funds - ransomware payments, darknet-market proceeds, extortion, and laundering - while evading...
i.Challenge Objectives- • Ingest & parse a bulk metadata dataset (timestamp, src/dst IP & port, TXID, input/output wallet addresses, amounts, fee, script type). • Build an entity/transaction graph linking IPs, wallets, and transactions. • Implement AI/ML detection use case (see Section 4) with a working model - not just rules. • Generate a ranked, explainable alert list (why a wallet/transaction was flagged, with a confidence score). • Present findings via a simple dashboard or link-analysis visualization. ii.Suggested AI/ML Focus Areas Attach Table Here of AI/ML Focus Areas iii.Dataset: Parameters & Synthetic Generation Participants will work with a synthetic dataset modelled on real Bitcoin P2P/transaction fields (no real seized or live-intercept data will be provided). Minimum fields: t