Validity Liquidity Fidelity Triad Formalizes Universal Smart Contract Security
This research introduces the VLF property triad to provide a foundational, generalized specification for formally verifying all smart contract security.
Formalizing Subjective Trust Assumptions for Resilient Decentralized Consensus
Introducing asymmetric Byzantine quorum systems, this work formally proves safety and liveness in networks where nodes choose their own trust sets.
Formal Security Comparison Reveals Proof-of-Stake Safety-Liveness Trade-Off
Formal security analysis confirms PoW's strong guarantees, necessitating hybrid PoS designs to balance safety and liveness trade-offs.
Compositional Formal Proofs Secure DAG Consensus Protocols Systemically
A new compositional framework provides mathematically rigorous, reusable safety proofs for complex DAG-based consensus, fundamentally securing high-throughput decentralized systems.
Permissionless Consensus Framework Defines Blockchain Security Limits
This research establishes a foundational framework for permissionless consensus, categorizing blockchain environments to reveal inherent security and liveness.
Composable Formal Verification Secures DAG Consensus Protocols with Reusable Proofs
This research introduces a novel framework for formally verifying DAG-based consensus protocols, significantly enhancing their security and accelerating development through proof reuse.
Game Theory Reveals Incentive-Driven Vulnerabilities in Blockchain Robustness.
This research unifies distributed systems and game theory to expose how rational validator incentives compromise Ethereum Proof-of-Stake safety and liveness, paving the way for resilient protocol design.
Formal Verification Properties for Smart Contract Security
A novel framework defines universal properties—Validity, Liquidity, Fidelity—to rigorously verify smart contract behavior, fundamentally enhancing blockchain security.
