TL;DR
This paper provides a formal, mechanized proof in Isabelle/HOL demonstrating safety and liveness properties for cross-domain state synchronization systems under Byzantine faults, ensuring reliable regulatory state transitions across heterogeneous blockchain networks.
Contribution
It introduces a comprehensive formal proof of safety and liveness in cross-domain state synchronization, including reusable domain-independent components, under Byzantine fault conditions.
Findings
Proves bidirectional state preservation across multiple domains.
Establishes deterministic conflict resolution under Byzantine faults.
Ensures deadlock and starvation freedom in the system.
Abstract
Formally guaranteeing the safety and liveness of regulatory state transitions in cross-domain state synchronization systems is a problem of growing importance as tokenized assets are increasingly operated across heterogeneous blockchain networks and off-chain ledgers. This paper presents a mechanized proof of 2,348 lines in Isabelle/HOL establishing two complementary properties. First, cross-domain state preservation (safety): a regulatory state transition performed on one domain is faithfully reflected across all connected domains with structural preservation. This guarantee encompasses bidirectional roundtrip preservation, consistency across an arbitrary finite set of domains, and per-asset isolation. Second, liveness under Byzantine faults: in the presence of up to f < n/3 Byzantine nodes, we prove deterministic resolution of conflicting regulatory actions, deadlock freedom, and…
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