Cathedral-OS / AOAG HAASA v2.0 Technical Handoff Package High-Assurance Governance Architecture for Autonomous Systems

Abstract Cathedral-OS is a prototype governance architecture for autonomous agent operations inhigh-consequence environments. The system combines hardware-timed safety interlocks, software level tri-state consensus, cryptographic auditability, and formal verification scaffolding to reduce unsafe execution pathways and preserve recoverable system state. This handoff package documents the current implementation surface, artifact registry, operational procedures, verification methodology, and bounded-state simulation outputs. Implementedc omponents include a 670 µs hardware safety window via a Deterministic Safety Interlock (Verilog), tri-state decision logic via a Tri-State Quorum Controller (Python), authenticatedstate-transition signing via HMAC-SHA256, and append-only auditability via an Append-OnlyA udit Ledger (SHA-256 Merkle structure). Lean 4 theorem stubs are included to define thei ntended proof surface for bounded state-transition behavior. The lattice structure was created by the other named author and not by myself and I thank her for the contribution.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-04-02
DOI
https://doi.org/10.5281/zenodo.19386910
Primary Topic
Formal Methods in Verification
Type
article
Field-Weighted Citation Impact
0.00
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article

Cathedral-OS / AOAG HAASA v2.0 Technical Handoff Package High-Assurance Governance Architecture for Autonomous Systems

Alexander Cisneros
Zenodo (CERN European Organization for Nuclear Research)
Formal Methods in Verification
article

Cathedral-OS / AOAG HAASA v2.0 Technical Handoff Package High-Assurance Governance Architecture for Autonomous Systems

Alexander Cisneros
article en

Abstract

Abstract Cathedral-OS is a prototype governance architecture for autonomous agent operations inhigh-consequence environments. The system combines hardware-timed safety interlocks, software level tri-state consensus, cryptographic auditability, and formal verification scaffolding to reduce unsafe execution pathways and preserve recoverable system state. This handoff package documents the current implementation surface, artifact registry, operational procedures, verification methodology, and bounded-state simulation outputs. Implementedc omponents include a 670 µs hardware safety window via a Deterministic Safety Interlock (Verilog), tri-state decision logic via a Tri-State Quorum Controller (Python), authenticatedstate-transition signing via HMAC-SHA256, and append-only auditability via an Append-OnlyA udit Ledger (SHA-256 Merkle structure). Lean 4 theorem stubs are included to define thei ntended proof surface for bounded state-transition behavior. The lattice structure was created by the other named author and not by myself and I thank her for the contribution.

Zenodo (CERN European Organization for Nuclear Research)
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Formal Methods in Verification
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