Sovereign-OS: A Charter-Governed Operating System for Autonomous AI Agents with Verifiable Fiscal Discipline
Aojie Yuan, Haiyue Zhang, Ziyi Wang, Yue Zhao

TL;DR
Sovereign-OS is a governance-centric operating system designed for autonomous AI agents, enforcing fiscal discipline, permissions, and auditability through a declarative Charter and cryptographic verification, ensuring reliable and compliant agent behavior.
Contribution
It introduces a novel OS framework that integrates constitutional governance, fiscal constraints, permission management, and tamper-evident audits for autonomous AI agents, enhancing trust and compliance.
Findings
Blocks 100% of fiscal violations in tested scenarios
Achieves 94% correct permission gating
Maintains zero integrity failures over 1,200+ audits
Abstract
As AI agents evolve from text generators into autonomous economic actors that accept jobs, manage budgets, and delegate to sub-agents, the absence of runtime governance becomes a critical gap. Existing frameworks orchestrate agent behavior but impose no fiscal constraints, require no earned permissions, and offer no tamper-evident audit trail. We introduce Sovereign-OS, a governance-first operating system that places every agent action under constitutional control. A declarative Charter (YAML) defines mission scope, fiscal boundaries, and success criteria. A CEO (Strategist) decomposes goals into dependency-aware task DAGs; a CFO (Treasury) gates each expenditure against budget caps, daily burn limits, and profitability floors via an auction-based bidding engine; Workers operate under earned-autonomy permissions governed by a dynamic TrustScore; and an Auditor (ReviewEngine) verifies…
Peer Reviews
No public reviews on file for this paper yet. If you reviewed it on a platform where reviews are public (OpenReview, ICLR, NeurIPS, ICML), you can paste yours below so the community can read it here.
Videos
No videos yet. Explain this paper in a talk, walkthrough, or lecture? Add one.
Taxonomy
TopicsBlockchain Technology Applications and Security · Multi-Agent Systems and Negotiation · Robotic Process Automation Applications
