COCO: Cognitive Operating System with Continuous Oversight for Multi-Agent Workflow Reliability

📅 2025-08-19
📈 Citations: 0
Influential: 0
📄 PDF
🤖 AI Summary
Large-scale multi-agent workflows suffer from progressive quality degradation due to error propagation and lack effective self-correcting mechanisms. To address this, we propose an asynchronous self-monitoring and adaptive error-correction framework. Our method features a decoupled monitoring architecture achieving O(1) computational overhead; introduces context-aware rollback, bidirectional reflection protocols, and heterogeneous cross-validation to precisely distinguish systematic from stochastic errors; and integrates stateful restarts with inter-module bidirectional verification. Furthermore, we design an ensemble inconsistency metric leveraging model diversity. Evaluated on standard multi-agent benchmark tasks, our framework achieves an average 6.5% performance improvement, significantly enhancing robustness and convergence guarantees. It establishes a new state-of-the-art in reliability for autonomous multi-agent workflows.

Technology Category

Application Category

📝 Abstract
Large-scale multi-agent workflows exhibit inherent vulnerability to error propagation and quality degradation, where downstream agents compound upstream failures without corrective mechanisms. We introduce COCO (Cognitive Operating System with Continuous Oversight), a theoretically-grounded framework that implements asynchronous self-monitoring and adaptive error correction in multi-agent driven systems. COCO addresses the fundamental trade-off between quality assurance and computational efficiency through a novel decoupled architecture that separates error detection from the critical execution path, achieving $O(1)$ monitoring overhead relative to workflow complexity. COCO employs three key algorithmic innovations to address systematic and stochastic errors: (1) Contextual Rollback Mechanism - a stateful restart protocol that preserves execution history and error diagnostics, enabling informed re-computation rather than naive retry; (2) Bidirectional Reflection Protocol - a mutual validation system between monitoring and execution modules that prevents oscillatory behavior and ensures convergence; (3) Heterogeneous Cross-Validation - leveraging model diversity to detect systematic biases and hallucinations through ensemble disagreement metrics. Extensive experiments on benchmark multi-agent tasks demonstrate 6.5% average performance improvement, establishing new state-of-the-art for autonomous workflow reliability.
Problem

Research questions and friction points this paper is trying to address.

Addresses error propagation in multi-agent workflows
Solves trade-off between quality assurance and efficiency
Corrects systematic and stochastic errors autonomously
Innovation

Methods, ideas, or system contributions that make the work stand out.

Decoupled architecture separating error detection
Contextual rollback mechanism preserving execution history
Bidirectional reflection protocol preventing oscillatory behavior
🔎 Similar Papers
No similar papers found.
C
Churong Liang
Beijing University of Posts and Telecommunications
J
Jinling Gan
Beijing University of Posts and Telecommunications
K
Kairan Hong
Beijing University of Posts and Telecommunications
Q
Qiushi Tian
Beijing University of Posts and Telecommunications
Z
Zongze Wu
Beijing University of Posts and Telecommunications
Runnan Li
Runnan Li
Beijing University of Posts and Telecommunications