🤖 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.
📝 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.