MTTR-A: Measuring Cognitive Recovery Latency in Multi-Agent Systems

📅 2025-11-08
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🤖 AI Summary
Quantifying cognitive recovery delay after reasoning inconsistency in multi-agent systems (MAS) remains an open challenge. Method: We propose MTTR-A (Mean Time to Cognitive Recovery), a novel cognitive-domain reliability metric, systematically extending classical reliability concepts (e.g., MTTR, MTBF) to distributed reasoning recovery. Using the AG-News corpus and LangGraph framework, we construct a reflection-pattern simulation benchmark to compare automated reflection versus human-in-the-loop approval in recovery dynamics. Contribution/Results: Automated reflection achieves stable recovery within 6 seconds on average; MTTR-A is 6.21±2.14 s (median), MTBF is 6.7±2.14 s, and normalized recovery rate (NRR) reaches 0.08. This work establishes a measurable, comparable, and reproducible evaluation paradigm for cognitive recovery—providing both theoretical foundations and empirical benchmarks for MAS resilience modeling.

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📝 Abstract
Ensuring cognitive stability in autonomous multi-agent systems (MAS) is a central challenge for large-scale, distributed AI. While existing observability tools monitor system outputs, they cannot quantify how rapidly agentic workflows recover once reasoning coherence has been lost. We adapt classical reliability metrics-Mean Time-to-Recovery (MTTR), Mean Time Between Failures (MTBF), and related ratios-into the cognitive domain, defining MTTR-A (Mean Time-to-Recovery for Agentic Systems) as a runtime measure of cognitive recovery latency. MTTR-A quantifies the time required for a MAS to detect reasoning drift and restore consistent operation, capturing the recovery of reasoning coherence rather than infrastructural repair. A benchmark simulation using the AG~News corpus and the LangGraph orchestration framework was conducted, modeling recovery latencies across multiple reflex modes. Automated reflexes restored stability within approximately 6s on average, while human-approval interventions required about 12s. Across 200 runs, the median simulated MTTR-A was 6.21+-2.14s, MTBF=6.7+-2.14s, and NRR=0.08, demonstrating measurable runtime resilience across reflex strategies. By formalizing recovery latency as a quantifiable property of distributed reasoning-and deriving reliability bounds linking recovery time and cognitive uptime-this work establishes a foundation for runtime dependability in agentic cognition, transforming cognitive recovery from an ad-hoc process into a standardized, interpretable performance
Problem

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

Measuring cognitive recovery latency in multi-agent systems
Quantifying reasoning coherence restoration after drift
Establishing runtime dependability for agentic cognition
Innovation

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

Adapts classical reliability metrics to cognitive domain
Quantifies reasoning recovery latency via MTTR-A metric
Establishes runtime dependability foundation for agentic cognition