aiqbench analysis
This arXiv preprint proposes AgenticRV, a runtime-verification architecture for agentic AI systems that separates the monitoring logic from the points where events are observed and where actions can be blocked before they take effect. Its most practical contribution is the distinction between rejected attempts and completed effects, which affects how safety monitors should be designed. The evidence is limited to a controlled LangGraph experiment, ablations, and integration tests, so the results are conditional on the stated observation and deployment assumptions.
One Monitor Does Not Fit All: Formalism-Agnostic Runtime Verification for Agentic AI
arXiv:2610.19818v1 Announce Type: new Abstract: Agentic AI systems combine model decisions, mutable state, tool calls, and delegation to external agents. Monitoring them requires observations from different execution boundaries, while prevention requires control before an operation produces its effect. We present AgenticRV, a runtime-verification architecture that separates these boundaries from the monitoring formalism. Adapters emit canonical events; each monitor receives its own projection and abstraction; and a decision policy uses normalised verdicts to select a reaction supported by the responsible adapter. We formalise when observations suffice, monitor replacement preserves decisions, and blocking prevents unsafe effects. We also distinguish rejected attempts from completed effects, avoiding the assumption that a blocked request must leave every monitor in a permanent violation state. The Python implementation supports LangGraph, MCP, and A2A. A controlled LangGraph experiment combines an external Reelay temporal monitor with a programmatic report monitor; ablations show why both are needed for the selected requirements. Differential checks and cross-adapter tests provide further integration evidence. An LLM-driven incident-response example illustrates the same enforcement path, while existing microbenchmarks isolate framework costs. The results support reuse of monitoring methods at explicit control boundaries, subject to the stated observation and deployment assumptions.
Abstract:Agentic AI systems combine model decisions, mutable state, tool calls, and delegation to external agents. Monitoring them requires observations from different execution boundaries, while prevention requires control before an operation produces its effect. We present AgenticRV, a runtime-verification architecture that separates these boundaries from the monitoring formalism. Adapters emit canonical events; each monitor receives its own projection and abstraction; and a decision policy uses normalised verdicts to select a reaction supported by the responsible adapter. We formalise when observations suffice, monitor replacement preserves decisions, and blocking prevents unsafe effects. We also distinguish rejected attempts from completed effects, avoiding the assumption that a blocked request must leave every monitor in a permanent violation state. The Python implementation supports LangGraph, MCP, and A2A. A controlled LangGraph experiment combines an external Reelay temporal monitor with a programmatic report monitor; ablations show why both are needed for the selected requirements. Differential checks and cross-adapter tests provide further integration evidence. An LLM-driven incident-response example illustrates the same enforcement path, while existing microbenchmarks isolate framework costs. The results support reuse of monitoring methods at explicit control boundaries, subject to the stated observation and deployment assumptions.
Artificial Intelligence (cs.AI)
arXiv:2610.19818 [cs.AI]
(or arXiv:2610.19818v1 [cs.AI] for this version)
https://doi.org/10.48550/arXiv.2610.19818 Focus to learn more arXiv-issued DOI via DataCite (pending registration)
validation/README.md
validation/adapter-runtime-tests.xml
validation/cross-boundary-results.json
validation/cross_boundary.py
validation/environment-freeze.txt
validation/interoperability-results.json
validation/interoperability.py
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Full text under the publisher's open licence · 304 words
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