· i-manager's Journal on Computer Science· Vol 14, pp. 1· 0 citations· 12 references
TL;DR
This paper formalizes deployment behavior as a random variable over an expansive scenario space and characterize validation as the acquisition of finite information through observed interaction trajectories, and delineates principled boundaries on certifiable claims for agentic AI systems.
Abstract
Validating agentic artificial intelligence systems that operate through long-horizon interaction with complex environments remains a fundamental and unresolved challenge. Contemporary validation practice relies heavily on scenario-based testing, benchmarking, and large-scale simulation, implicitly assuming that sufficient scenario coverage can approximate the system’s operational behavior. This paper challenges that assumption by framing validation as an inference problem under bounded information and analyzing its limits from an information-theoretic perspective. We formalize deployment behavior as a random variable over an expansive scenario space and characterize validation as the acquisition of finite information through observed interaction trajectories. Under minimal and realistic assumptions, we show that the entropy of the scenario space grows rapidly with interaction horizon, while the information obtainable through finite validation is strictly bounded. As a consequence, exhaustive scenario coverage and complete validation guarantees are, in general, information-theoretically impossible for agentic AI systems. We further demonstrate that empirical coverage metrics may diverge from epistemic certainty, leading to increasing apparent validation confidence without proportional reduction in residual uncertainty. To address these limits constructively, we identify conditions under which scope-limited, conditional guarantees remain attainable when validation is restricted to explicitly defined scenario classes. Theory-confirming empirical illustrations are provided to demonstrate the saturation of validation capacity and the persistence of uncertainty under increasing validation effort. The results delineate principled boundaries on certifiable claims for agentic AI systems, while also clarifying the conditions under which validation evidence remains epistemically interpretable, evaluation, and governance practices.
A novel Regret-Dominance Mechanism (MS-RGR) is introduced to operationalize safe autonomy in agentic-AI systems, and is positioned as initial feasibility evidence for design-time safety constraints in agentic-AI requirements engineering.
A model predictive control framework that treats feasibility repair as a Pareto optimization problem to explicitly characterize tradeoffs among agent objectives is proposed and a probabilistic certificate on STL violation rate is provided to formally quantify uncertainty under stochastic and uncontrollable agents.
The PhysAI-Bench is introduced, a benchmark for evaluating the agentic decision-making required for reliable autonomy in Physical AI, which contains 10,178 standardized decision instances automatically extracted from conversational traces of autonomous UAV missions.
M. Ferrag, Mérouane Debbah, Abderrahmane Lakas et al.· 0 citations
A novel framework based on Koopman operator theory is developed and validates its theoretical guarantees on multi-agent consensus dynamics, making spectral certification a practical layer for trustworthy collective reasoning.
Rosetta is presented, a multi-agent LLM pipeline that automatically generates first-principles analytical models from research paper PDFs, and four design decisions address failure modes of na\"ive LLM-based generation.
A comprehensive and technically grounded review of learning-based world models for Physical AI, with particular emphasis on closed-loop decision-making, and outlines principled directions for building reliable and scalable Physical AI systems.
Sven Kirchner, Nils Purschke, Alois Knoll· Discover Artificial Intellig...· 0 citations
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