M. Santos Pascual, D. Ríos Insua

Decision-making under partial or adversarial observability requires accurate inference of the environment’s latent state and its associated uncertainty. This work analyzes adversarial attacks on linear probabilistic state-space models, commonly integrated within reinforcement learning architectures, where the attacker alters observations under likelihood constraints that ensure the perturbations remain consistent with the observation model of the underlying decision-making system. We analyze how such adversarial yet realistic observation shifts propagate through the latent state inference process and influence policy decisions. This perspective provides a principled pathway toward building more robust reinforcement learning systems, with direct relevance to safety-critical domains such as robotics, where reliable operation under sensor noise, partial failures, and adversarial conditions is essential.

Keywords: Adversarial Machine Learning, Reinforcement Learning, State Space Models, Kalman Filter

Scheduled

Stochastic Processes
September 2, 2026  5:40 PM
Aula 22


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