A proof-of-concept for an AI architecture that learns discrete state-transition rules online, plans with the learned model, and hierarchically encapsulates behaviors, but without formal guarantees of completeness or minimality or comparison to existing methods.
A Unifying Framework for Reinforcement Learning and Planning
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abstract
Sequential decision making, commonly formalized as optimization of a Markov Decision Process, is a key challenge in artificial intelligence. Two successful approaches to MDP optimization are reinforcement learning and planning, which both largely have their own research communities. However, if both research fields solve the same problem, then we might be able to disentangle the common factors in their solution approaches. Therefore, this paper presents a unifying algorithmic framework for reinforcement learning and planning (FRAP), which identifies underlying dimensions on which MDP planning and learning algorithms have to decide. At the end of the paper, we compare a variety of well-known planning, model-free and model-based RL algorithms along these dimensions. Altogether, the framework may help provide deeper insight in the algorithmic design space of planning and reinforcement learning.
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2025 1verdicts
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Agential AI for Integrated Continual Learning, Deliberative Behavior, and Comprehensible Models
A proof-of-concept for an AI architecture that learns discrete state-transition rules online, plans with the learned model, and hierarchically encapsulates behaviors, but without formal guarantees of completeness or minimality or comparison to existing methods.