Redirecting to original paper in 30 seconds...
Click below to go immediately or wait for automatic redirect
📄 Abstract
Abstract: Imagination in world models is crucial for enabling agents to learn
long-horizon policy in a sample-efficient manner. Existing recurrent
state-space model (RSSM)-based world models depend on single-step statistical
inference to capture the environment dynamics, and, hence, they are unable to
perform long-term imagination tasks due to the accumulation of prediction
errors. Inspired by the dual-process theory of human cognition, we propose a
novel dual-mind world model (DMWM) framework that integrates logical reasoning
to enable imagination with logical consistency. DMWM is composed of two
components: an RSSM-based System 1 (RSSM-S1) component that handles state
transitions in an intuitive manner and a logic-integrated neural network-based
System 2 (LINN-S2) component that guides the imagination process through
hierarchical deep logical reasoning. The inter-system feedback mechanism is
designed to ensure that the imagination process follows the logical rules of
the real environment. The proposed framework is evaluated on benchmark tasks
that require long-term planning from the DMControl suite. Extensive
experimental results demonstrate that the proposed framework yields significant
improvements in terms of logical coherence, trial efficiency, data efficiency
and long-term imagination over the state-of-the-art world models.
Authors (4)
Lingyi Wang
Rashed Shelim
Walid Saad
Naren Ramakrishnan
Submitted
February 11, 2025
Key Contributions
Proposes the Dual-Mind World Model (DMWM) framework, inspired by dual-process theory, which integrates an RSSM-based System 1 for intuitive transitions and a logic-integrated neural network System 2 for guided, logical imagination. This allows for long-term imagination with logical consistency, improving sample efficiency for learning long-horizon policies.
Business Value
Enables AI agents to learn more complex tasks and make better long-term decisions in dynamic environments, leading to more capable autonomous systems in robotics, logistics, and beyond.