Predicting Observation after Action in a Hierarchical Energy-based Model with Memory

26 Sept 2024 (modified: 05 Feb 2025)Submitted to ICLR 2025EveryoneRevisionsBibTeXCC BY 4.0
Keywords: Neuroscience, Prediction, Energy-based models, Sampling-based inference, Local learning rules, Attractor neural networks
TL;DR: We implement a biologically plausible network for prediction using a hierarchical energy-based model with memory.
Abstract: Understanding the mechanisms of brain function is greatly advanced by predictive models. Recent advancements in machine learning further underscore the potency of prediction for learning optimal representation. However, there remains a gap in creating a biologically plausible model that explains how the neural system achieves prediction. In this paper, we introduce a framework employing an energy-based model (EBM) to capture the nuanced processes of predicting observation after action within the neural system, encompassing prediction, learning, and inference. We implement the EBM with a hierarchical structure and integrate a continuous attractor neural network for memory, constructing a biologically plausible model. In experimental evaluations, our model demonstrates efficacy across diverse scenarios. The range of actions includes eye movement, motion in environments, head turning, and static observation while the environment changes. Our model not only makes accurate predictions for environments it was trained on, but also provides reasonable predictions for unseen environments, matching the performances of machine learning methods in multiple tasks. We hope that this study contributes to a deep understanding of how the neural system performs prediction.
Supplementary Material: zip
Primary Area: applications to neuroscience & cognitive science
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Submission Number: 5380
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