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Nature Communications· 2026Q1

Temporal prediction captures retinal spiking responses across animal species

Luke Taylor, Friedemann Zenke, Andrew J. King, Nicol S. Harper

Short summary

A spiking neural network model of the retina, trained to predict future visual scenes ~100 ms ahead under metabolic constraints, successfully replicates retinal ganglion cell responses across different animal species.

AI-generated from the title and abstract; the full text is not read.

Key points

  • A spiking neural network model was trained to predict future visual scenes (~100 ms ahead) under metabolic constraints.
  • The model successfully replicated retina-like receptive fields, latency coding, motion anticipation, and stimulus-omission responses.
  • The temporal prediction model accurately predicted retinal ganglion cell responses across different animal species to natural images and movies.

AI-generated from the title and abstract; the full text is not read.

Abstract

Abstract The retina’s role in visual processing has been viewed as two extremes: an efficient compressor of incoming visual stimuli, akin to a camera, or a predictor of future stimuli. Addressing this dichotomy, we developed a spiking neural network model of the retina trained on natural movies under metabolic-like constraints to either encode the present or to predict future scenes. When optimized for efficient temporal prediction ~100 ms into the future, the model not only captures retina-like receptive fields and their mosaic-like organizations, but also exhibits complex retinal processes such as latency coding, motion anticipation, differential motion tuning, and stimulus-omission responses. Notably, the temporal prediction model also accurately predicts the way retinal ganglion cells respond across different animal species to natural images and movies. Our findings suggest that the retina is not merely a compressor of visual input, but rather is fundamentally organized to provide the brain with foresight into the visual world.

The authors' abstract, as published at the source. Nature Communications, 2026 · DOI ↗

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Field: Cognitive Neuroscience

Cognitive NeuroscienceNeuroscience