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Prospective Coding Improves Learning in Deep Continuous-Time Recurrent Networks

NeurIPS 2026 · Architectures and efficiency › RNNs and normalization · approach: LSTM design and memory · 0 citations (OpenAlex)

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Introduces Recursive Quadrature Filters (RQFs), a band-pass special case of diagonal SSMs, and a parameter-free two-tap prospective input correction that improves deep stacks under full BPTT and mitigates depth attenuation under spatial-only backprop.

Problem

Deep continuous-time recurrent networks delay bottom-up signals and attenuate top-down errors through cascaded temporal integration, hurting learning on long sequences.

Approach

Replace each layer's instantaneous bottom-up input with a prospective (look-ahead) input chi_tau = 1 + tau d/dt, discretized as a parameter-free two-tap update within a diagonal SSM; RQFs are shown to be a constrained diagonal SSM with a phase-rotation prior.

Key results

Surprising findings

Limitations

Experimental setup

Datasets: Google Speech Commands v0.02 (10-class subset) Path-X (LRA)

Benchmarks: Speech Commands raw audio Speech Commands MFCC Path-X

Metrics: test accuracy (mean ± sample std over five seeds)

Baselines: native S5 alphaP-S5 non-prospective RQF ORGaNICs (instantaneous input)

Builds on: S5 S4D ORGaNICs Mamba-3 alphaP-S5

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