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Symbolic Neural Ordinary Differential Equations

AAAI 2025 · Probabilistic and scientific modeling › Differential equations and PDEs · approach: Neural ODE training and analysis · 4 citations (OpenAlex)

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Proposes Symbolic Neural ODEs (SNODEs), a three-stage framework that pre-trains a Fourier-based symbolic network via gradient flow matching, fine-tunes it with Neural ODEs, and adds a general neural network for residuals to learn parametric ODE/PDE operators.

Problem

Learning operator mappings from parameter functions to the states of parametric ODE/PDE systems in an interpretable way that extrapolates beyond training distributions and is resolution-invariant.

Approach

Combines a continuous-depth symbolic network (SymNet) whose first layer contains Fourier-computed spatial derivative terms with a general neural network (GeNN) for residuals, trained in three stages (gradient flow matching pre-training, ODESolve fine-tuning, residual learning) with a universal approximation result.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
Use SNODEs instead of the strongest listed baselineParametric PDE modeling · DR, KS, and NS under all reported training sizes and noise levelsMSEHelped
Remove SymNet (ablation)SNODEs · DR, KS, and NS, N_tr=100 and N_tr=1000 with σ_n=0%MSEHurt
Remove SymNet (ablation)SNODEs · DR, KS, and NS, N_tr=1000 with σ_n=3%MSEMixed
Remove GeNN (ablation)SNODEs · DR, KS, and NS, N_tr=100 and N_tr=1000 with σ_n=0%MSEMixed
Remove GeNN (ablation)SNODEs · DR, KS, and NS, N_tr=1000 with σ_n=3%MSEMixed
Use flow-matching pre-training rather than directly training with the classic NODE methodSNODEs training · DR, KS, and NStraining timeHelped

Surprising findings

Limitations

Experimental setup

Datasets: simulated DR, KS, and 2-d NS trajectories from pseudospectral solver simulated 1-d ODE and bifurcation trajectories with GRF parameter functions

Benchmarks: 1-d parametric ODE (DeepONet nonlinear example) saddle-node, pitchfork, Hopf bifurcation systems diffusion-reaction (DR) Kuramoto-Sivashinsky (KS) 2-d Navier-Stokes (NS)

Metrics: mean squared error training time (seconds)

Baselines: DeepONet FNO PDE-NET MP-PDE NODE

Builds on: Neural ODEs Symbolic Neural Network (SymNet) DeepONet Fourier Neural Operator PDE-Net

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