SIGNALAI·Jun 9, 2026, 4:00 AMSignal65Medium term

Inferring hidden forcing in a biological oscillator using Kolmogorov-Arnold networks

Source: arXiv cs.LG

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Inferring hidden forcing in a biological oscillator using Kolmogorov-Arnold networks

arXiv:2606.08479v1 Announce Type: new Abstract: Inferring the forces that drive a dynamical system from partial observations is a fundamental challenge across physics, particularly when distinct underlying mechanisms produce similar observable dynamics. Here we show that the effective muscular forcing underlying avian respiratory dynamics can be reconstructed from measurements of air-sac pressure alone. Using an interpretable learning framework based on Kolmogorov-Arnold networks, we infer the governing equations of the system directly from data and uncover a nontrivial structure in the underl

Why this matters
Why now

The increasing maturity of interpretable machine learning frameworks like Kolmogorov-Arnold networks allows for the extraction of governing equations from complex biological data, addressing a long-standing challenge in understanding dynamical systems.

Why it’s important

This development offers a new methodology for reverse-engineering biological processes and other complex systems directly from observational data, which could accelerate discovery and control in fields like medicine and engineering.

What changes

The ability to infer hidden forcing mechanisms and governing equations from partial observations using interpretable AI changes how researchers can approach the analysis of complex dynamical systems, moving beyond purely correlational insights to causal inference.

Winners
  • · Biomedical researchers
  • · AI model developers (interpretable AI)
  • · Pharmaceutical industry
  • · Robotics and control systems engineers
Losers
  • · Traditional empirical modeling approaches (some aspects)
  • · Purely black-box AI applications
Second-order effects
Direct

This method could lead to more robust and predictive models of biological systems.

Second

It may enable novel therapeutic interventions or bio-inspired engineering designs by uncovering fundamental principles.

Third

Widespread adoption could lead to a paradigm shift in scientific discovery, integrating AI for hypothesis generation and causal mechanism identification across various fields.

Editorial confidence: 85 / 100 · Structural impact: 50 / 100
Original report

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Read at arXiv cs.LG
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