Life sciences · Preprint
arXiv · September 8, 2026
Raises a question worth testing. It does not answer one.
This is a preprint presenting a theoretical PAC-Bayesian error bound for partially observed linear time-invariant stochastic systems with inputs and sub-Gaussian noise. The work derives finite-sample bounds relating prediction and parameter estimation errors, framed as a potential foundation for similar bounds on recurrent neural networks, but contains no empirical validation or clinical data.
Preprint.
Derives PAC-Bayesian error bound for partially observed LTI stochastic dynamical systems with inputs and sub-Gaussian noise Shows bound can be used to derive parameter estimation error bounds Proposes application to finite-sample error bounds for system identification algorithms
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This is a theoretical contribution deriving PAC-Bayesian bounds for a specific class of dynamical systems; it is a mathematical framework paper without empirical validation or clinical application.
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In this paper we derive a Probably Approximately Correct (PAC)-Bayesian error bound for partially observed linear time-invariant (LTI) stochastic dynamical systems in state-space form with inputs and sub-Gaussian noise. Such bounds are widespread in machine learning, and they are useful for characterizing the predictive power of models learned from finitely many data points. The bound derived in this paper relates the expectation of prediction errors with the prediction error generated by the model on the data used for learning. In addition, we show that it can also be used to derive bounds for the parameter estimation error. In turn, this allows us to provide finite-sample error bounds for the prediction error and parameter estimation error for a wide class of system identification algorithms. Furthermore, as LTI systems are a sub-class of recurrent neural networks (RNNs), these error bounds could be a first step towards PAC-Bayesian bounds for RNNs.
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