A priori error bounds and optimal recovery rates are derived for a designed loss for PINNs applied to the heat equation, but the key error bound omits a needed regularity assumption and the neural network minimizer's convergence is not proven.
Error estimates for viscous Burgers' equation using deep learning method
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abstract
The article focuses on error estimates as well as stability analysis of deep learning methods for stationary and non-stationary viscous Burgers equation in two and three dimensions. The local well-posedness of homogeneous boundary value problem for non-stationary viscous Burgers equation is established by using semigroup techniques and fixed point arguments. By considering a suitable approximate problem and deriving appropriate energy estimates, we prove the existence of a unique strong solution. Additionally, we extend our analysis to the global well-posedness of the non-homogeneous problem. For both the stationary and non-stationary cases, we derive explicit error estimates in suitable Lebesgue and Sobolev norms by optimizing a loss function in a Deep Neural Network approximation of the solution with fixed complexity. Finally, numerical results on prototype systems are presented to illustrate the derived error estimates.
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A priori error analysis of consistent PINNs for parabolic PDEs
A priori error bounds and optimal recovery rates are derived for a designed loss for PINNs applied to the heat equation, but the key error bound omits a needed regularity assumption and the neural network minimizer's convergence is not proven.