Recursive divergence formulas for perturbing unstable transfer operators and physical measures
arXiv:2108.13863 · doi:10.1007/s10955-023-03138-y
Abstract
We show that the derivative of the (measure) transfer operator with respect to the parameter of the map is a divergence. Then, for physical measures of discrete-time hyperbolic chaotic systems, we derive an equivariant divergence formula for the unstable perturbation of transfer operators along unstable manifolds. This formula and hence the linear response, the parameter-derivative of physical measures, can be sampled by recursively computing only many vectors on one orbit, where is the unstable dimension. The numerical implementation of this formula in \cite{far} is neither cursed by dimensionality nor the sensitive dependence on initial conditions.
arXiv commentfinal version at JSP
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