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Rates of convergence for regression with the graph poly-Laplacian
Nicolás García Trillos1, Ryan Murray2, Matthew Thorpe3
1Department of Statistics, University of Wisconsin-Madison, Madison, WI 53706 USA.
Abstract:
In the (special) smoothing spline problem one considers a variational problem with a quadratic data fidelity penalty and Laplacian regularization. Higher order regularity can be obtained via replacing the Laplacian regulariser with a poly-Laplacian regulariser. The methodology is readily adapted to graphs and here we consider graph poly-Laplacian regularization in a fully supervised, non-parametric, noise corrupted, regression problem. In particular, given a dataset and a set of noisy labels we let be the minimizer of an energy which consists of a data fidelity term and an appropriately scaled graph poly-Laplacian term. When , for iid noise , and using the geometric random graph, we identify (with high probability) the rate of convergence of to g in the large data limit . Furthermore, our rate is close to the known rate of convergence in the usual smoothing spline model.
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