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Asymptotic Distributions and Rates of Convergence for Random Forests via Generalized U-statistics

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arxiv 1905.10651 v3 pith:RYCPLQVY submitted 2019-05-25 stat.ML cs.LGmath.STstat.TH

classification stat.MLcs.LGmath.STstat.TH
keywords randomconvergenceforestsasymptoticforestgeneralizedlearningpredictions
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Random forests remain among the most popular off-the-shelf supervised learning algorithms. Despite their well-documented empirical success, however, until recently, few theoretical results were available to describe their performance and behavior. In this work we push beyond recent work on consistency and asymptotic normality by establishing rates of convergence for random forests and other supervised learning ensembles. We develop the notion of generalized U-statistics and show that within this framework, random forest predictions can potentially remain asymptotically normal for larger subsample sizes than previously established. We also provide Berry-Esseen bounds in order to quantify the rate at which this convergence occurs, making explicit the roles of the subsample size and the number of trees in determining the distribution of random forest predictions.

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  1. Locally Optimized Random Forests

    stat.ML 2019-08 conditional novelty 6.0 of 10

    A random forest that reweights training data by an estimated likelihood ratio between training and test covariate distributions improves prediction under covariate shift, with modest and uneven real-data gains.

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