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One-shot Distributed Algorithm for Generalized Eigenvalue Problem

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arxiv 2010.11625 v2 pith:ETUFFY3E submitted 2020-10-22 cs.LG

classification cs.LG
keywords covariancedatadistributedeigenvalueanalysisdivergenceeigenvaluesempirical
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Nowadays, more and more datasets are stored in a distributed way for the sake of memory storage or data privacy. The generalized eigenvalue problem (GEP) plays a vital role in a large family of high-dimensional statistical models. However, the existing distributed method for eigenvalue decomposition cannot be applied in GEP for the divergence of the empirical covariance matrix. Here we propose a general distributed GEP framework with one-shot communication for GEP. If the symmetric data covariance has repeated eigenvalues, e.g., in canonical component analysis, we further modify the method for better convergence. The theoretical analysis on approximation error is conducted and the relation to the divergence of the data covariance, the eigenvalues of the empirical data covariance, and the number of local servers is analyzed. Numerical experiments also show the effectiveness of the proposed algorithms.

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  1. Distributed Estimation and Gap-Free Analysis of Canonical Correlations

    stat.CO 2024-12 conditional novelty 6.0 of 10

    A multi-round distributed CCA algorithm is shown to match the pooled-data convergence rate with vector-only communication and a gap-free error bound that avoids explicit eigenvalue-gap assumptions.

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