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Residual Importance Weighted Transfer Learning For High-dimensional Linear Regression

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arxiv 2311.07972 v2 pith:G7HEV5WA submitted 2023-11-14 stat.ME

classification stat.ME
keywords riw-tlimportancehigh-dimensionallearningresidualtransferweightingcompared
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Transfer learning is an emerging paradigm for leveraging multiple sources to improve the statistical inference on a single target. In this paper, we propose a novel approach named residual importance weighted transfer learning (RIW-TL) for high-dimensional linear models built on penalized likelihood. Compared to existing methods such as Trans-Lasso that selects sources in an all-in-all-out manner, RIW-TL includes samples via importance weighting and thus may permit more effective sample use. To determine the weights, remarkably RIW-TL only requires the knowledge of one-dimensional densities dependent on residuals, thus overcoming the curse of dimensionality of having to estimate high-dimensional densities in naive importance weighting. We show that the oracle RIW-TL provides a faster rate than its competitors and develop a cross-fitting procedure to estimate this oracle. We discuss variants of RIW-TL by adopting different choices for residual weighting. The theoretical properties of RIW-TL and its variants are established and compared with those of LASSO and Trans-Lasso. Extensive simulation and a real data analysis confirm its advantages.

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Cited by 2 Pith papers

Reviewed papers in the Pith corpus that reference this work. Sorted by Pith novelty score. Full citation record

  1. Sufficiency-principled Transfer Learning via Model Averaging

    stat.ME 2025-07 conditional novelty 6.0 of 10

    A sufficiency-penalized model averaging transfer learning method that adaptively selects informative domains, with convergence rates, optimality, and asymptotic normality.

  2. Multi-Environment GLAMP: Approximate Message Passing for Transfer Learning with Applications to Lasso-based Estimators

    math.ST 2025-05 conditional novelty 6.0 of 10

    Multi-environment GLAMP yields exact asymptotic risk formulas for three Lasso-based transfer learning estimators under Gaussian designs, validated by simulations.

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