Deep Partial Least Squares for Empirical Asset Pricing
Matthew F. Dixon, Nicholas G. Polson, Kemen Goicoechea

TL;DR
This paper introduces Deep Partial Least Squares (DPLS), a novel method for asset pricing that captures non-linear risk factor structures, outperforming traditional models and deep learning in explaining stock returns.
Contribution
The paper's main contribution is the development of DPLS, which models non-linear factor structures in asset returns, advancing deep learning applications in empirical finance.
Findings
DPLS achieves 1.2x higher information ratios than deep learning.
DPLS explains variation and pricing errors more effectively.
DPLS identifies key latent factors and characteristics.
Abstract
We use deep partial least squares (DPLS) to estimate an asset pricing model for individual stock returns that exploits conditioning information in a flexible and dynamic way while attributing excess returns to a small set of statistical risk factors. The novel contribution is to resolve the non-linear factor structure, thus advancing the current paradigm of deep learning in empirical asset pricing which uses linear stochastic discount factors under an assumption of Gaussian asset returns and factors. This non-linear factor structure is extracted by using projected least squares to jointly project firm characteristics and asset returns on to a subspace of latent factors and using deep learning to learn the non-linear map from the factor loadings to the asset returns. The result of capturing this non-linear risk factor structure is to characterize anomalies in asset returns by both linear…
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Taxonomy
TopicsStock Market Forecasting Methods · Financial Markets and Investment Strategies · Forecasting Techniques and Applications
