Goto

Collaborating Authors

 Statistical Learning





An Empirical Investigation of Domain Generalization with Empirical Risk Minimizers (Appendix)

Neural Information Processing Systems

See table 1 for the results. We next perform regression in the Joint setting (Sec.5.3, main paper) where we fit a regression model across all environments, with 5 features instead of 2 reported in the main We find that it is possible to get an Spearman's We considered a set of 40 metrics overall and report only a small subset of them in the main paper. In table 2 we provide detailed results of all the measures we study. Figure 1 provides details of the canonicalization performed on each of the measures as explained in the main paper. In particular, (Ben-David et al., 2007) prove We also develop measures based on follow-up theoretical work in (Ben-David et al., 2010) on divergence measures using the symmetric difference hypothesis space. Here we summarize a result from (Ben-David et al., 2010), This canonicalization is used to report the results in Sec. 5 H: Z P (Y), we follow the steps in algorithm 1. Algorithm 1 Computing H -divergence measure As explained in the main paper, this divergence measure was proposed in (Ben-David et al., 2010).


An Empirical Investigation of Domain Generalization with Empirical Risk Minimizers

Neural Information Processing Systems

Minimization (ERM) can generalize under distribution shift, outperforming specialized training algorithms for domain generalization. The goal of this paper is to further understand this phenomenon.






A First Approach to Noise-Adaptive Accelerated Second-Order Methods

Neural Information Processing Systems

Over the last few decades, first-order (convex) minimization methods have gained popularity for modern machine learning and optimization problems due to their efficient per-iteration cost and global convergence properties.