A computable generalization bound for gradient flow via the loss path kernel is proposed, but the proof's key Rademacher complexity lemma is false due to an underestimated chaos term.
On the Rademacher Complexity of Linear Hypothesis Sets
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abstract
Linear predictors form a rich class of hypotheses used in a variety of learning algorithms. We present a tight analysis of the empirical Rademacher complexity of the family of linear hypothesis classes with weight vectors bounded in $\ell_p$-norm for any $p \geq 1$. This provides a tight analysis of generalization using these hypothesis sets and helps derive sharp data-dependent learning guarantees. We give both upper and lower bounds on the Rademacher complexity of these families and show that our bounds improve upon or match existing bounds, which are known only for $1 \leq p \leq 2$.
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Generalization Bound of Gradient Flow through Training Trajectory and Data-dependent Kernel
A computable generalization bound for gradient flow via the loss path kernel is proposed, but the proof's key Rademacher complexity lemma is false due to an underestimated chaos term.