Online Learning with Primary and Secondary Losses
October 27, 2020 ยท Declared Dead ยท ๐ Neural Information Processing Systems
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Authors
Avrim Blum, Han Shao
arXiv ID
2010.14670
Category
cs.LG: Machine Learning
Cross-listed
stat.ML
Citations
1
Venue
Neural Information Processing Systems
Last Checked
4 months ago
Abstract
We study the problem of online learning with primary and secondary losses. For example, a recruiter making decisions of which job applicants to hire might weigh false positives and false negatives equally (the primary loss) but the applicants might weigh false negatives much higher (the secondary loss). We consider the following question: Can we combine "expert advice" to achieve low regret with respect to the primary loss, while at the same time performing {\em not much worse than the worst expert} with respect to the secondary loss? Unfortunately, we show that this goal is unachievable without any bounded variance assumption on the secondary loss. More generally, we consider the goal of minimizing the regret with respect to the primary loss and bounding the secondary loss by a linear threshold. On the positive side, we show that running any switching-limited algorithm can achieve this goal if all experts satisfy the assumption that the secondary loss does not exceed the linear threshold by $o(T)$ for any time interval. If not all experts satisfy this assumption, our algorithms can achieve this goal given access to some external oracles which determine when to deactivate and reactivate experts.
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