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Distributed Bandit Learning: Near-Optimal Regret with Efficient Communication

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arxiv 1904.06309 v2 pith:OMYSCLOC submitted 2019-04-12 cs.LG stat.ML

classification cs.LGstat.ML
keywords communicationregretcostdistributednear-optimalbanditslogarithmiconly
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abstract

We study the problem of regret minimization for distributed bandits learning, in which $M$ agents work collaboratively to minimize their total regret under the coordination of a central server. Our goal is to design communication protocols with near-optimal regret and little communication cost, which is measured by the total amount of transmitted data. For distributed multi-armed bandits, we propose a protocol with near-optimal regret and only $O(M\log(MK))$ communication cost, where $K$ is the number of arms. The communication cost is independent of the time horizon $T$, has only logarithmic dependence on the number of arms, and matches the lower bound except for a logarithmic factor. For distributed $d$-dimensional linear bandits, we propose a protocol that achieves near-optimal regret and has communication cost of order $\tilde{O}(Md)$, which has only logarithmic dependence on $T$.

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    An optimism-based algorithm with nonparametric instrumental variables learns an epsilon-optimal policy under information asymmetry and knowledge transfer with O~(1/epsilon^2) sample complexity.

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