\u3cp\u3eWe focus on the effect of the exploration/exploitation tradeoff strategies on the algorithmic design off multi-armed bandits (MAB) with reward vectors. Pareto dominance relation assesses the quality of reward vectors in infinite horizon MABs, like the UCB1 and UCB2 algorithms. In single objective MABs, there is a trade-off between the exploration of the suboptimal arms, and exploitation of a single optimal arm. Pareto dominance based MABs fairly exploit all Pareto optimal arms, and explore suboptimal arms. We study the exploration vs exploitation trade-off for two UCB like algorithms for reward vectors. We analyse the properties of the proposed MAB algorithms in terms of upper regret bounds and we experimentally compare their explo...
While in general trading off exploration and exploitation in reinforcement learning is hard, under s...
In a multi-armed bandit (MAB) problem a gambler needs to choose at each round of play one of K arms,...
International audienceAlgorithms based on upper confidence bounds for balancing exploration and expl...
We study incentivized exploration for the multi-armed bandit (MAB) problem where the players receive...
Multi-armed bandit, a popular framework for sequential decision-making problems, has recently gained...
We propose an algorithmic framework for multi-objective multi-armed bandits with multiple rewards. D...
Abstract—In the Multi-Armed Bandit (MAB) problem, there is a given set of arms with unknown reward m...
We introduce the budget–limited multi–armed bandit (MAB), which captures situations whe...
Many real-world stochastic environments are inherently multi-objective environments with conflicting...
We introduce the budget-limited multi-armed bandit (MAB), which captures situations where a learners...
Many real-world stochastic environments are inherently multi-objective environments with conflicting...
International audienceWe consider the problem of finding the best arm in a stochastic multi-armed ba...
We study the Pareto frontier of two archetypal objectives in multi-armed bandits, namely, regret min...
In budget–limited multi–armed bandit (MAB) problems, the learner’s actions are costly and constraine...
In budget-limited multi-armed bandit (MAB) problems, the learners actions are costly and constrained...
While in general trading off exploration and exploitation in reinforcement learning is hard, under s...
In a multi-armed bandit (MAB) problem a gambler needs to choose at each round of play one of K arms,...
International audienceAlgorithms based on upper confidence bounds for balancing exploration and expl...
We study incentivized exploration for the multi-armed bandit (MAB) problem where the players receive...
Multi-armed bandit, a popular framework for sequential decision-making problems, has recently gained...
We propose an algorithmic framework for multi-objective multi-armed bandits with multiple rewards. D...
Abstract—In the Multi-Armed Bandit (MAB) problem, there is a given set of arms with unknown reward m...
We introduce the budget–limited multi–armed bandit (MAB), which captures situations whe...
Many real-world stochastic environments are inherently multi-objective environments with conflicting...
We introduce the budget-limited multi-armed bandit (MAB), which captures situations where a learners...
Many real-world stochastic environments are inherently multi-objective environments with conflicting...
International audienceWe consider the problem of finding the best arm in a stochastic multi-armed ba...
We study the Pareto frontier of two archetypal objectives in multi-armed bandits, namely, regret min...
In budget–limited multi–armed bandit (MAB) problems, the learner’s actions are costly and constraine...
In budget-limited multi-armed bandit (MAB) problems, the learners actions are costly and constrained...
While in general trading off exploration and exploitation in reinforcement learning is hard, under s...
In a multi-armed bandit (MAB) problem a gambler needs to choose at each round of play one of K arms,...
International audienceAlgorithms based on upper confidence bounds for balancing exploration and expl...