Near-Optimal and Robust Mechanism Design for Covering Problems with Correlated Players
Hadi Minooei, Chaitanya Swamy
Abstract
Hadi Minooei, Chaitanya Swamy
Abstract
We consider the problem of designing incentive-compatible, ex-post individually rational (IR) mechanisms for covering problems in the Bayesian setting, where players' types are drawn from an underlying distribution and may be correlated, and the goal is to minimize the expected total payment made by the mechanism. We formulate a notion of incentive compatibility (IC) that we call support-based IC that is substantially more robust than Bayesian IC, and develop black-box reductions from support-based-IC mechanism design to algorithm design. For single-dimensional settings, this black-box reduction applies even when we only have an LP-relative approximation algorithm for the algorithmic problem. Thus, we obtain near-optimal mechanisms for various covering settings, including single-dimensional covering problems, multi-item procurement auctions, and multidimensional facility location.
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We consider the problem of designing incentive-compatible, ex-post individually rational (IR) mechanisms for covering problems in the Bayesian setting, where players' types are drawn from an underlying distribution and may be correlated, and the goal is to minimize the expected total payment made by the mechanism. We formulate a notion of incentive compatibility (IC) that we call support-based IC that is substantially more robust than Bayesian IC, and develop black-box reductions from support-based-IC mechanism design to algorithm design. For single-dimensional settings, this black-box reduction applies even when we only have an LP-relative approximation algorithm for the algorithmic problem. Thus, we obtain near-optimal mechanisms for various covering settings, including single-dimensional covering problems, multi-item procurement auctions, and multidimensional facility location.
Key concepts: Incentive compatibility, Mechanism design, Mathematical optimization, Computer science, Bayesian probability, Common value auction, Incentive, Payment