Revenue-Optimal Efficient Mechanism Design with General Type Spaces
Siddharth Prasad, Maria-Florina Balcan, Tuomas Sandholm

TL;DR
This paper develops a comprehensive framework for designing revenue-optimal, efficient mechanisms in complex multi-dimensional settings with arbitrary informational constraints, expanding the scope of prior models.
Contribution
It introduces a novel characterization of optimal mechanisms using network flow structures applicable to general type spaces, surpassing previous limitations.
Findings
Provides a new characterization of optimal mechanisms based on allocations and connected components.
Utilizes network flow structures to analyze complex informational constraints.
Significantly broadens the types of agent information that can be incorporated into mechanism design.
Abstract
We derive the revenue-optimal efficient (welfare-maximizing) mechanism in a general multidimensional mechanism design setting when type spaces -- that is, the underlying domains from which agents' values come from -- can capture arbitrarily complex informational constraints about the agents. Type spaces can encode information about agents representing, for example, machine learning predictions of agent behavior, institutional knowledge about feasible market outcomes (such as item substitutability or complementarity in auctions), and correlations between multiple agents. Prior work has only dealt with connected type spaces, which are not expressive enough to capture many natural kinds of constraints such as disjunctive constraints. We provide two characterizations of the optimal mechanism based on allocations and connected components; both make use of an underlying network flow structure…
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Taxonomy
TopicsManufacturing Process and Optimization · Advanced Numerical Analysis Techniques · Iterative Learning Control Systems
