
handle: 11585/521811
In this article we try to formalize the question "What can be computed with access to randomness?" We propose the very fine-grained Weihrauch lattice as an approach to differentiate between different types of computation with access to randomness. In particular, we show that a natural concept of Las Vegas computability on infinite objects is more powerful than mere oracle access to a Martin-Löf random object. As a concrete problem that is Las Vegas computable but not computable with access to a Martin-Löf random oracle we study the problem of finding Nash equilibria.
algorithmic randomness, Weihrauch degrees, Weihrauch degrees, weak weak Konig’s lemma, Las Vegas computability, algorithmic randomness, Nash equilibria, Las Vegas computability, weak weak König's lemma, Nash equilibria, 004
algorithmic randomness, Weihrauch degrees, Weihrauch degrees, weak weak Konig’s lemma, Las Vegas computability, algorithmic randomness, Nash equilibria, Las Vegas computability, weak weak König's lemma, Nash equilibria, 004
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