Towards Uniform Certification in QBF

Fuente: arXiv
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Autores principales: Chew, Leroy, Slivovsky, Friedrich
Formato: Preprint
Publicado: 2022
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author Chew, Leroy
Slivovsky, Friedrich
author_facet Chew, Leroy
Slivovsky, Friedrich
contents We pioneer a new technique that allows us to prove a multitude of previously open simulations in QBF proof complexity. In particular, we show that extended QBF Frege p-simulates clausal proof systems such as IR-Calculus, IRM-Calculus, Long-Distance Q-Resolution, and Merge Resolution. These results are obtained by taking a technique of Beyersdorff et al. (JACM 2020) that turns strategy extraction into simulation and combining it with new local strategy extraction arguments. This approach leads to simulations that are carried out mainly in propositional logic, with minimal use of the QBF rules. Our proofs therefore provide a new, largely propositional interpretation of the simulated systems. We argue that these results strengthen the case for uniform certification in QBF solving, since many QBF proof systems now fall into place underneath extended QBF Frege.
format Preprint
id arxiv_https___arxiv_org_abs_2210_07085
institution arXiv
publishDate 2022
record_format arxiv
spellingShingle Towards Uniform Certification in QBF
Chew, Leroy
Slivovsky, Friedrich
Logic in Computer Science
Computational Complexity
We pioneer a new technique that allows us to prove a multitude of previously open simulations in QBF proof complexity. In particular, we show that extended QBF Frege p-simulates clausal proof systems such as IR-Calculus, IRM-Calculus, Long-Distance Q-Resolution, and Merge Resolution. These results are obtained by taking a technique of Beyersdorff et al. (JACM 2020) that turns strategy extraction into simulation and combining it with new local strategy extraction arguments. This approach leads to simulations that are carried out mainly in propositional logic, with minimal use of the QBF rules. Our proofs therefore provide a new, largely propositional interpretation of the simulated systems. We argue that these results strengthen the case for uniform certification in QBF solving, since many QBF proof systems now fall into place underneath extended QBF Frege.
title Towards Uniform Certification in QBF
topic Logic in Computer Science
Computational Complexity
url https://arxiv.org/abs/2210.07085