Journal article 1288 views
Parity Games and Propositional Proofs
ACM Transactions on Computational Logic, Volume: 15, Issue: 2, Pages: 17:1 - 17:30
Swansea University Author: Arnold Beckmann
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DOI (Published version): 10.1145/2579822
Abstract
A propositional proof system is weakly automatizable if there is a polynomial time algorithm which separates satisfiable formulas from formulas which have a short refutation in the system, with respect to a given length bound. We show that if the resolution proof system is weakly automatizable, then...
Published in: | ACM Transactions on Computational Logic |
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2014
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URI: | https://cronfa.swan.ac.uk/Record/cronfa17523 |
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2014-03-25T02:30:08Z |
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2023-01-31T03:22:53Z |
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2023-01-30T14:41:36.5078724 v2 17523 2014-03-24 Parity Games and Propositional Proofs 1439ebd690110a50a797b7ec78cca600 0000-0001-7958-5790 Arnold Beckmann Arnold Beckmann true false 2014-03-24 MACS A propositional proof system is weakly automatizable if there is a polynomial time algorithm which separates satisfiable formulas from formulas which have a short refutation in the system, with respect to a given length bound. We show that if the resolution proof system is weakly automatizable, then parity games can be decided in polynomial time. We give simple proofs that the same holds for depth-1 propositional calculus (where resolution has depth 0) with respect to mean payoff and simple stochastic games. We define a new type of combinatorial game and prove that resolution is weakly automatizable if and only if one can separate, by a set decidable in polynomial time, the games in which the first player has a positional winning strategy from the games in which the second player has a positional winning strategy.Our main technique is to show that a suitable weak bounded arithmetic theory proves that both players in a game cannot simultaneously have a winning strategy, and then to translate this proof into propositional form. Journal Article ACM Transactions on Computational Logic 15 2 17:1 17:30 Bounded arithmetic, mean payoff games, parity games, resolution, simple stochastic sames, weak automatizability 30 4 2014 2014-04-30 10.1145/2579822 COLLEGE NANME Mathematics and Computer Science School COLLEGE CODE MACS Swansea University 2023-01-30T14:41:36.5078724 2014-03-24T08:39:00.7134692 Faculty of Science and Engineering School of Mathematics and Computer Science - Computer Science Arnold Beckmann 0000-0001-7958-5790 1 Pavel Pudlák 2 Neil Thapen 3 |
title |
Parity Games and Propositional Proofs |
spellingShingle |
Parity Games and Propositional Proofs Arnold Beckmann |
title_short |
Parity Games and Propositional Proofs |
title_full |
Parity Games and Propositional Proofs |
title_fullStr |
Parity Games and Propositional Proofs |
title_full_unstemmed |
Parity Games and Propositional Proofs |
title_sort |
Parity Games and Propositional Proofs |
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1439ebd690110a50a797b7ec78cca600 |
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1439ebd690110a50a797b7ec78cca600_***_Arnold Beckmann |
author |
Arnold Beckmann |
author2 |
Arnold Beckmann Pavel Pudlák Neil Thapen |
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Journal article |
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ACM Transactions on Computational Logic |
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17:1 |
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2014 |
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Swansea University |
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10.1145/2579822 |
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Faculty of Science and Engineering |
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Faculty of Science and Engineering |
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School of Mathematics and Computer Science - Computer Science{{{_:::_}}}Faculty of Science and Engineering{{{_:::_}}}School of Mathematics and Computer Science - Computer Science |
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A propositional proof system is weakly automatizable if there is a polynomial time algorithm which separates satisfiable formulas from formulas which have a short refutation in the system, with respect to a given length bound. We show that if the resolution proof system is weakly automatizable, then parity games can be decided in polynomial time. We give simple proofs that the same holds for depth-1 propositional calculus (where resolution has depth 0) with respect to mean payoff and simple stochastic games. We define a new type of combinatorial game and prove that resolution is weakly automatizable if and only if one can separate, by a set decidable in polynomial time, the games in which the first player has a positional winning strategy from the games in which the second player has a positional winning strategy.Our main technique is to show that a suitable weak bounded arithmetic theory proves that both players in a game cannot simultaneously have a winning strategy, and then to translate this proof into propositional form. |
published_date |
2014-04-30T06:33:10Z |
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1821386149328846848 |
score |
11.070971 |