Proof Theory and Decision Procedures for Deontic STIT Logics

This paper provides a set of cut-free complete sequent-style calculi for deontic STIT (‘See To It That’) logics used to formally reason about choice-making, obligations, and norms in a multi-agent setting. We leverage these calculi to write a proof-search algorithm deciding deontic, multi-agent STIT logics with (un)limited choice and introduce a loop-checking mechanism to ensure the termination of the algorithm. Despite the acknowledged potential for deontic reasoning in the context of autonomous, multi-agent scenarios, this work is the first to provide a syntactic decision procedure for this class of logics. Our proofsearch procedure is designed to provide verifiable witnesses/certificates of the (in)validity of formulae, which permits an analysis of the (non)theoremhood of formulae and act as explanations thereof. We show how the proof system and decision algorithm can be used to automate normative reasoning tasks such as duty checking (viz. determining an agent’s obligations relative to a given knowledge base), compliance checking (viz. determining if a choice, considered by an agent as potential conduct, complies with the given knowledge base), and joint fulfillment checking (viz. determining whether under a specified factual context an agent can jointly fulfill all their duties).

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Publication Details

Journal
Journal of Artificial Intelligence Research
Published
2024-12-06
DOI
https://doi.org/10.1613/jair.1.15710
Citations
1
Primary Topic
Logic, Reasoning, and Knowledge
Type
article
Field-Weighted Citation Impact
0.35

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article

Proof Theory and Decision Procedures for Deontic STIT Logics

Kees van Berkel, Tim S. Lyon
1 citations
Journal of Artificial Intelligence Research
Logic, Reasoning, and Knowledge
0.35
article

Proof Theory and Decision Procedures for Deontic STIT Logics

Kees van Berkel, Tim S. Lyon
article en
1 citations

Abstract

This paper provides a set of cut-free complete sequent-style calculi for deontic STIT (‘See To It That’) logics used to formally reason about choice-making, obligations, and norms in a multi-agent setting. We leverage these calculi to write a proof-search algorithm deciding deontic, multi-agent STIT logics with (un)limited choice and introduce a loop-checking mechanism to ensure the termination of the algorithm. Despite the acknowledged potential for deontic reasoning in the context of autonomous, multi-agent scenarios, this work is the first to provide a syntactic decision procedure for this class of logics. Our proofsearch procedure is designed to provide verifiable witnesses/certificates of the (in)validity of formulae, which permits an analysis of the (non)theoremhood of formulae and act as explanations thereof. We show how the proof system and decision algorithm can be used to automate normative reasoning tasks such as duty checking (viz. determining an agent’s obligations relative to a given knowledge base), compliance checking (viz. determining if a choice, considered by an agent as potential conduct, complies with the given knowledge base), and joint fulfillment checking (viz. determining whether under a specified factual context an agent can jointly fulfill all their duties).

Journal of Artificial Intelligence ResearchVol. 81
TU Wien (AT), Technische Universität Dresden (DE)
Austrian Science Fund
Openalex Percentile: Top 31%
Logic, Reasoning, and Knowledge
0.35
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Proof Theory and Decision Procedures for Deontic STIT Logics — Kees van Berkel, Tim S. Lyon · Journal of Artificial Intelligence Research (2024) | TGRS Research Map | TGRS