Classical linear logic, cobordisms and categorical semantics of categorial grammars
Sergey Slavnov

TL;DR
This paper introduces a categorial grammar based on classical multiplicative linear logic, representing language constituents as multiwords within a category akin to cobordisms, offering a new algebraic and categorical perspective on language structure and semantics.
Contribution
It extends abstract categorial grammars using linear logic, introduces multiwords as concrete representations, and models them within a cobordism-like category that is symmetric monoidal closed.
Findings
Multiwords form a category similar to topological cobordisms.
The category of multiwords is symmetric monoidal closed and compact closed.
This categorical framework models linear λ-calculus and classical linear logic.
Abstract
We propose a categorial grammar based on classical multiplicative linear logic. This can be seen as an extension of abstract categorial grammars (ACG) and is at least as expressive. However, constituents of {\it linear logic grammars (LLG)} are not abstract -terms, but simply tuples of words with labeled endpoints, we call them {\it multiwords}. At least, this gives a concrete and intuitive representation of ACG. A key observation is that the class of multiwords has a fundamental algebraic structure. Namely, multiwords can be organized in a category, very similar to the category of topological cobordisms. This category is symmetric monoidal closed and compact closed and thus is a model of linear -calculus and classical linear logic. We think that this category is interesting on its own right. In particular, it might provide categorical representation for other…
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Taxonomy
TopicsLogic, programming, and type systems · Advanced Algebra and Logic · Logic, Reasoning, and Knowledge
