Topological theories and automata
Mee Seong Im, Mikhail Khovanov

TL;DR
This paper explores the deep connection between topological theories for one-manifolds with defects and automata, revealing how Boolean semiring-valued theories relate to finite automata, regular languages, and their algebraic structures.
Contribution
It introduces a topological framework for automata and regular languages using Boolean semiring-valued theories, unifying automata theory with topological and categorical concepts.
Findings
Constructs a monoidal category of Boolean semilinear combinations of cobordisms with defects.
Shows the relation between automata, regular languages, and topological theories.
Identifies conditions under which the theory forms a Boolean TQFT.
Abstract
The paper explains the connection between topological theories for one-manifolds with defects and values in the Boolean semiring and automata and their generalizations. Finite state automata are closely related to regular languages. To each pair of a regular language and a circular regular language we associate a topological theory for one-dimensional manifolds with zero-dimensional defects labelled by letters of the language. This theory takes values in the Boolean semiring. Universal construction of topological theories gives rise in this case to a monoidal category of Boolean semilinear combinations of one-dimensional cobordisms with defects modulo skein relations. The latter category can be interpreted as a semilinear rigid monoidal closure of standard structures associated to a regular language, including minimal deterministic and nondeterministic finite state automata for the…
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Taxonomy
Topicssemigroups and automata theory · Logic, programming, and type systems · Advanced Algebra and Logic
