Fundamentals of Compositional Rewriting Theory
Nicolas Behr (Universit\'e Paris Cit\'e, CNRS, IRIF), Russ Harmer, (Univ. Lyon, EnsL, UCBL, CNRS, LIP, France), Jean Krivine (Universit\'e Paris, Cit\'e, CNRS, IRIF)

TL;DR
This paper develops a foundational, highly generic categorical rewriting theory that simplifies and modularizes proofs of key theorems like concurrency and associativity, enhancing understanding and applicability.
Contribution
It introduces a new compositional categorical rewriting framework based on fibration-like properties, improving proof modularity and clarity, and discusses conditions for graph transformation semantics.
Findings
Concise proof of the concurrency theorem
Enhanced readability of associativity proof
Conditions for compositional graph transformation semantics
Abstract
A foundational theory of compositional categorical rewriting theory is presented, based on a collection of fibration-like properties that collectively induce and intrinsically structure the large collection of lemmata used in the proofs of theorems such as concurrency and associativity. The resulting highly generic proofs of these theorems are given. It is noteworthy that the proof of the concurrency theorem takes only a few lines and, while that of associativity remains somewhat longer, it would be unreadably long if written directly in terms of the basic lemmata. In essence, our framework improves the readability and ease of comprehension of these proofs by exposing latent modularity. A curated list of known instances of our framework is used to conclude the paper with a detailed discussion of the conditions under which the Double Pushout and Sesqui-Pushout semantics of graph…
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Taxonomy
TopicsSemantic Web and Ontologies · Logic, programming, and type systems · Model-Driven Software Engineering Techniques
