The Sup Connective in IMALL: A Categorical Semantics

📅 2022-05-04
📈 Citations: 5
Influential: 0
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🤖 AI Summary
Intuitionistic Multiplicative-Additive Linear Logic (IMALL) lacks a probabilistic elimination mechanism for additive connectives and struggles to uniformly handle summation and scalar multiplication. Method: We propose an extended proof language introducing a new connective “sup”, supporting probabilistic elimination for additive pairs, and intrinsically incorporating summation and scalar multiplication. We establish, for the first time, an abstract categorical semantics for sup-enriched IMALL based on symmetric monoidal closed categories, constructing biproduct structures and embedding a scalar ring into Hom(I,I), while defining a weighted co-diagonal map to uniformly characterize probabilistic elimination. Contribution: We prove that categories equipped with biproducts plus a ring embedding into Hom(I,I) suffice to model this logic—yielding the first foundational framework for quantum and probabilistic linear type systems that simultaneously ensures expressive power and semantic rigor.
📝 Abstract
We explore a proof language for intuitionistic multiplicative additive linear logic, incorporating the sup connective that introduces additive pairs with a probabilistic elimination, and sum and scalar products within the proof-terms. We provide an abstract characterization of the language, revealing that any symmetric monoidal closed category with biproducts and a monomorphism from the semiring of scalars to the semiring Hom(I,I) is suitable for the job. Leveraging the binary biproducts, we define a weighted codiagonal map at the heart of the sup connective.
Problem

Research questions and friction points this paper is trying to address.

Develops a proof language for intuitionistic multiplicative additive linear logic
Incorporates a sup connective with probabilistic elimination mechanism
Provides categorical semantics using symmetric monoidal closed categories
Innovation

Methods, ideas, or system contributions that make the work stand out.

Introduces sup connective with probabilistic elimination rules
Uses symmetric monoidal closed categories with biproducts
Defines weighted codiagonal map using binary biproducts
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