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A note on vertex algebras and Costello-Gwilliam factorization algebras

Yusuke Nishinaka

TL;DR

The paper addresses the correspondence between vertex algebras and Costello-Gwilliam factorization algebras on the complex plane, showing that the discreteness constraint on weight spaces is unnecessary for constructing vertex algebras from holomorphic prefactorization algebras valued in locally convex spaces. It then builds locally constant factorization algebras from commutative vertex algebras and proves a precise adjunction and equivalence between commutative algebras and locally constant holomorphic factorization algebras on $\mathbb{C}$, including holomorphic refinements. A general construction is provided to obtain vertex algebras from holomorphic PFAs, along with a converse direction yielding locally constant PFAs from commutative vertex algebras, and a jet-algebra compatibility result connecting to $\mathcal{J}A$ in the geometric study of vertex algebras. The work relies on developing calculus for functions with values in locally convex spaces and establishes a coherent framework linking vertex algebras, factorization algebras, and jet schemes, with implications for chiral and geometric vertex algebra theory.

Abstract

We show that the construction of vertex algebras from Costello-Gwilliam factorization algebras on $\mathbb{C}$ can be achieved without the discreteness condition on the weight spaces. Furthermore, we construct locally constant factorization algebras from commutative vertex algebras, and discuss the relationship between this construction and the jet algebras of commutative algebras.

A note on vertex algebras and Costello-Gwilliam factorization algebras

TL;DR

The paper addresses the correspondence between vertex algebras and Costello-Gwilliam factorization algebras on the complex plane, showing that the discreteness constraint on weight spaces is unnecessary for constructing vertex algebras from holomorphic prefactorization algebras valued in locally convex spaces. It then builds locally constant factorization algebras from commutative vertex algebras and proves a precise adjunction and equivalence between commutative algebras and locally constant holomorphic factorization algebras on , including holomorphic refinements. A general construction is provided to obtain vertex algebras from holomorphic PFAs, along with a converse direction yielding locally constant PFAs from commutative vertex algebras, and a jet-algebra compatibility result connecting to in the geometric study of vertex algebras. The work relies on developing calculus for functions with values in locally convex spaces and establishes a coherent framework linking vertex algebras, factorization algebras, and jet schemes, with implications for chiral and geometric vertex algebra theory.

Abstract

We show that the construction of vertex algebras from Costello-Gwilliam factorization algebras on can be achieved without the discreteness condition on the weight spaces. Furthermore, we construct locally constant factorization algebras from commutative vertex algebras, and discuss the relationship between this construction and the jet algebras of commutative algebras.
Paper Structure (22 sections, 76 theorems, 320 equations)

This paper contains 22 sections, 76 theorems, 320 equations.

Key Result

Theorem 1

If $S^1\ltimes \mathbb{C}$-equivariant prefactorization algebra $\mathcal{F}$ on the complex number plane $\mathbb{C}$ with values in $\mathsf{LCS}_{\mathbb{C}}$ is holomorphic (dfn:holoPFA), then the linear space has the structure of a $\mathbb{Z}$-graded vertex algebra induced by the prefactorization algebra structure and the $S^1\ltimes \mathbb{C}$-equivariant structure of $\mathcal{F}$. Here

Theorems & Definitions (196)

  • Theorem 1: \ref{['thm:PFAVA']}, \ref{['prp:LPFAcomVA']}
  • Theorem 2: \ref{['prp:constLHFA']}, \ref{['prp:VbfVisom']}
  • Theorem 3: \ref{['prp:bfFjet']}
  • Definition 1.1.1
  • Definition 1.1.2
  • Definition 1.1.3
  • Definition 1.2.1: CG1
  • Remark 1.2.2
  • Definition 1.2.3: CG1
  • Remark 1.2.4
  • ...and 186 more