Towards a quantum theory of de Sitter space
T. Banks, B. Fiol, A. Morisse

TL;DR
This paper discusses progress in developing a quantum theory of four-dimensional de Sitter space, proposing a model with fermionic oscillators to represent particle states and black holes, based on a conjecture about Grassmann algebra.
Contribution
It introduces a novel approach using fermionic oscillators to model excitations in a quantum de Sitter space, including particles and black holes, based on a new conjecture.
Findings
Particle states can be modeled as excitations of fermionic oscillators.
Black holes in de Sitter space can be represented within this fermionic framework.
The approach relies on a conjecture about Grassmann algebra that remains unproven.
Abstract
We describe progress towards constructing a quantum theory of de Sitter space in four dimensions. In particular we indicate how both particle states and Schwarzschild de Sitter black holes can arise as excitations in a theory of a finite number of fermionic oscillators. The results about particle states depend on a conjecture about algebras of Grassmann variables, which we state, but do not prove.
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