Cosmological constant as quantum error correction from generalised gauge invariance in double field theory
Andrei T. Patrascu

TL;DR
This paper explores how double field theory's quantum error correction mechanisms relate to gauge invariance and lead to the emergence of a positive cosmological constant, extending the holographic principle to de Sitter spacetimes.
Contribution
It demonstrates the connection between double field theory quantum error correction, boundary gauge invariance, and the emergence of a positive cosmological constant in a holographic framework.
Findings
Residual effects of stringy winding modes due to gauge invariance
Emergence of positive cosmological constant from quantum error correction
Extension of spacetime emergence to de Sitter geometries
Abstract
The holographic principle and its realisation as the AdS/CFT correspondence leads to the existence of the so called precursor operators. These are boundary operators that carry non-local information regarding events occurring deep inside the bulk and which cannot be causally connected to the boundary. Such non-local operators can distinguish non-vacuum-like excitations within the bulk that cannot be observed by any local gauge invariant operators in the boundary. The boundary precursors are expected to become increasingly non-local the further the bulk process is from the boundary. Such phenomena are expected to be related to the extended nature of the strings. Standard gauge invariance in the boundary theory equates to quantum error correction which furthermore establishes localisation of bulk information. I show that when double field theory quantum error correction prescriptions are…
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Taxonomy
TopicsBlack Holes and Theoretical Physics · Cosmology and Gravitation Theories · Noncommutative and Quantum Gravity Theories
