Perturbative Anti-Brane Potentials in Heterotic M-theory
James Gray, Andre Lukas, Burt Ovrut

TL;DR
This paper derives the effective four-dimensional theory for heterotic M-theory with branes and anti-branes, revealing how forces and corrections evolve at different orders and implications for moduli stabilization.
Contribution
It provides the first-order and second-order perturbative analysis of anti-brane potentials, including back-reaction effects and non-supersymmetric corrections in heterotic M-theory.
Findings
At first order, forces on branes and anti-branes vanish, matching the probe approximation.
At second order, non-zero, weak forces appear, supporting moduli stabilization.
New corrections to gauge kinetic functions impact moduli stabilization discussions.
Abstract
We derive the perturbative four-dimensional effective theory describing heterotic M-theory with branes and anti-branes in the bulk space. The back-reaction of both the branes and anti-branes is explicitly included. To first order in the heterotic strong-coupling expansion, we find that the forces on branes and anti-branes vanish and that the KKLT procedure of simply adding to the supersymmetric theory the probe approximation to the energy density of the anti-brane reproduces the correct potential. However, there are additional non-supersymmetric corrections to the gauge-kinetic functions and matter terms. The new correction to the gauge kinetic functions is important in a discussion of moduli stabilization. At second order in the strong-coupling expansion, we find that the forces on the branes and anti-branes become non-vanishing. These forces are not precisely in the naive form that…
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Taxonomy
TopicsBlack Holes and Theoretical Physics · Cosmology and Gravitation Theories · Quantum Chromodynamics and Particle Interactions
