Quantum Interest in (3+1) dimensional Minkowski space
Gabriel Abreu (Victoria University of Wellington), Matt Visser, (Victoria University of Wellington)

TL;DR
This paper proves a version of the Quantum Interest Conjecture in (3+1) dimensional Minkowski space, showing how quantum field theory constrains exotic spacetime phenomena through energy density restrictions.
Contribution
It provides a simple proof of a version of the Quantum Interest Conjecture in (3+1)D Minkowski space using quantum mechanical pseudo-Hamiltonian techniques.
Findings
Quantum inequalities restrict energy density distributions.
The Quantum Interest Conjecture is validated in (3+1)D Minkowski space.
Constraints on exotic phenomena like warp drives are supported.
Abstract
The so-called "Quantum Inequalities", and the "Quantum Interest Conjecture", use quantum field theory to impose significant restrictions on the temporal distribution of the energy density measured by a time-like observer, potentially preventing the existence of exotic phenomena such as "Alcubierre warp-drives" or "traversable wormholes". Both the quantum inequalities and the quantum interest conjecture can be reduced to statements concerning the existence or non-existence of bound states for a certain one-dimensional quantum mechanical pseudo-Hamiltonian. Using this approach, we shall provide a simple proof of one version of the Quantum Interest Conjecture in (3+1) dimensional Minkowski space.
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