Co-Scaling and Alignment of Electric and Magnetic Towers
Matthew Reece, Tom Rudelius, Christopher Tudball

TL;DR
This paper explores the properties of towers of charged states in quantum gravity, focusing on co-scaling and alignment, and proposes a universal conjecture linking these features to the structure of the charge spectrum in string theory.
Contribution
It introduces the concepts of co-scaling and alignment of charged towers, and conjectures their universal presence in quantum gravity spectra based on string theory examples.
Findings
Towers of magnetic and electric states exhibit co-scaling and alignment in Calabi-Yau compactifications.
A mathematical characterization of the magnetic infinity cone is proposed.
The conjecture links divergent charge-to-mass ratios to co-scaling and alignment in quantum gravity.
Abstract
Towers of electrically and magnetically charged states in quantum gravity often exhibit two important properties. First, the ratio of the mass (or tension) of electrically charged states to magnetically charged states is of order , which we refer to as "co-scaling." Second, in theories of multiple gauge fields, the towers of states that exhibit co-scaling have charges that point in approximately the same direction in charge space as measured by the gauge kinetic matrix, which we refer to as "alignment." After motivating these ideas with some heuristic arguments, we examine the spectrum of BPS states in the 5d supergravity landscape arising from M-theory on a Calabi-Yau threefold. In this setting, every tower of magnetically charged strings is paired with a corresponding tower of electrically charged particles that exhibits co-scaling and rapid alignment. In particular, this…
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Taxonomy
TopicsBlack Holes and Theoretical Physics · Noncommutative and Quantum Gravity Theories · Quantum and Classical Electrodynamics
