Non-perturbative Treatments of the Bosonic String and the Axion with Cosmological Implications
Dylan Tanner

TL;DR
This paper introduces a novel exact functional quantization method applied to the axion and bosonic string actions, revealing insights into axion potential development and non-perturbative string conformal invariance with potential cosmological implications.
Contribution
It presents a new non-perturbative functional quantization approach applied to axion and string actions, demonstrating conformal invariance and early-stage axion potential development.
Findings
Axion effective potential is flattened by spinodal instability effects.
The method achieves non-perturbative conformal invariance in string beta functions.
Potential cosmological implications include optical anisotropy hints.
Abstract
This paper is about the use of a novel, exact functional quantization method as applied to two commonly studied actions in theoretical physics. The functional method in question has its roots in the exact renormalisation group flow techniques pioneered by Wilson, but with the flow parameter not limited to the familiar momentum cutoff. Finding a configuration satisfying an expression for the exact effective action which does not vary with this parameter provides the basis for finding solutions to the physical actions we study. Firstly, the method is applied to an expression for the bare action of the pseudo-scalar axion used to explain the strong CP problem in QCD. When quantized, we find that the effective potential of the axion, when interactions are not considered, is necessarily flattened by spinodal instability effects. We regard this flattening asrepresenting the very early stage…
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Taxonomy
TopicsDark Matter and Cosmic Phenomena · Cosmology and Gravitation Theories · Particle physics theoretical and experimental studies
