Constraining the Existence of Magnetic Monopoles by Dirac-Dual Electric Charge Renormalization Effect Under the Planck Scale Limit
Yanbin Deng, Changyu Huang, Yong-Chang Huang

TL;DR
This paper explores how the Dirac charge quantization and Planck scale limits constrain the existence and properties of magnetic monopoles, suggesting they could emerge at lower energies with manageable magnetic charges.
Contribution
It introduces a framework linking electric-magnetic duality, Planck scale limits, and charge renormalization to constrain magnetic monopole properties and their potential emergence at accessible energy scales.
Findings
Magnetic charge values are constrained below the Planck limit by electric coupling growth.
Magnetic monopoles could emerge at lower energies with manageable charges.
Electric and magnetic charges are inversely related through duality and Planck scale considerations.
Abstract
It was suggested by dimensional analysis that there exists a limit called the Planck energy scale coming close to which the gravitational effects of physical processes would inflate and struggle for equal rights so as to spoil the validity of pure non-gravitational physical theories that governed well below the Planck energy. Near the Planck scale, the Planck charges, Planck currents, or Planck parameters can be defined and assigned to physical quantities such as the single particle electric charge and magnetic charge as the ceiling value obeyed by the low energy ordinary physics. The Dirac electric-magnetic charge quantization relation as one form of electric-magnetic duality dictates that, the present low value electric charge corresponds to a huge magnetic charge value already passed the Planck limit so as to render theories of magnetic monopoles into the strong coupling regime, and…
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