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arXiv · 2601.17297

Non-Abelian Recoil Geometry and Infrared Holonomies in Heavy-Quark Transitions

Abstract

We propose a geometric formulation of heavy-quark transitions in which infrared-dressed states are adiabatically transported in the multidimensional recoil space and acquire Berry holonomies. Within this framework, single-step decays are governed by an abelian geometric phase and reproduce the standard Isgur-Wise behaviour, while sequential decays probe genuinely non-Abelian holonomies associated with a two-dimensional recoil space. The resulting geometric structure correlates different decay channels and provides a unified interpretation of mixing effects and quasi-degenerate states in heavy-quark phenomenology. This approach suggests that several long-standing puzzles arise as geometric consequences of infrared dressing rather than as accidental features of the microscopic dynamics.

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Jorge Gamboa, Natalia A. Tapia Arellano. 2026-01-24. Non-Abelian Recoil Geometry and Infrared Holonomies in Heavy-Quark Transitions. https://arxiv.org/abs/2601.17297

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