Dual Magnetic and Electric Dipole Symmetry: Pseudo Angular Momentum in Parity Space and the Electric Landé -Factor
arXiv:2511.07692 · doi:10.1103/xhk9-qt61
Abstract
Electric dipole moments (EDMs) are sensitive probes of fundamental symmetries and central to searches for physics beyond the Standard Model. We present a symmetry-based, Zeeman-analogue operator framework that places magnetic and electric dipole physics on parallel footing under electromagnetic duality, and introduce a polar-sector pseudo-angular-momentum degree of freedom in parity space together with an associated electric Landé factor that organizes induced orbital dipoles. Following Ohanian's effective-current formulation of the Zeeman effect, we construct its electric dual: the wavefunction's microscopic polarization admits an equivalent effective magnetic probability-current representation, providing a field-equivalence description of parity-mixed charge displacement. In this notation the total EDM expectation takes the unified form , with , where captures Stark-induced pseudo-angular momentum and encodes any intrinsic (spin-aligned) EDM from symmetry-violating interactions. We define a natural electric dipole unit (the ``Bohr EDM'') as ( the Bohr radius and the Bohr magneton). As a canonical analytic benchmark, we show in the hydrogenic problem that a static electric field couples within a fixed manifold through the scaled Runge--Lenz structure, yielding a compact Landé-like description and reproducing the Stark doublet (e.g.\ for the -- mixing).
arXiv commentAccepted version of the paper
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