This paper presents a phenomenological and experimentally testable framework for investigating whether asymmetric electromagnetic resonators could exhibit small residual forces beyond those predicted by conventional electrodynamics. Rather than claiming new physics, the work introduces an effective susceptibility parameter and an asymmetry factor to model how nonequilibrium field distributions might produce measurable stress imbalances. The analysis derives quantitative scaling relations and predicts forces in the nanonewton range (1–100 nN, with a central estimate of 5–20 nN) under realistic laboratory conditions . These predictions provide a clear experimental target and enable falsification: null results at or below this sensitivity directly constrain the proposed model. The paper outlines a feasible experimental approach using high-Q resonators and precision force measurement techniques, while carefully addressing known sources of systematic error. Overall, the work reframes speculative vacuum-interaction ideas into a quantitative, falsifiable, and experimentally accessible research program.
Erick Sangalang (Thu,) studied this question.