The Zero-field Energy: Continuous Transformation of Spatial Energy into Electricity through Free Rotation
Year: 2026
Type: preprint
Abstract: This work investigates a hypothetical mechanism by which rotational energy may be continuously replenished through an interaction between fluid-like rotating matter and the surrounding spatial medium. Within the Zero-field framework, differential rotation is proposed to organize an inward transformation and transfer of spatial energy toward a central minimum-energy region termed the Zero-field. Because the Zero-field is postulated to neither absorb additional energy nor participate in rotation, the inward spatial-energy flow is redirected around the central region, producing a rotational equilibrium termed Free Rotation. Phenomenological Free Rotation and Induced Rotation relations are first illustrated through calculations involving the Sun, HD 108874, Earth, and Jupiter, while broader celestial applications are presented separately in [#ParsaZeroField]. A separate Free Rotation formulation is then applied to representative hurricane parameters to model a weakly self-gravitating, differentially rotating fluid system. The hurricane formulation predicts outer rotation, a characteristic inner radius, and a faster inner rotational region using separately calibrated outer- and inner-rotation coefficients. The hurricane-based formulation is subsequently extrapolated to a laboratory-scale conductive liquid-metal system using Galinstan. Because Galinstan is weakly self-gravitating, its proposed Free Rotation state is represented as a flattened fluid configuration rather than as a gravitationally maintained sphere. A phenomenological geometric scaling, derived from the adopted hurricane height-to-radius relation, is used together with mass and density to predict its equilibrium outer radius, while the hurricane-derived mass-versus-inner-to-outer-radius relation is used to estimate its characteristic inner radius. These quantities are then used to predict distinct outer and inner Free Rotation rates. Based on these predictions, a conceptual experiment is proposed using a magnetically supported, vacuum-isolated, differentially rotating Galinstan medium within a radially symmetric spherical containment vessel and coupled to an external electromagnetic power-extraction system. After an initial drive establishes rotation, the external mechanical input is removed. Conventional dynamics predicts a reduction of rotational energy when electrical power is extracted, whereas the Zero-field hypothesis predicts that the rotating medium may approach and maintain its characteristic Free Rotation state if the proposed spatial-energy contribution compensates for electrical and dissipative losses. Simultaneous measurements of liquid geometry, differential rotation, electrical output, and all identifiable energy inputs and losses therefore provide a direct experimental test of the proposed mechanism.
Author: Parsa, Peyman
Language: English
Subfield: Astronomy and Astrophysics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7221458550
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