New Energy Field (BEF): A Hypothesis on Spacetime Curvature via Quantum Vacuum Isolation by a Near-Light-Speed Rotating Electromagnetic Shell

New hypothesis proposes that a near-light-speed (β ≈ 0.9998c) rotating electromagnetic (EM) shell can sufficiently isolate the interior quantum vacuum from the external environment, thereby generating measurable spacetime curvature at energy levels far below the Planck threshold.

Published in Physics

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This study presents the extended experimental setup and updated theoretical framework of the Börekci Energy Field (BEF) hypothesis. A 25-million-volt electron arc accelerates electrons to γ≈50 (β≈0.9998c). W-Re electrodes rotating at 3500 RPM with superimposed 100 Hz vibration sweep this arc around the inner capsule, creating a rotating relativistic electromagnetic energy shell. The updated Börekci Metric predicts that with complete quantum vacuum isolation (Ψ_iso→1), time inside the inner capsule flows 50 times more slowly relative to an external observer (γ_BEF=50), corresponding to 24 hours outside equalling 28.8 minutes inside. The experimental system is located underground inside a mountain for radiation shielding and geological stability. The setup comprises a rotating outer frame of eight 5-Tesla superconducting electromagnets, a dual-capsule system, a 25 MV electron arc, simultaneous laser current, and lead vapour. The three conditions for temporary large spacetime curvatures — high energy density, small volume, and rapid variation — are discussed; a wave-switching protocol (5 min full / 5 min at 10% — a 90% drop) is designed to satisfy the third condition. The concept of quantum vacuum isolation (Ψ_iso) and the question of whether Planck energy is a prerequisite for macroscopic spacetime curvature are addressed with reference to Casimir, BEC analogue gravity, and gravitational wave experiments. Antimatter (positron) production, energy cost, thermal and radiation resistance, and profit-loss analysis are also presented. It is emphasised that existing physics formulae are insufficient to compute the spacetime curvature in this configuration and that the Börekci Metric is proposed to fill this gap. A miniaturised BEC analogue experiment is proposed as a low-cost preliminary test.

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