About Me

I am an independent theoretical physics researcher with a focused interest in the intersection of classical electromagnetism, general relativity, and quantum field theory — particularly in regimes where these frameworks are pushed toward their boundaries.

My primary research project, which I have titled the Börekci Energy Field framework, investigates the spacetime and quantum vacuum behavior inside a stationary enclosed volume surrounded by a high-velocity electromagnetic energy shell. The system under theoretical analysis combines rotating superconducting electromagnets, relativistic electron beams, and positron confinement to create conditions relevant to Lense-Thirring frame dragging, Euler-Heisenberg vacuum nonlinearity, and macroscopic Casimir boundary effects.

The central questions I am pursuing are: Can a relativistic electromagnetic boundary induce a measurable decoupling of quantum field modes inside an enclosed volume from those of the external spacetime? And are existing formulations of general relativity and quantum electrodynamics fully adequate to describe such stationary-interior, moving-boundary configurations — or do they leave room for effects not yet captured by the standard stress-energy tensor formalism?

I approach these questions with an awareness of their speculative character, grounding each step in published literature — including the Tajmar gravitomagnetic experiments, the Gravity Probe B results, ELI/HIBEF vacuum birefringence work, and the ALPHA antihydrogen gravity measurements at CERN — while remaining honest about where current theory gives definitive answers and where genuine open questions remain.

I am here to engage with researchers working in quantum simulation, strong-field QED, gravitomagnetism, and experimental general relativity, and to explore whether the conceptual framework I am developing has testable predictions worth pursuing.