MABWA Effect Thesis Paper

The MABWA Effect: Foundational Principle for Plasma-Based Field Systems

The MABWA Effect describes a self-stabilizing magnetic levitation phenomenon in which a spinning permanent-magnet rotor exhibits increasing positional stability as rotational velocity rises, a behavior mechanistically distinct from the previously documented Ucar Effect. Bench validation on the Magnetic Wave System (MWS) prototype — a 175g NdFeB rotor with a moment of inertia of 4.07×10⁻⁵ kg·m², driven through a 256-turn, 30 AWG coil at ~4Ω internal resistance and an 18W levitation circuit — confirmed a torque efficiency near 30% and a generator conversion efficiency of 3.5% at 2,500 RPM under controlled deceleration testing.

Critically, the underlying mechanism is not restricted to solid permanent-magnet rotors: the same stabilization dynamic generalizes to any rotating magnetic field source, including magnetized rotating plasma. This positions the MABWA Effect not as a single-device phenomenon but as a governing principle — one that predicts analogous stabilization and energy-transfer behavior in plasma-based field systems operating at substantially higher field strengths and rotational energies than a solid rotor permits. It is this generalization that establishes the MABWA Effect as the theoretical foundation for the twin-charged plasma engine concept: a system intended to exploit the same self-stabilizing dynamic in a plasma medium to achieve higher torque density, RPM ceilings, and energy-conversion efficiency than the mechanical MWS prototype demonstrates today.

Each unit includes a copy of the original MABWA Effect thesis paper, personally signed by the inventor.