Electromagnetic Quantum Gravity: On the Quantum Principle of   Equivalence, Quantum Inertia, and the Meaning of Mass
  A new approach to Quantum Gravity is proposed that is manifestly compatible with Cellular Automata (CA) theory, and is based on a new quantum theory of inertia where Newtonian Inertia results from the electromagnetic forces between the (electrically) charged elementary particles of an accelerated mass and the surrounding (electrically) charged virtual particles of the quantum vacuum. At the Plank scale, there exists a quantized, absolute 3D space and separate (quantized) time which is not affected by motion or gravity. Light is the simple shifting of a photon information pattern from cell to adjacent cell at every CA 'clock cycle'. The Lorentz transformation is derived from our simple model of light motion. Inertial mass is revised to acknowledge the absolute nature of mass and acceleration. The same electromagnetic quantum vacuum forces are also present in masses inside a gravitational field, where now the quantum vacuum is accelerated with respect to the mass by graviton exchanges. This process is responsible for the equivalence principle (WEP), which is derived in detail. Gravity is found to be based on two boson force exchange particles: the graviton and the photon, and both particles are postulated to be almost identical in physical characteristics. 4D space-time curvature is found to result from a 'Fizeau-like' scattering process, where the accelerated (electrically charged) virtual particles of the quantum vacuum act like a special 'Fizeau fluid'. Light scatters with the electrically charged and accelerated 'Fizeau fluid', resulting in curved paths. Four experimental tests of EMQG are proposed. 
Tom Ostoma (U of T), Mike Trushyk (Barringer Ltd.)