Dynamic Gravity | Explaining Field Theory: Gravity Field, Electric Field, and Magnetic Field

Abstract

Purpose: This paper explains totality in regards to how quantum entanglement and spin are generated within the orientation of the atom, how this spin generates what physics calls the “right hand rule,” and how magnetic fields are just shockwaves within an electric field. It also explains how Dynamic Gravity has succeeded in finding the smallest bit of matter possible, how it is generated, and how it affects all around it, what is currently called a “virtual photon.” Furthermore, it explains how it exerts both repulsive and attractive forces in electric and magnetic fields, how it is altered from particle to anti-particle, and how electrotons and gravotons confidently explain all possible interactions between particles from fields. In addition, the paper explains how the positive feedback loop dynamo of bar magnets resembles the dynamo inside particle vortexes for electroton generation.

Methodology: The methodology used to predict these insights of Dynamic Gravity is based upon known facts and observations about physics, then filling in the unknowns with how Dynamic Gravity contests the universe must operate: as a classical physics field theory where all things ultimately must be particles with some sort of angular momentum to generate boundary layers around the particles. This paper explains the most plausible manner in which such a classical universe can exist by the rules and predictions of Dynamic Gravity.

Findings: The paper finds that Dynamic Gravity can explain the generation of quantum entanglement, spin orientation, magnetic and electric field interactions, the existence and behavior of the “virtual photon,” and the transformation between particle and anti-particle states. It also finds that electrotons and gravotons can explain interactions between particles and fields, while the dynamo behavior of bar magnets resembles the vortex dynamo responsible for electroton generation.

Recommendation: This paper has many broader implications for future research, as entire branches of physics such as string theory can potentially be pruned out of existence. While much of what Dynamic Gravity discusses in this paper is based on known physics facts, the predictions and perspectives of Dynamic Gravity provide opportunities for more rigorous testing to evaluate its validity and predictions.