einstein continued...

The missing model of motion answers the question that should have been asked centuries ago: How does mass move through space? Newton’s first law of motion is often stated that an object at rest tends to stay at rest and an object in motion tends to stay in motion with the same speed and in the same direction unless acted upon by an unbalanced force. From Newton to Einstein and beyond Einstein, physicists have taken for granted that objects move. They have attempted to explain the relative relationship between moving bodies with laws and theories such as Newton’s Laws of Motion, Galilean Relativity, Special Relativity, and General Relativity. The one question not asked is why or how do objects move through space in the first place. The answer to this question is found on the quantum level of physics and is the missing link between macrophysics and microphysics. This missing link is the Rosetta stone for understanding quantum momentum, quantum movement, quantum relativity, and quantum gravity. It is the key to a unified theory that Einstein so desperately searched for in the declining years of his life. During Newton’s time, it would have been virtually impossible for him to develop a model for motion from a quantum perspective since quantum mechanics wasn’t even in its prenatal stage. Einstein lived under similar restrictions since quantum physics didn’t develop into a viable theory until the 1920’s, after Special and General Relativities were developed. Over the years, physicists have developed several perspectives for movement. We have Newtonian laws that are said to work well for objects moving at slow speeds. We have Einstein’s Special and General Relativities which deal with faster moving objects, up to the speed of light, and large moving bodies such as planets and suns. We have Maxwell’s constant for free flowing energies, and last of all, we have quantum physics, which explains movements within matter. Yet, none of these explain how mass moves through space in the first place. The missing model of motion unites these somewhat opposing or separate views of movement into a single, viable model that explains the movement of mass through space from a quantum perspective, uniting macrophysics and microphysics, or in other words, General Relativity and quantum mechanics. The movements of large massive objects such as planets, solar systems, and galaxies are initiated and sustained on a quantum level. The validation for the Missing Model of Motion came as individual parts unified into a single model. It began with an insight into quantum relativity. That insight naturally led into an insight into quantum momentum and quantum movement. With these three pieces of the puzzle in place, I knew that quantum gravity was only a few connective thoughts away. It was the most difficult of the four pieces to formulate but when the ideas started to flow, quantum gravity fit nicely into the already formulated pieces of quantum relativity, quantum momentum and quantum movement. What helped make the push from the first three pieces to this last piece is that I had read a year or two previously that quantum relativity has yet to be discovered and would probably be developed within the author’s lifetime and would be the link or catalyst to discovering quantum gravity. This provided the initiative to keep pushing towards an understanding of quantum gravity. Because these four pieces fit together so nicely, I am confident in presenting the Missing Model of Motion.