Universal Cycle Theory Neomechanics Of The Hierarchically Infinite Universe [Paperback]

There are only two elements that make the Universal Cycle Theory radical - cycles and infinity. Other than that, much of what you read in the book will seem familiar and conventional. The book focuses on these key elements in the following ways.

Cycles are crucial because they explain how matter moves. Motions develop because of two types of cycles - vortices and waves. A vortex causes matter to rotate, which produces circular cycles. And waves cause matter to compress-and-decompress in repeated oscillations, which produce linear cycles. According to the Universal Cycle Theory, these two basic motions explain much, if not most, of what happens in the universe.

Infinity is crucial because it explains the extent and structure of the universe. Based on logic and observations, we assume that matter is infinitely divisible and integrable. We also assume that time was infinite in the past and will be infinite in the future. From the literature, we could not find an example of this concept of infinity previously employed in a model of the universe. Indeed, this model is unique. Importantly, it explains many of the paradoxes and contradictions currently riddling physics and cosmology.

This explains the title of our book - Universal Cycle Theory: Neomechanics of the Hierarchically Infinite Universe. Cycles explain the motions in the universe, infinity explains the hierarchical structure of the universe, and neomechanics explains the physical laws used in the theory. Think of neomechanics as an adaptation of classical mechanics to conform to infinity.

The neomechanical worldview offers something that no other theory has to this point - unique insights and perspectives into some of the most challenging dilemmas facing scientists. For example, the neomechanical model helped us discover the cause of gravitation. More than three centuries ago, Newton developed an equation for gravitation. However, no one has ever identified the actual physical causlƒ&