Search

Newtonian Quantum Gravity (NQG) unifies quantum physics with Newton's theory of gravity and calculates the so-called "general relativistic" phenomena more precisely and in a much simpler way than General Relativity, whose complicated theoretical construct is no longer needed. Newton's theory of gravity is less accurate than Albert Einstein's theory of general relativity. Famous examples are the precise predictions of General Relativity at binary pulsars. This is the reason why relativistic physicists claim that there can be no doubt that Einstein's theory of relativity correctly describes our physical reality. With the example of the famous "Hulse-Taylor binary" (also known as PSR 1913 + 16 or PSR B1913 + 16), the author proves that the so-called "general relativistic phenomena" observed at this binary solar system can be calculated without having any knowledge on relativistic physics. According to philosophical and epistemological criteria, this should not be possible, if Einstein's theory of relativity indeed described our physical reality. Einstein obviously merely developed an alternative method to calculate these phenomena without quantum physics. The reason was that in those days quantum physics was not yet generally taken into account. It is not the first time that a lack of knowledge of the underlying physical phenomena has to be compensated by complicated mathematics. Einstein's theory of general relativity indirectly already includes additional quantum physical effects of gravitation. This is the reason why it cannot be possible to unite Einstein's theory of general relativity with quantum physics, unless one uses "mathematical tricks" that make the additional quantum physical effects disappear again in the end. [ABSTRACT FROM AUTHOR]

The binary quantum model introduced here makes it possible to place the four basic fundamental forces on a common basis and to understand why the phenomena "dark energy" and "dark matter" must be indirect effects of gravity. It is also shown how the so-called fine-structure constant α and the Planck constant can be derived from experimental results. [ABSTRACT FROM AUTHOR]

Since the publication of the general theory of relativity (GTR), gravity has been described by classical field equations. Using this approach the GTR has resolved a number of problems in gravity, but is associated with some other difficulties. Mathematically GTR results in the formation of infinite density singularities in black holes, it challenges simultaneity and causality, and it is generally incompatible with quantum mechanics. A separate problem is the presence of "dark energy," the energy inherent in space time. GTR helps explain this energy by the addition of a separate cosmological constant. However, what is required are formulas that treat the energy in space time as an integral part of quantum gravity, This space-time energy is treated as integral in the quintessence model, and may be resolvable by the use of a minimum energy scale. In this paper we use the standard minimal energy scale, Planck's constant, and in turn define a new quintessence. Using this string quintessence, we obtain advanced quantum gravity (AQG), which technically agrees exactly with the GTR, in the range where the GTR has been widely tested. Additionally. the principle of relativity is also maintained, and advanced in order to restore simultaneity and causality. Moreover, using string quintessence. AQG resolves the difficulties related to singularities, and in turn explains the apparent presence of dark matter. The separate presence of dark energy can also be explained and is based directly on Planck's constant and the minimal distance scale, the Planck length. Overall, in this paper, gravitation is taken to the next level, black holes and in turn dark matter are explained, and dark energy, the presence of space-time energy, becomes integral to the equations of AQG. [ABSTRACT FROM AUTHOR]