The Duality of Time Theory, that results from the Single Monad Model of the Cosmos, explains how physical multiplicity is emerging from absolute (metaphysical) Oneness, at every instance of our normal time! This leads to the Ultimate Symmetry of space and its dynamic formation and breaking into the physical and psychical (supersymmetrical) creations, in orthogonal time directions. General Relativity and Quantum Mechanics are complementary consequences of the Duality of Time Theory, and all the fundamental interactions become properties of the new granular complex-time geometry, at different dimensions. - => Conference Talk - Another Conference [Detailed Presentation]
Complex-Time Geometry and Perpetual Creation of Space
Some years after its publication, the heliocentric model caused a strong controversy, especially after Tycho Brahe (1546-1601 AD) published his similar variation, followed by the advent of the telescope. When the heliocentric model started to become popular, the church considered it formally heretical and the Pope banned all books and letters advocating it.
It was Galileo Galilei (1564-1642 AD) who took the challenge to defend this controversial model, but he was met with strong opposition from astronomers and theologians which later led to his misfortune.
Galileo was an Italian polymath interested in astronomy, physics, philosophy, and mathematics. He studied gravity and free fall, velocity and inertia, projectile motion and and pendulums, and the principle of relativity, in addition to many other related applications. He contributed in transforming Europe from natural philosophy to modern science.
One of Galileo’s greatest contributions was to recognize that the role of science was not to explain “why” things happened as they do in nature, but only to describe them, which greatly simplified the work of scientists, and liberated them from the influence of theologians. Subsequently, this led Galileo himself to describe natural phenomena using mathematical equations, supported with experimentation to verify their validity. This marked a major deviation from the qualitative science of Aristotelian philosophy and Christian theology.
Based on these ideas Galileo was able to develop the mechanics of falling bodies from the earlier ideas of the theory of impetus that tried to explain projectile motion against gravity. By dropping balls of the same material, but with different masses, from the Leaning Tower of Pisa, he showed that all compact bodies fell at the same rate. Galileo then proposed that a falling body would fall with a uniform acceleration, as long as the resistance of the medium through which it was falling remained negligible, which allowed him to derive the correct kinematic law that the distance traveled during a uniform acceleration is proportional to the square of the elapsed time:.
However, as it was the case with Copernicus, Galileo’s discoveries had been also clearly stated by many Muslim scholars more than five centuries before, and they even quoted and developed older theories in this regard. For example, we find Hibatullah ibn Malaka al-Baghdadi (1080–1164), an Islamic philosopher and physician of Jewish descent from Baghdad, originally known by his Hebrew birth name Baruch ben Malka and was given the name of Nathanel by his pupil Isaac ben Ezra before his conversion from Judaism to Islam towards the end of his life. In one of his anti-Aristotelian philosophical works Kitab al-Mutabar (The Book of What Has Been Established by Personal Reflection), he proposed an explanation of the acceleration of falling bodies by the accumulation of successive increments of power with successive increments of velocity Crombie (1959). In this and other books and treatises, he described the same laws of motion that were later presented by Newton, except that they were not formulated in mathematical equations.
Nonetheless, by the 17th century, the Copernican and Galilean heliocentric models started to replace the classical ancient worldview, at least by knowledgeable researchers. Between the years 1609-1619, the scientist Johannes Kepler (1571-1630 AD) formulated his three mathematical statements that accurately described the revolution of the planets around the Sun. In 1687, in his major book Philosophiae Naturalis Principia Mathematica, Isaac Newton provided his famous theory of gravity, which supported the Copernican model and explained how bodies more generally move in space and time, as we shall discuss in section 16.
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... Space Transcendence Read this short concise exploration of the Duality of Time Postulate: DoT: The Duality of Time Postulate and Its Consequences on General Relativity and Quantum Mechanics ...
... by an elegant vector notation, in terms of “four vector†representation. Other important contributions were made by Max von Laue (1879-1960) in 1911 and 1913. He used the space- TIME FORM alism to create a relativistic theory of deformable bodies and an elementary particle theor ...
... abelian real Lie group that is not connected. The four connected components are not simply connected, but rather doubly connected. The identity component (i.e., the component containing the IDENTITY ELEMENT ) of the Lorentz group is itself a group, and is often called the restricted Lorentz ...
... d Special Relativity in explicitly non-Euclidean form, using the concept of rapidity that was previously introduced in 1911 by Alfred Robb (1873-1936). This continued since the years before World War I, and was employed in most relativity textbooks of the 20th century. 3.2.4 Lorentz ...
... ey differ in what further structures are defined on them. The former has the Euclidean distance function and time, separately, together with inertial frames whose coordinates are related by Galilean transformations, while the latter has the Minkowski metric together with inertial frames wh ...
... in Euclidean space with the complex form: , but he noted that it is a four-dimensional non-Euclidean manifold. The new space differs from four-dimensional Euclidean space, because it treats TIME DIFFERENTLY from the three spatial dimensions, so that all frames of reference agree on the tot ...
... eity, in addition to many other remarks on comparing non-Euclidean and Euclidean geometry. Poincaré attempted to reformulate space and time, but his efforts were completed in 1907 by Hermann Minkowski (1864-1909) based on the work of many previous mathematicians of the 19th century ...
... of Special Relativity, Maxwell’s field equations in the theory of electromagnetism, the Dirac equation in the theory of the electron, and the Standard model of particle physics. All PHYSICAL LAWS are Lorentz invariant when gravitational variances are negligible. This group, therefo ...
... two events is independent of the inertial frame of reference in which they are recorded. Minkowski initially developed his space for Maxwell’s equations of electromagnetism, but the MATHEMATICAL STRUCTURE was soon shown to be an immediate consequence of the two postulates of Specia ...
... e and time, but his efforts were completed in 1907 by Hermann Minkowski (1864-1909) based on the work of many previous mathematicians of the 19th century who contributed to group theory and PROJECTIVE GEOMETRY . Using similar methods, Minkowski succeeded in formulating a geometrical interpr ...
... -Euclidean and Euclidean geometry. Poincaré attempted to reformulate space and time, but his efforts were completed in 1907 by Hermann Minkowski (1864-1909) based on the work of many PREVIOUS MATHEMATICIANS of the 19th century who contributed to group theory and projective geometry. ...
... rticle physics. All physical laws are Lorentz invariant when gravitational variances are negligible. This group, therefore, expresses the fundamental symmetry of space and time of all known FUNDAMENTAL LAW s of nature. Lorentz transformations can also be considered as a hyperbolic rotation ...
I have no doubt that this is the most significant discovery in the history of mathematics, physics and philosophy, ever!
By revealing the mystery of the connection between discreteness and contintuity, this novel understanding of the complex (time-time) geometry, will cause a paradigm shift in our knowledge of the fundamental nature of the cosmos and its corporeal and incorporeal structures.
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Mohamed Haj Yousef
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