| empty matter and missing mass -
04-26-2006, 01:36 PM
Space without time is empty space, with time it is space-time. Although empty space is purely static, space-time is dynamic (orthogonal forces exist). Empty space is devoid of matter or antimatter. Space-time is full of matter and antimatter. An imbalance exists between matter and antimatter. This is the result of points’ displacements, density distributions, and associations; not different quantitative content, for the amount of matter always equal that of antimatter perpetually at the local infinitesimal domain of quantum vacuum fluctuations. Therefore, matter and antimatter forever repel each other preventing the collapse of their respective individual wavefunctions. Hence space-time never reaches the state of absolute certainty at a dimensionless point (like that of a black hole or a big bang singularity). Since absolute certainty is unreachable, space-time points with infinite degrees of freedom begin to associate among themselves at time zero. When the association is evenly distributed, they form bosonic matter and antimatter of force field quantum particles. Oddly distributed, they form fermionic matter and antimatter, and these components were further subdivided into quarks and leptons. Thus, the first dimension of space-time is created together with the separation of orthogonal superforces into distinct strong color forces with two degrees of freedom. When the linear space-time density approaches spherical symmetry with one topological hole, the 2nd dimension is created together with the weak nuclear force in four degrees of freedom. When these spheres of genus unity form hierarchical concentric shells the 3rd dimension of electromagnetism materialized into six degrees of freedom. Next, is the creation of gravity in 4th dimension with maximum eight degrees of freedom, and as anticlimax, the existence of neutral atoms and the birth of the first hydrogen molecules. Time independence: [∂E(g)]²=[∂F(a)×∂r(a)]·[∂F(b)×∂r(b)] and Mass independence: ¶a(t)·¶r(t)=c² |