Relations between radius of universe and dark energy

Relations between radius(size) of universe and dark energy density

http://www.sciforums.com/showpost.php?p=2550520&postcount=16











Radius of the universe:
From Neil J. Cornish,the universe' radius is at least 24Gpc(78Gly).(2003, Neil J. Cornish, "Constraining the Topology of the Universe", http://arxiv.org/abs/astro-ph/0310233v1 )

In Quantum Field Theory, the energy density of the vacuum is estimated as 10^(70)GeV^4, which is about 10^117 orders of magnitude large than the observation value 10^(-47)GeV^4.

Radius of the universe : about 96.76 Billion Light Years!
Size of the universe(diameter) : about 193.5 Billion light years!
Circumference of the universe : about 607.65 Billion light years!
Volume of the universe : about 3.792 X 10^15 (light years)^3=========
Hypothesis of Dark Matter and Dark Energy with Negative Mass :http://vixra.org/abs/0907.0015

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Colliding with Bullet Cluster-dark matter

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V-6 Colliding with Bullet Cluster As shown in the recent observation of dark matter, dark matter seems not to interact with each other when colliding with galaxy clusters, and it can be predicted with essential characteristics of negative mass. Uniformly distributed negative mass receives attractive effect from massive positive mass, so dark matter which has negative mass is clustered around galaxy because of attraction of galaxy. If the type of force worked between negative mass when colliding with galaxy clusters is repulsive, and negative mass is distributed almost uniformly without forming massive mass structure, the shape of dark matter is not distorted or transformed even if dark matter(negative mass) and dark matter(negative mass) pass through similar area, that is, they will seem not to interact each other. Also there is repulsive effect between dark matters that are made up with negative mass, thus there will be almost no direct collision as well. R
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Hypothesis of Dark Matter and Dark Energy with Negative Mass :

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V-2-2)Proof from the gravitational self-energy In case of, mass M and mass distribution is [tex] 0 \le r \le R[/tex] and mass density is [tex]\rho [/tex] fig10 caption : Gravitational self-energy Gravitational self-energy of the universe [tex] U_S = - \frac{3}{5}\frac{{GM^2 }}{R} [/tex] A coefficient 3/5 is constant for geometric shape of the universe. At this time, let's analyze to the relation between total potential energy and gravitational self-energy. Equation (79) is total potential energy when the number of negative mass is [tex]n_-[/tex], and the number of positive mass is [tex]n_+[/tex]. The other side, [tex]U_s[/tex] is total potential energy when all particles are positive mass. Therefore, [tex]U_s[/tex] is total potential energy when dark energy term has an opposite sign. General gravitational potential defined, [tex] U_{gp} = - ((\frac{{n_ - (n_ - - 1)}}{2}\frac{{Gm_ - m{}_ - }}{{r_{
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