http://stardrive.org
This email address is being protected from spambots. You need JavaScript enabled to view it.
Second Draft (with algebra dimensional analysis corrections)
Second Draft (with algebra dimensional analysis corrections)
On Jan 25, 2015, at 9:12 AM, JACK SARFATTI <This email address is being protected from spambots. You need JavaScript enabled to view it. > wrote:
alpha = 2/3 comes most simply fromA/Lp^2 = A^3/2/(&L)^3for a 2D horizon hologram screen of area A with quantum bit pixel area Lp^2the bulk 3D hologram voxels have quantum volumes (&L)^3However, if the horizon 2D screen is fractal with linear scale parameter y and the interior bulk is fractal with linear scale parameter xA^(1 + y)/Lp^2(1 + y) = A^(3/2)(1 + x)/(&L)^3(1 + x)(&L)^3(1 + x) = Lp^2(1 + y)A^3/2(1 + x)/A^(1 + y)A^3/2(1 + x)/A^(1 + y) = A^3/2 A^3x/2/AA^y = A^1/2 A^(3x/2 - y)(&L) = [Lp^2A^1/2]^(1/3(1 + x) [Lp^2y A^(3/2x - y)]^1/3(1 + x)]alpha = (2/3)(1 + y)/(1 + x)
Lp^2y A^(3/2x - y)]^1/3(1 + x) is not a dimensionless pure number
If we use the non-fractal measures, it's no longer true thatA/Lp^2 = A^3/2/(&L)^3that is the effective hologram mapping from screen to image is no longer 1 - 1this corresponds to a non-unitary S-Matrix I suspect.to be continued
http://stardrive.org
This email address is being protected from spambots. You need JavaScript enabled to view it.