re: http://qedcorp.com/destiny/ExoticVacuumObjects.pdf

These mesoscopic EVOs are tiny "flying saucers" with warp drive in some
cases, i.e. observed anomalous self-acceleration.

A typical EVO charge cluster is 10^-4 cm across with a total charge of
Ne where N ~ 10^11.

Exactly how the vacuum coherence ~ Tr(K) is tweaked is not clear yet in
this phenomenon, but that it is so tweaked is the only plausible
explanation for the observed facts.

One way to test this EVO hypothesis is to look for an anti-gravity blue
shift of a sharp spectral line of a quantum jump in the interior of the
EVO if the zero point pressure is negative or a gravity red shift if the
zero point pressure is positive since the effective short-range G* >> G
here.

Ken

I am adding a section:

A typical EVO has r ~ 10^-4 cm, N = 10^11. Use the hydrogen atom as the
basis of comparison where r ~ 10^-8 cm and N = 1 with self-electrical
force ~ 10^+16 compared to the EVO self-electrical force 10^22x10^8 =
10^30 in these relative dimensionless units. That is, the
self-electrical force at the surface of the typical EVO assumed to be in
a spherical thin shell is ~ 10^14 stronger than the electrical force on
the atomic electron in the ground state of the hydrogen atom. Next
consider a single electron as a shell of charge e at the classical
electron radius 10^-13cm. The relative self-electric force is then
10^+26. Therefore, the electrical force of the typical mid-range EVO is
only about 10^4 larger than that on a single electron. The effective G*
induced by the zero point energy core needed to stabilize a single
spatially extended electron is ~ 10^40G. That is the effective Planck
length Lp* in the interior of a single electron is ~ 10^-13 cm. The
effective Planck length in the interior of a typical EVO is therefore ~
10^-11 cm ~ h/mc (a curious coincidence) since G* ~ Lp^*2. That is the
“Eddington number” G*/G ~ 10^44 to stabilize the typical EVO. Note in
this thin shell model the uniform zero point energy density core
actually has negative pressure to give a springy positive potential
self-energy that scales as r^5 whose force slope is opposite to the
positive Coulomb potential self-energy that scales as 1/r.



On May 23, 2004, at 9:49 AM, Ken Shoulders wrote:

Jack
A middle point for size is the 1 micrometer diameter EV. It has about
10^11 electrons in it. Measurements made on larger EVs are usually
groups of 1 micrometer beads stuck together in various ways. It is not a
good idea to give diameter measurements here. The smallest EVs I have
directly measured are about 0.2 micrometers in diameter but there are no
valid measurements for the number of electrons in these. From indirect
observation, it appears that the cluster size extends down to single
electron structures.

Ken

Jack Sarfatti wrote:

Ken give me some experimental numbers for observed EVOs

i.e. size "r" of the EVO

estimated number of electron charges N


On May 23, 2004, at 7:48 AM, Ken Shoulders wrote:

Jack

I have installed my FTP software and uploaded the EVO final in PDF
format. I am sure it is not perfect, but it will do for now. It is
located at:

http://www.svn.net/krscfs/

A typical EVO charge cluster is 10^-4 cm across with a total charge of
Ne where N ~ 10^11.

http://www.svn.net/krscfs/