> Ya got a reference for that? I don't ever recall Franz saying that.
> Even though, it is probably close to the truth. I would even extend it
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> http://www.vacuum-physics.com/QVC/quantum_vacuum_charge.ps
>> FrediFizzx
| > | > thanks Sam
| > | > yet still those 'dry data'
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| prey out of him his thoughts of how the physical mechanism of that
| would work, nor how he pictures the property of charge to be.
Yes, he was usually cautious about such things. I wonder how I missed
these posts of Franz? Anywise, our whole quantum "vacuum" charge "spin
matrix" concept is based on the fundamental entity of fermions being all
the same and it is the quantum "vacuum" configuration that determines
which fermion is which. Charge is a purely mechanical function even if
it is quantum *mechanical*. If there is no fundamental mass quantum,
then all mass is the result of charges interacting. Of course weak and
strong charge to be included along with electric. Then electric, weak,
strong plus the geometry of their interactions ---> gravity. This
requires a dual space-time scenario where we have real fermions, virtual
fermions and "less than virtual" fermions. "Less than virtual" being a
Dirac-like Sea modified (the quantum "vacuum"). Virtual is simply the
state of going between "real" and "less than virtual".
| BTW,
| there is some ancillary possibility to this issue in my yesterdays post to
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| then you're so far imagining... So, by all means, keep on hacking away,
| dude... I enjoy wild and crazy ideas...... ahahaha... ahahahanson
I will check out and study that other thread. BTW, I stumbled upon a
curious thing involving Planck units. In cgs units, charge can be
expressed as sqrt(hbar*c) and current as c^3/sqrt(G). Charge doesn't
need Newton's G and current doesn't need Planck's hbar. ??? In units
where c = 1, charge is sqrt(hbar) and current is 1/sqrt(G). Current is
charge per time so t = sqrt(G*hbar). Which is Planck time in c = 1
units.
| BTW: There's no such thing as instantaneous. There's a few posts on
| possible max velocities in the virtual realm. IIRC it's ~ 1E+71 cm/sec
| .... almost instantaneous... but not quite....... AHAHAHAHA....
OK, not instantaneous. ;-) In the future if I say instantaneous, I mean
during an extremely short time interval. It's my bad habit of trying to
"freeze stop" everything (cheating mother nature). ;-)
FrediFizzx
http://www.vacuum-physics.com/QVC/quantum_vacuum_charge.pdf
or postscript
http://www.vacuum-physics.com/QVC/quantum_vacuum_charge.ps