see

http://www.ecoinventions.ca/iccf-18-keith-fredericks-possibility-of-tachyon/

These thing he sees are SPPs

On Fri, Oct 16, 2015 at 10:09 PM, <[email protected]> wrote:

> In reply to  Axil Axil's message of Fri, 16 Oct 2015 21:11:02 -0400:
> Hi,
> [snip]
> >The energy from muon decay leaves electrons and the remainder of this
> >energy is reabsorbed back into the SPP soliton.
>
> I would expect a fair amount to be lost in neutrinos. Only that which
> remained
> with the electrons would be retrieved.
>
> >All the while more muons
> >are generated in a continuing cycle from the SPPs. The Solitons are also
> >slowly decaying through the emission of hawking radiation in the infrared
> >range, This is part of the thermalization of high energy radiation. Also,
> >these SPPs explode in a bosenova when they reach energy storage capacity,
> >they then release XUV and soft x-rays which will also thermalize.
>
> You still haven't mentioned how you came by the figure of 64 GeV.
>
> BTW are you also assuming that the muons remain trapped?
> If so, why bother with them at all?  (...since they would then behave as
> though
> they were virtual particles). In the Hawking radiation decay, you already
> have a
> mechanism for converting the reaction energy into thermal photons.
>
> How have you determined that said photons should be in the infrared?
>
> >
> >On Fri, Oct 16, 2015 at 8:40 PM, <[email protected]> wrote:
> >
> >> In reply to  Axil Axil's message of Fri, 16 Oct 2015 20:14:29 -0400:
> >> Hi,
> >> [snip]
> >> >This is called super-absorption. The energy release would be spread
> >> equally
> >> >throughout a BEC of a billon coherent solitons each getting a few
> hundred
> >> >thousand electron volts. These solitons store energy. Their energy
> holding
> >> >capacity is 64 GeV each but most hold far less.
> >>
> >> I'm curious how you come by this figure?
> >>
> >> >Then there is the energy
> >> >that produce subatomic particles such as muon and mesons. These
> particles
> >> >need a lot of energy devoted to their creation. The release of energy
> is
> >> >buffered by these subatomic particles because they have a relatively
> long
> >> >lifetime.  Muons decay over a very long time and release their energy
> >> >content very slowly.
> >>
> >> Even assuming all the energy is converted into muons, a 2 micro-second
> >> half-life
> >> means that they are almost all gone within 10-20 micro-seconds. That's
> >> still an
> >> explosion (unless they all leave the reactor before they decay, but in
> >> that case
> >> the reactor produces no usable energy).
> >> Regards,
> >>
> >> Robin van Spaandonk
> >>
> >> http://rvanspaa.freehostia.com/project.html
> >>
> >>
> Regards,
>
> Robin van Spaandonk
>
> http://rvanspaa.freehostia.com/project.html
>
>

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