Unfortunately this model is nowhere near adequate to be able to
calculate the levels of gamma we might see. At this stage it is at best
a qualitative model that might explain the general characteristics. If
the match looked sufficiently good to be worth looking at further then
no doubt the model could be developed to be more quantitative.
I am of course standing on the shoulders of giants at this stage. The
idea can be found on page 173 of Preperata's "QED Coherence in Matter"
where it is used to exlain "Miracle No 2" of LENR systems: namely that
there is not as much gamma radiation as you might expect given classical
Hot fusion theory.
On 25/01/2012 17:55, OrionWorks - Steven V Johnson wrote:
Once it is at a sufficient amplitide, it's existence
might stimulate the excited nuclei to emit their excess
energy after an LENR event has occurred into the mode
using the principle of a PHASER, rather than emit
it as gamma radiation (Like a LASER, but with phonons
not photons. Both are bosons). While the modes are
establishing themselves the excess energy still has a
significant probability of being emitted as gamma
radiation.
Once established, the excess energy has a route to
thermal energy within the nickel, not the lead, which
does not involve gamma.
Can you elaborate a little more as to what kind of gamma radiation
could be produced? Perhaps more to the point, how much potential gamma
radiation would we have to worry about (and subsequently have shield
ourselves from) before the excess energy has a direct route to thermal
energy?
Regards
Steven Vincent Johnson
www.OrionWorks.com
www.zazzle.com/orionworks
