RE: [Vo]:LENR on a ChipJones-- 

I assume that the resonances are microwave frequencies or greater, up to a 
frequency of infrared light.  A normal resonance for NMR is in the radio wave 
frequency.  This resonance changes with increasing B fields to reflect  the 
differential spin energy states of a nucleus.   (900 MH may be acceptable to 
allow coupling in some coherent systems subjected to large B fields.)

I would say that the energy between spin quanta states of the respective 
coherent system is what must be matched to the phonic transitions associated 
with lattice vibrations at the reaction temperature.  The temperature of  the 
coherent system, including the metal lattice and its electrons, is what 
determines the resonance conditions  of the lattice electrons orbital spin 
states and which is coupled to the coherent system’s nuclear spin states.   
Since the lattice electrons are many,  with many in resonant conditions at any 
given temperature, they are able in concert to accept many quanta of spin 
energy needed to effect a transition to a more stable nuclear configuration 
with lower mass and a net loss of energy. 

IMHO the spin energy transfers happens rapidly, but not instantaneously.  Thus, 
in my earlier comment I suggested reaction time constants were important in 
engineering control.  Without a time constant in effect, control of LENR 
reactions would not be possible and would be inconsistent with experiments that 
have achieved control.

Bob Cook


From: Jones Beene 
Sent: Wednesday, August 05, 2015 6:16 PM
To: [email protected]  
Subject: RE: [Vo]:LENR on a Chip

From: Bob Cook 

Ø      

Ø        IMHO, the changing B field  creates the coupling associated with the 
coherent system’s spin state, all during the small time increment the 
appropriate resonances occur,  to allow the transition of mass energy to phonic 
energy and/or low frequency EM energy…   



Bob … not necessarily low frequency (or how low is low?) … if the spin energy 
could be resonantly tuned to microwave frequencies, then direct conversion to 
DC is easier (has been demonstrated at acceptable efficiency at 900 MHz)

http://scitation.aip.org/content/aip/journal/apl/103/16/10.1063/1.4824473 

A planar “package” of 3-4 components: SPP chip, Ni-H target, and microwave 
collector is arguably possible as a self-powered “battery” for a smart phone or 
other small electronics which operates at room temperature, since SPP creation 
no longer requires incandescence. If we can operate without a thermal cycle, we 
can maximize spin conversion to electrical current with a minimal size.

To do this, the parameters can possibly be tied into the Overhauser effect and 
DNP and operate somewhat as an analogy to the Mossbauer effect. I think Axil 
may have speculated on the type of spin coupling which would be necessary to 
bypass the thermal cycle altogether. Here is some Wiki-wisdom.

https://en.wikipedia.org/wiki/Dynamic_nuclear_polarisation 
https://en.wikipedia.org/wiki/Nuclear_Overhauser_effect

Note the blip on “Magic Angle Spinning DNP (MAS-DNP)”… J

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