To put my relativistic spin on this I would say the coulomb barrier exerts less 
of a barrier to an approaching proton that is offset on the time axis -  In my 
working man's model we all share the fabric of space time where our electrons 
approach the surface of this space  fabric while  the heavier  nucleus falls 
faster thru time and forms a micro gravity well  but we all remain contained in 
a sort of 3D ant farm unable to perceive time as an axis even while gamma is 
telling us that an accelerated twin is viewing part of our time axis as spatial 
and likewise we are seeing part of his spatial axis as temporal resulting in 
contraction. Normally this is a don't care when you are talking negative 
dilation of an object which is physically isolated approaching C on the spatial 
axis but In the case of catalysts with Casimir geometry you are talking about 
positive dilation in an environment that is relatively stationary and occupied 
with pressurized hydrogen at many different fractional values dependent on 
immediate surroundings and bond states. IMHO this is what Naudts meant when he 
suggested the hydrino is actually relativistic hydrogen.  I have extended 
Naudts premise to a relativistic interpretation of Casimir effect and an 
asymmetry for atoms translating between different levels of Casimir force based 
on their bond state. IMHO fractional atoms translate freely to different 
suppression levels while molecules and compounds can  oppose the translation 
with a couple results... one of course is my favorite candidate for ZPE gain in 
that you can discount the energy needed to disassociate the molecule to less 
than the energy gained when the atoms reform a molecule [effectively harnessing 
random zitter - gas motion to drive the molecule to different suppression 
values], The other is a possible "relativistic screen"  where the fractional 
molecule is able to maintain it's equivalent negative acceleration /orientation 
by virtue of a bond state that is refusing to let the atoms translate freely - 
colliding with an atom in a different inertial frame, say an   h2/16 colliding 
with an h1/4 - My point is that the same sort of temporal/spatial trade offs we 
see for the twin paradox should be at work here also such that the columbic 
barrier should  be discounted by the same sort of Pythagorean relationship we 
derived for gamma. Perhaps a h2/137 colliding with an h1 would represent a full 
90 degrees. Anyway, my thought is the further apart the fractional values the 
less of the barrier they will perceive and the more their time quanta will 
differ. Physically I see the nucleus further displaced from our plane in a 
deeper and deeper well as you approach 1/137 but all the wells surface into our 
common plane. http://www.garrityhvac.com/gwell.gif
Regards
Fran


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