In the broader field of energy anomalies, there is a
class of largely anecdotal phenomena which involve,
not just resonance but extreme "resonant persistence"
- a kind of reverberation that seems to last forever. 

The aim (of being this precise in verbalization) is to
distinguish the time-frame for resonant decay in
situations where the net energy may possibly surpass
the input energy. Inherent in this understanding is
the need to focus on the Maxwellian statistical
distribution and the so-called "Boltzmann's tail" of
that distribution.

There is a Chapel in Scotland where scientifically
recorded echos last fifteen seconds, and there are
reports of Tibetan singing bowls, some made of a
single gigantic crystal of quartz, with a
reverberation peroiod of twice that long. They are
called "singing" because the pitch seems to rise and
fall rather than progress in a linear decay. At say
1000 Hz initially, decreasing to zero in 30 seconds,
there would surely be 2,000 secondary "unpowered" sine
waves following the initial "powered" one. It is
somewhat surprising, given that kind of potential for
OU, that an optimized thermodynamic balance has never
been performed on objects like these.

This is a preliminary post to what may become a more
detailed essay, pending some promising experiments
which are now underway by Ron Wormus, involving low
duty arc discharges. All of these related ideas will
share, as a starting point, the present analogy of the
"tuning fork." 

If you have ever read the Keelynet stuff, you probably
know it is one of Jerry Decker's favorite analogies...
but it is not necessarily overworked as an accurate
image, even for application to molecular gases, pulsed
arc discharges, and cascading ions.

The idea for finding OU based on resonant persistence
- would be that if a certain periodic energy input is
intense but infrequent, in a certain medium, then it
may have a corresponding slow-resonant-decay, i.e. a
very long Boltzmann's tail, so that if one can sum up
the net resultant secondary energy,  i.e. the "area
under the curve," it would exceed the input energy.
But this has never been demonstrated, in practice. For
this process to violate the laws of thermodynamics, as
currently understood, ZPE or the hydrino (or both)
would need to be employed somehow. 

I have mentioned before the Wave Structure of Matter
(WSM) website and the handy standing wave animation:
http://www.spaceandmotion.com/summary-faq-wsm.htm
This web site also has three interesting animations, 
http://www.kettering.edu/~drussell/forkanim.html
"On the sound field radiated by a tuning fork" by
Daniel A. Russell 

With two tuning forks, when one is resonated, the
other will begin to resonate with the excited one,
coming to near the same energy level, with rather
surprising persistence - and in theory a large number
of tuning forks arranged optimally, might show some
kind of mutually resonant energy anomaly, but again,
this has not been demonstrated on either the macro or
micro level.

In the case of a tiny rigid cavity or molecular sphere
- which is small enough to intercept ZPE frequencies -
that object could function like a tuning fork or an
antenna, absorbing and re-emitting energy in order to
establish local equilibrium. At this level, so-called
inelastic collsions are indeed "lossless" but that is
not enough for overunity - the bulk collision energy
must be non-conservative and dependent on "external"
energy (ZPE) or at least supra-chemical energy
(hydrino). The wave spectrum of particular interest is
the one where phonon-photon resonance is possible.
That is to say where sound and RF share common
frequencies.

When a few ions are also present in a gas, the
situation becomes a hybrid of the tuning fork and the
capacitor. With capacitors, AC passes through them
easily because of the alternating currents "cascading"
through alternating charges, and the same is true of
RF radiation; but with the added potential synergy
that the "standing RF wave" may actually "force" a
cascading-ion effect. 

IOW even after the external power has been removed, a
persistent standing wave may actually continue to
ionize a previously exicted but un-ionized molecule
which is proximate in the ever-growing and collapsing
wave reverberation. I am also using the term "RF" to
encompass sound frequencies in the few-kilohertz
range. A phonon-photon frequency overlap seems to be a
requirement for this.

The "analogists-amongst-us", may notice the connection
between this hybrid modality of standing
wave+charge... and the low duty cycle of the MAHG....
I will almost assure you that OU or not, Ron will be
able to locate the point where a decreasing duty cycle
has no further net benefit - and it will likely be
less than Naudin's 5%, one suspects. 

More later,

Jones

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