Bockress and Reddy, p. 487, gives the water reorientation time, i.e.
rotation time, for proton conduction as 2.4x10^-13 seconds. This
rotational delay provides a strategy for driving the back side de-
loading cell electrode backside potential so as to maximize the
probability of deflation fusion at the de-loading surface.
When the back side is an anode, the electrolyte hydrogen nuclei, and
thus the 25 percent of them which are deflated hydrogen nuclei, tend
to be at least an atom and half away from the back side surface.
Ideally the de-loading nuclei should tunnel out into an an
electrolyte environment full of deflated hydrogen. One way to do
this is to switch the back side from anode to cathode in much less
than 2.4x10^-13 seconds. However, it might be possible to operate at
twice that cycling rate, i.e. at 4.8x10^-13 seconds, but to detune
slightly so as to achieve a frequent out of phase condition. This
calls for an operating frequency of 2.08 THz or more, and thus a
wavelength of 1.44x10^-4 m, i.e. 0.0144 cm or 1.44x10^5 nm, or less,
located in the far infrared.
Horace Heffner
http://www.mtaonline.net/~hheffner/
