the new fuels with magnecular structure - Institute for Basic Research

THE NEW FUELS WITH MAGNECULAR STRUCTURE 93
on fully automated reactors, have produced the following measurements:
E mg = 871 BTU/cf,
(4.22a)
E heat = 326 BTU/cf,
E electr = 100 W/cf = 342 BTU/cf,
(4.22b)
(4.22c)
resulting in the following commercial over-unity of automatic reactors recycling
antifreeze with about 50 kW and at atmospheric pressure:
871 BTU/cf + 326 BTU/cf
342 BTU/cf
= 3.5. (4.23)
When ordinary tap water is used in the reactors, various measurements have
established a commercial over-unity of about 2.78.
It should be indicated that the commercial over-unity of the hadronic reactors
increases nonlinearly with the increase of the kiloWatts, pressure and temperature.
Hadronic reactors with 250 kW are under construction for operation at
250 psi and 400 ◦ F. The latter reactors have a commercial over-unity considerably
bigger than (4.23).
The origin of the commercial over-unity (4.23) is quite intriguing and not
completely known at this writing. In fact, conventional chemical structures and
reactions have been studied by Aringazin and Santilli [9] and shown not to be
sufficient for a quantitative explanation, thus requiring a new chemistry.
Following Aringazin and Santilli [9], our first task is to compute the electric
energy needed to create one cubic foot of plasma in the PlasmaArcFlow reactors
as predicted by conventional quantum chemistry. Only after identifying the deviations
of the experimental data from these predictions, the need for the covering
hadronic chemistry can be properly appraised.
For these objectives we make the following assumptions. First, we consider
PlasmaArcFlow reactor processing distilled water with the DC arc occurring between
a consumable pure graphite cathode and a non-consumable tungsten anode.
As indicated earlier, said reactors yield a commercial over-unity also when used
with pure water. Therefore, quantum chemical predictions can be more effective
studied in this setting without un-necessary ambiguities. We also assume
that water and the solid graphite rod are initially at 300 ◦ K and that the plasma
created by the DC electric arc is at 3,300 ◦ K.
The electric energy needed to create one cubic foot of plasma must perform
the following transitions (see Appendix B for basic units and their conversions):