New Energy Technologies Magazine nr 3 2005.pdf - Index of

(which has three reach-through holes) periodically
overlays three vortex chambers during rotation
in contact with a front side of the stator. This
process is automatically associated with cooling
effects observed in a "sandwich” of the cylindrical
field of Serl’s machine.
A speed of the overlay is high enough to provide
for a hydraulic shock. Waves of the hydraulic
shock reflected from the rotor’s plane are
overflown to axled zones of the three other
chambers, which are opened at this moment. Due
to this, water flows out from the opened chambers
with an increased kinetic energy. The process is
like an operation of a sextuple aerogun (though
only one barrel of the gun shoots at a time while
three of them operate at a time in “TZ”). A
combination of high speed of streams and their
cyclical manifestation (pulsation) increases an
efficacy of the mechanoactivation and an
efficiency of the operation as a whole.
An inlet of the work chamber of “TZ” was
attached to a water pipe and an otlet of its heat
exhanger was attached to a reservoirprecipitation
tank. During tests of this heater, a
portion of a tap water with temperature about
T 1
20C was led to its work chamber and heated
up to temperature T 2
55C, after that the water
was led to the heat exchanger, where it gave a
part of its heat to a calorimeter during time about
τ 1.5 minutes and cooled itself up to temperature
about T 25C, and then it was led to the heatinsulated
reservoir-precipitation tank.
In about τ 10 minutes after the discharge,
the water in the reservoir-precipitation tank
was spontaneously cooled to temperature T
= (12 – 15) C.
An efficiency of this VLH is considerably more
than one. It was calculated as a ratio of the
measured quantity of heat, which was
transferred by the heat exchanger to the
calorimeter during the preset time, to the
measured energy consumed by the electric
pump during the same time.
Such a result can be explained by the fact that, in
order to produce electric energy, not only the
external electric energy but also the external heat
were used. The external heat was extracted from
the tap water during its cooling from initial
temperature T 1
20C to a temperature, which,
finally, was T = (12 – 15)C.
VLH can operate with the efficiency of more than
one, however, this is provided by not only a
generator but also a method of heat extraction
from an external low-temperature source.
“Cold fusion” has absolutely nothing to do with
it. It is advisable to remember a logical principle
formulated as early as in the 12th century:
substances must not multiply needlessly!
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38 New Energy Technologies #3(22) 2005