Structural State of an Aqueous Environment Under EMR and Aires Protection (Zenin)
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REPORT
SCIENTIFIC RESEARCH:
"Investigation of the Protective Action of the Aires Microprocessor
(Aires Shield; Aires Defender; Aires AquaCluster)
Against the Effect of Electromagnetic Radiation on the Structural State
of an Aqueous Environment"
Doctor of Biological Sciences, Professor S. Zenin
2013
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A study of the change in the phase of water under the influence of the Aires Microprocessor
wafer (Aires Shield; Aires Defender; Aires AquaCluster) was conducted using the method of
differential conductimetric measurement of the conductivity of samples of "Super-Q" brand water in
accordance with a designed and patented method. The testing was performed using a circuit to
measure the absolute change in the conductive current of water (Millipore "Super-Q") in a test
sample as compared to a control after exposure to the wafer. The substrate of an Aires
Microprocessor - an inert silicon wafer (placebo) - was used as the control. The water samples were
exposed by placing them on the wafers for a time (20-40) minutes. In a cuvette frame the
conductivity is proportional to the measured current.
Having selecting the water's information system as a detector, and using a differential circuit to
measure such an integral physical parameter as conductivity, it is possible in real-time to observe the
structural state of the water in the test sample relative to the control (placebo).
The measurement process consists of two operations:
1. An identical amount of distilled water is poured into a dual-chamber cuvette or two
separate cuvettes. To each chamber, which constitutes the side of a bridge, a continuous power
supply is connected (2V). The measuring device records the difference between the sides of the
bridge, reflecting the difference between the conductivity of the test water and the control water.
The "control" reading is recorded as the initial reading.
2. The measured water is poured out of the chambers (down the drain), a new portion of
water is poured in from the same shared container, and the operations are performed up to step 2.
3. The device is considered to be in working order if a second pouring and a second turning-
on of the power supplies do not change the measuring device's initial readings during the course of
the entire experiment.
4. Two small containers are prepared, into which the amounts of water required for
measuring are poured. One container with water is left for future pouring into the control chamber;
the other is exposed to the wafer being tested by placing it on the wafer.
5. In addition to the requirements to perform basic measurements, the instructions for the
person conducting the experiment include the mandatory "disabling" of the experimenter's own
influence on the water.
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6. After the exposure period is over, the test container and the control container with water
are brought to be measured. Ideally, the test water and control water are poured into the
corresponding chambers at the same time and in the same manner.
7. The power supplies are simultaneously turned on and the difference in the readings
between the test water and the control water is measured in the sides of the bridge. The difference in
the readings is considered to have been objectively determined if a second measurement produces the
same result or the result or the reading moves smoothly to a new value and then stabilizes.
8. After the measurements, the water is poured out of the chambers, a new portion of water
from the original shared container is poured in, and a measurement is taken to check the initial "zero"
reading.
9. The experiment is considered complete if the reading of the "zero" control measurement
matches the initial reading or is in the expected region of reference line "slippage" due to
insignificant changes in temperature and pressure in the environment.
This method has been tested and solidified in the results of research on how the conductivity of
water is influenced by tens of technical devices in the period from 1995 to 2012. The average
magnitude of change in conductivity under the influence of these devices is 1-5μA (in the cuvette
frame the conductivity is proportional to the current).
Research Results
The following diagrams present the dynamic relationships of the change in conduction current
when a Aires Microprocessor is acting on water:
1. Passive silicon wafer (control - placebo) - Chart 1
2. Aires Shield – Chart 2
3. Aires Defender - Chart 3
4. Aires AquaCluster - Chart 4
An analysis of the charts affirms, above all, the reality of the claimed effect of changing the
phase of water as a result of a change in the conduction current in the test samples.
Moreover, it is clear from the charts that exposure to the test samples (2-4) differs from exposure
to the placebo (1).
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Chart 1
Chart 2
Aires Shield: For the entire duration of the water's exposure to the electromagnetic source the
water's conductivity practically remained unchanged unlike that of the control sample. This allows us
to conclude that the Aires Shield is 100% effective in protecting against electromagnetic radiation by
stabilizing the aquatic environment and its derivative counterparts, namely, living beings;
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Chart 3
Aires Defender: An undulating change in conductivity from 0.5μA to 3μA. The harmonic
appearance of the normalized curve is an indication of the highly effective use of Aires Defender to
suppress the negative consequences of the hyperactivation of the aqueous environment and its
derivative forms (living beings) due to the curve dropped into negative values.
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Chart 4
Aires AquaCluster: An undulating change in conductivity from 0 to +1μA to 0. The harmonic
appearance of the normalized curve is an indication of the highly effective use of Aires AquaCluster
to optimize the stability of the aqueous environment and its derivative counterparts (living beings)
when the curve moves into positive values (activation). Subsequently, due to the curve's departure
into negative territory, the curve indicates that the Aires AquaCluster is highly effective for
suppressing the undesirable consequences of hyperactivation of both the aquatic environment and its
derivative formations (living beings).
On the basis of the data obtained, we can assert that the Aires Microprocessor (Aires Shield;
Aires Defender; Aires AquaCluster) demonstrates a significant real-time compensation for the
change in the characteristics of an aqueous medium (conductivity) when interacting with
electromagnetic radiation, and in the case of Aires Shield — full (100%) protection from active
sources of electromagnetic radiation. This indicates the effectiveness of their protective properties,
which suppress the changes in the characteristics of the aquatic environment and, consequently,
optimize the state of the objects (including living beings) synthesized on the basis of these properties.
Doctor of Biological Sciences S. Zenin
