COMPARATIVE STUDY OF THE EFFECTS OF THE MICROWAVE RADIATION
NEUTRALIZERS ON THE PHYSIOLOGICAL STATE OF HUMAN SUBJECTS
INTRODUCTION
This research was conducted at Elsys Corp. in St. Petersburg,
Russia. It was designed to investigate whether microwave (MW) radiation
of mobile phone can induce changes in the human's physiological state.
This research included the testing of MRET-Shield (United States Patent
No. 6,369,399 B1) and three other competitive neutralizers: made in Japan
(JP), made in Russia (RU), and made in Taiwan (TW), in order to determine
their effects as protective devices against MW radiation negative physiological
effects. MW effects were studied on mobile phone Nokia, model 3310 operating
in the frequency range of 895-917MHz, with power output in the range of
0.002-2W, and SAR value less than 5.4mW/kg. Tested human subjects were
controlled by Genius Video Cam Web (V1) connected with NB Samsung P30
(1.6GHz). The light illumination of each tested subject was set at the
level of 500Lx.
MRET-Shield is made of polar polymer dielectric material
and does not change the power of MW signals transmitted to the mobile
phone. The low frequency patterns generated by defined polar polymer compound
are superimposed on MW signals, they interact with bio-structures and
support and improve cellular functions in the body. Other neutralizers
are made of materials with high magnetic permeability (TW made of high
density copper, JP made of ferromagnetic compound, RU made of silicon
plate with incorporated metallic lines) in order to reduce the power of
transmitted MW signals.
METHODS
The changes in the physiological state, which indicated
the response to the stress, were measured by the method of Vibraimage
technology (RU 2187904, WO 02/51154). This technology allows visualization
and fixation of the micro-movements of points on the surface of the human
body (face) by means of video camera and Vibraimage software. It also
measures integral characteristics of macro and micro-vibrations of points
on the surface of the body. Integral characteristics include the Distribution
of Amplitudes ("AM" mode, the characteristic of human body macro-vibrations)
and the Distribution of Frequencies ("FM" mode, the characteristic of
human body micro-vibrations). They are presented in the form of histograms.
The micro-vibrations of the human body are correlated with the physiological
state of the human subject.
The research was conducted on 10 human subjects. The
Vibraimage parameters were measured one minute before and one minute after
their exposure to the mobile phone in talk mode. The exposure to the mobile
phone in each test was during 5 minutes. Five tests were conducted on
each subject: exposure to the mobile phone without any neutralizer, consequent
exposures to the same mobile phone with MRET-Shield, TW, JP, and RU neutralizers.
During the "blind" testing procedure all subjects were kept in comfortable
environment. During the process of exposure to the mobile phone in talk
mode each tested subject was verbally "counting" the same row of figures
in order to maintain the relaxed physiological state.
THE Distribution of Frequencies is the most informative
integral characteristic of human body micro-vibrations. It shows the values
and the range of frequencies of human body micro-vibrations as well as
the percentage rate of each frequency in the distribution. There is direct
correlation between stress reactions of the body and the changes in the
parameters of the Distribution of Frequencies. The state of excitation
in the body is signified by higher values and enlarged range of frequencies.
The state of exhaustion in the body is signified by lower values and narrower
range of frequencies.
CORRESPONDENCE BETWEEN VIBRAIMAGE COLOR SCALE
AND PHYSIOLOGICAL STATE OF HUMAN BODY
The comparison of VibraImage method of measurement
of the human body frequencies with EEG testing methodology shows direct
correlation between the brain waves and the body micro-vibration frequencies.
In compliance with the physiological state of the human subject the brain
waves have four ranges: Beta, Alpha, Theta, and Delta.
Brain Wave Ranges: |
VibraImage Color Scale: |
|
Yellow, orange, red |
|
Green, light blue |
|
Blue |
|
Deep blue, purple |
|
Purple |
The human body frequencies measured by VibraImage method
can be placed in the corresponding ranges:
Physiological State |
Brain Waves, Hz |
Body Vibrations, Hz |
Body Vibrations, relat. units |
Sleep/Exhausted |
1.5 - 5 (Delta) |
0.3 - 1.0 |
15 - 51 |
Drowsy/Tired |
5 - 9 (Theta) |
1.0 - 1.8 |
51 - 92 |
Relaxed |
9 - 15 (Alpha) |
1.8 - 3.0 |
92 - 153 |
Excited/Working |
15 - 40 (Beta) |
3.0 - 8.0 |
153 - 408 |
In VibraImage system the micro-vibration frequencies
are identified with the following colors:
Color |
Range in related units |
Purple |
0 - 30 |
Deep Blue |
30 - 80 |
Light Blue |
80 - 120 |
Green |
120 - 180 |
Yellow |
180 - 220 |
Red |
220 - 255 |
Thus, in VibraImage system the relaxed state of the
human subject is identified by green and light blue color, the drowsy/tired
state by blue color, the exhausted state by deep blue and purple colors,
and the excited state by yellow and red colors.
The slower brain waves have the higher amplitudes. Beta
waves have the smallest amplitudes and Delta waves have the highest amplitudes.
The same regularity characterizes the micro-vibrations of the body. The
slower micro vibrations have the higher amplitudes.
EXAMPLES OF VIBRAIMAGE SYSTEM IMAGES AND HISTOGRAMS
ACQUIRED DURING THE TESTING PROCEDURE
Fig.1 The image of a subject in "FM" mode before and
after 5 minutes exposure of the human subject to the mobile phone radiation
in talk mode without neutralizer.
Fig.2 The image of a subject in "FM" mode before and
after 5 minutes exposure of the human subject to the mobile radiation
in talk mode with MRET-Shield.
The images on Fig.1 show substantial alterations in
the form of Vibraimage color spectrum after the exposure of the human
subject to the mobile phone radiation without any neutralizer. They show
the increase of yellow and green areas in this spectrum, which identifies
the increase of frequency values. This fact is confirmed by the substantial
level of changes in the form of histograms on Fig.3. These histograms
show the substantial increase of the mean values of frequencies and the
increase of the percentage rate of the higher frequency values in the
Frequency Distribution after the exposure of the human subject to the
mobile phone.
The images on Fig.2 show insignificant alterations
in the form of Vibraimage color spectrum after the exposure to the mobile
phone with MRET-Shield. They show the slight increase of yellow and green
color areas in this spectrum, which identifies the slight increase of
frequency values. This fact is confirmed by the very slight level of changes
in the form of histograms on Fig.4, comparing to the level of changes
on Fig.3 for the mobile phone without MRET-Shield installation. The histograms
on Fig.4 show the non substantial increase of the mean values of frequencies
and the insignificant increase of percentage rate of the higher frequency
values in the Distribution after the exposure of the human subject to
the mobile phone with MRET-Shield.
The histograms on Fig.3 through Fig.7 below show the
difference in the Frequency Distributions of human body vibrations before
and after the exposure of the human subject to the mobile phone radiation
in talk mode. It is possible to notice on Fig.4 that the installation
of MRET-Shield on the mobile phone makes the difference almost indistinguishable.
The histograms of the Frequency Distributions before
and after the exposure of the human subject to the mobile phone radiation
without any neutralizer (Fig.3) and with three other neutralizers except
MRET-Shield (Fig.5, Fig.6, Fig.7) show substantial changes in the Frequency
Distributions.
Fig. 3 "FM" mode: the histograms of human body Frequency
Distribution before (red diagram) and after (blue diagram) 5 minutes exposure
to the mobile phone in talk mode without any neutralizer.
Fig.4 "FM" mode: the histograms of human body Frequency
Distribution before (red diagram) and after (blue diagram) 5 minutes exposure
to the mobile phone in talk mode with MRET-Shield
Fig.5 "FM" mode: the histograms of human body Frequency
Distribution before (red diagram) and after (blue diagram) 5 minutes exposure
to the mobile phone in talk mode with Japanese (JP) neutralizer.
Fig.6 "FM" mode: the histograms of human body Frequency
Distribution before (red diagram) and after (blue diagram) 5 minutes exposure
to the mobile phone in talk mode with Taiwanese (TW) neutralizer.
Fig.7 "FM" mode: the histograms of human body Frequency
Distribution before (red diagram) and after (blue diagram) 5 minutes exposure
to the mobile phone in talk mode with Russian (RU) neutralizer.
RESULTS
The main parameters of the Frequency Distribution are
the mean value of frequencies M and the mean squire deviation D. The most
informative parameter is the Mean Value of Frequencies M; the mean squire
deviation D has direct correlation with the Width of Frequency Range.
During the testing procedure parameters M and D were measured first in
normal state of human subject before the exposure to the phone (control
MC, DC) and then following the 5 minutes exposure to the mobile phone
in talk mode. The mobile phone was tested without any neutralizers, with
MRET-Shield and with three other neutralizers respectfully. The measured
parameters M and D were normalized by their values in normal state MC,
DC. After that the normalized changes in parameters (after and before
the exposure of the human subject to the phone in talk mode) were calculated
for experiments on mobile phone with and without neutralizers.
ΔMVF = │M/Mc - 1│ - |
normalized changes of the Mean Value of Frequencies
of the human body micro-vibrations following the exposure to the
mobile phone in talk mode; |
ΔWFR = │D/DC - 1│ - |
normalized changes of the Mean Value of Frequencies
of the human body micro-vibrations following the exposure to the
mobile phone in talk mode; |
THE CHANGES IN THE PARAMETERS OF FREQUENCY
DISTRIBUTION INDUCED BY EXPOSURE OF HUMAN SUBJECTS TO MOBILE PHONE RADIATION
The duration of exposure to MW from mobile phone with
and without neutralizers was 5 minutes in all experiments. Comparing to
the exposure to the mobile phone without any neutralizers, only MRET-Shield
significantly reduced the level of changes of the Mean Values of Frequencies
and of the Widths of Frequency Range, and consequently the level of changes
of physiological state of human body. All other tested neutralizers, on
the contrary, increased these changes. The results are presented in Table
1, Table 1A, Table 2, Table 2A, Fig.8, and Fig.9.
The horizontal axis on Fig.8 and Fig.9 (ΔMVF
= 0 and ΔWFR = 0) correspond to the distribution
of frequencies in normal state before the exposure to the mobile phone
in talk mode (control). ΔMVF > 0 and ΔWFR
> 0 correspond to the distribution of frequencies in stress situation
of excitation or exhaustion. The excitation is characterized by the increase
of the Mean Value of Frequencies (M/MC > 1) and the enlargement
of the Frequency Range (D/DC > 1). The exhaustion is
characterized by the decrease of Values of Frequencies (M/MC <
1) and the narrowing of Frequency Range (D/DC < 1).
Table 1 |
Mean Value of Frequencies (MC, M; related units)
|
|
Neutralizers
|
|
NO
NEUTRALIZER |
MRET |
JP |
TW |
RU |
1st subject |
|
|
|
|
|
before the talk |
100.81 |
79.49 |
69.32 |
67.90 |
53.68 |
after the talk |
106.33 |
87.65 |
83.44 |
92.37 |
79.78 |
2nd subject |
|
|
|
|
|
before the talk |
64.8 |
77.00 |
66.80 |
77.60 |
68.30 |
after the talk |
70.00 |
78.00 |
84.10 |
64.80 |
58.40 |
3rd subject |
|
|
|
|
|
before the talk |
99.10 |
80.60 |
95.40 |
98.90 |
96.20 |
after the talk |
106.70 |
86.80 |
84.60 |
106.90 |
95.50 |
4th subject |
|
|
|
|
|
before the talk |
129.82 |
138.75 |
126.34 |
122.63 |
124.23 |
after the talk |
121.40 |
134.76 |
116.00 |
122.93 |
138.41 |
5th subject |
|
|
|
|
|
before the talk |
149.66 |
138.37 |
101.22 |
123.30 |
121.37 |
after the talk |
173.40 |
148.74 |
117.79 |
153.25 |
159.18 |
6th subject |
|
|
|
|
|
before the talk |
108.20 |
103.80 |
103.50 |
116.40 |
109.30 |
after the talk |
95.90 |
100.34 |
101.10 |
110.80 |
104.60 |
7th subject |
|
|
|
|
|
before the talk |
92.80 |
98.70 |
91.60 |
101.10 |
105.10 |
after the talk |
110.60 |
90.60 |
105.40 |
98.60 |
100.90 |
8th subject |
|
|
|
|
|
before the talk |
90.40 |
99.10 |
105.70 |
111.90 |
92.50 |
after the talk |
100.00 |
89.20 |
86.40 |
107.10 |
99.30 |
9th subject |
|
|
|
|
|
before the talk |
128.27 |
117.45 |
120.16 |
124.10 |
123.21 |
after the talk |
135.59 |
117.86 |
132.70 |
130.95 |
123.85 |
10th subject |
|
|
|
|
|
before the talk |
99.80 |
102.20 |
101.80 |
114.10 |
106.70 |
after the talk |
87.40 |
97.60 |
101.10 |
110.50 |
104.30 |
Table 1A |
Normalized Changes of Mean Value of Frequencies (ΔMVF;%)
|
|
Neutralizers
|
|
NO
NEUTRALIZER |
MRET |
JP |
TW |
RU |
1st subject |
5.48 |
10.26 |
20.37 |
36.04 |
48.62 |
2nd subject |
8.02 |
1.30 |
25.90 |
16.49 |
14.49 |
3rd subject |
7.67 |
7.69 |
11.32 |
8.09 |
0.73 |
4th subject |
6.49 |
2.88 |
8.18 |
0.24 |
11.41 |
5th subject |
15.86 |
7.49 |
16.37 |
24.29 |
31.15 |
6th subject |
11.37 |
3.33 |
2.31 |
4.81 |
4.30 |
7th subject |
19.18 |
8.21 |
15.06 |
2.47 |
4.00 |
8th subject |
10.62 |
9.99 |
18.26 |
4.29 |
7.35 |
9th subject |
5.71 |
0.35 |
10.44 |
5.52 |
0.52 |
10th subject |
12.42 |
50 |
0.69 |
3.16 |
2.25 |
Mean Value of ΔMVF |
10.28 |
5.60 |
12.89 |
10.54 |
12.48 |
Mean Values of ΔMVF Calculated for 10
Tested Subjects
Fig.8 Normalized changes of the Mean Value of Frequencies
of the human body micro vibrations following the 5 minutes exposure to
the mobile phone radiation with and without MW radiation protective devices
(neutralizers).
Fig.8 shows that the exposure to the mobile phone induced
10.3% average level of changes in the Mean Values of Frequencies. Comparing
to the exposure to mobile phone without any neutralizer, only MRET-Shield
significantly reduced the level of changes of the Mean Value of Frequencies.
MRET-Shield reduced the average level of changes by 46% (from 10.3% to
5.6%). All other neutralizers, on the contrary, increased the level changes
by up to 25%. The results are statistically significant (p<0.001). Fig.8
shows that the exposure to the mobile phone induced 10.3% average level
of changes in the Mean Values of Frequencies. Comparing to the exposure
to mobile phone without any neutralizer, only MRET-Shield significantly
reduced the level of changes of the Mean Value of Frequencies. MRET-Shield
reduced the average level of changes by 46% (from 10.3% to 5.6%). All
other neutralizers, on the contrary, increased the level changes by up
to 25%. The results are statistically significant (p<0.001).
Table 2 |
Mean Square Deviation of Frequencies (DC, D; related units)
|
|
Neutralizers
|
|
NO
NEUTRALIZER |
MRET |
JP |
TW |
RU |
1st subject |
|
|
|
|
|
before the talk |
53.29 |
33.79 |
31.68 |
31.80 |
28.23 |
after the talk |
60.11 |
37.89 |
40.21 |
44.59 |
36.87 |
2nd subject |
|
|
|
|
|
before the talk |
58.50 |
75.00 |
75.00 |
79.80 |
66.60 |
after the talk |
65.00 |
71.00 |
83.90 |
60.40 |
62.00 |
3rd subject |
|
|
|
|
|
before the talk |
90.50 |
80.90 |
73.80 |
81.00 |
95.00 |
after the talk |
99.60 |
83.80 |
82.40 |
62.20 |
83.50 |
4th subject |
|
|
|
|
|
before the talk |
40.45 |
39.65 |
37.64 |
39.27 |
42.50 |
after the talk |
41.24 |
37.82 |
41.81 |
42.79 |
41.10 |
5th subject |
|
|
|
|
|
before the talk |
36.73 |
41.44 |
32.25 |
38.56 |
34.28 |
after the talk |
40.08 |
43.98 |
38.82 |
43.56 |
40.93 |
6th subject |
|
|
|
|
|
before the talk |
74.4 |
76.90 |
73.40 |
79.00 |
73.30 |
after the talk |
65.00 |
81.10 |
67.90 |
84.20 |
81.00 |
7th subject |
|
|
|
|
|
before the talk |
89.50 |
75.10 |
90.70 |
69.30 |
77.90 |
after the talk |
79.60 |
74.60 |
84.10 |
75.30 |
96.70 |
8th subject |
|
|
|
|
|
before the talk |
90.10 |
94.70 |
102.70 |
84.40 |
98.60 |
after the talk |
90.20 |
89.70 |
90.60 |
68.80 |
93.00 |
9th subject |
|
|
|
|
|
before the talk |
42.18 |
41.21 |
37.81 |
36.25 |
41.13 |
after the talk |
42.78 |
37.53 |
40.83 |
39.81 |
40.05 |
10th subject |
|
|
|
|
|
before the talk |
68.70 |
72.10 |
76.50 |
77.40 |
83.40 |
after the talk |
61.00 |
82.10 |
69.22 |
73.10 |
72.60 |
Table 2A |
Normalized Changes in the Width of Frequency Range (ΔWFR; %)
|
|
Neutralizers
|
|
NO
NEUTRALIZER |
MRET |
JP |
TW |
RU |
1st subject |
12.80 |
12.13 |
26.93 |
40.22 |
30.61 |
2nd subject |
11.11 |
5.33 |
16.37 |
24.31 |
6.91 |
3rd subject |
10.06 |
3.58 |
11.65 |
23.21 |
12.10 |
4th subject |
1.95 |
4.62 |
11.08 |
8.96 |
3.29 |
5th subject |
9.12 |
6.13 |
20.37 |
12.97 |
19.40 |
6th subject |
12.63 |
5.46 |
7.49 |
6.58 |
9.91 |
7th subject |
11.06 |
0.67 |
7.28 |
8.66 |
24.13 |
8th subject |
0.11 |
5.28 |
11.78 |
18.48 |
5.68 |
9th subject |
1.42 |
8.93 |
7.99 |
9.82 |
2.63 |
10th subject |
11.21 |
13.87 |
9.52 |
5.56 |
12.95 |
Mean Value of ΔWFR |
9.24 |
6.14 |
13.05 |
15.88 |
12.77 |
Mean Values of ΔWFR Calculated for 10
Tested Subjects
Fig.9 Normalized changes of the Width of Frequency Range
of the human body micro vibrations following the 5 minutes exposure of
human body to the mobile phone radiation with and without MW radiation
protective devices (neutralizers).
Fig.9 shows that the exposure to the mobile phone induced
9.2% average level of changes in the Width of Frequency Range. Comparing
to the exposure to the mobile phone without any neutralizers, only MRET-Shield
significantly reduced the level of changes of the Width of the Frequency
Range. MRET-Shield reduced the average level of changes by 34%. All other
neutralizers, on the contrary, increased those changes by up to 73%. The
results are statistically significant (p<0.001).
STATISTICAL VALUES OF THE RESULTS
Statistical calculations were based on the regular
assumption of Normal Distribution of all studied mean values of ΔMVF and
ΔWFR. The standard deviations of studied mean values are in the range
of 1.06% to 3.25% (for mobile phone with MRET-Shield the standard deviation
of the mean value of ΔMVF is 1.06%, for the mobile phone with TW neutralizer
the standard deviation of the mean value of ΔWFR
is 3.25%). The mean values differ from their control values (ΔMVFC=0,
ΔWFRC=0) by more than standard deviation multiplied by 3 times. It means
that all studied normalized changes in the parameters of the Distributions
of Frequencies are statistically significant with p< 0.001.
The level of spontaneous fluctuations in studied Vibraimage
parameters due to the spontaneous changes in the psycho-physiological
state of tested subjects was registered at the level of 5%. The comparison
of studied mean values of ΔMVF and ΔWFR with their spontaneous fluctuations
level of 5% instead of the control level of 0% gives the following results.
For the mobile phone with MRET-Shield the difference
between the mean values of Vibraimage parameters and their spontaneous
fluctuations level of 5% is statistically insignificant with p>>0.05.
For example, the mean value of ΔMVF is M(ΔMVF)=5.6%, its standard deviation
σ(ΔMVF)=1.06%, M(ΔMVF)-5%=0.6%=0.57σ(ΔMVF). Consequently the p-level is
p=0.3 and it is much higher than p=0.05. Thus, the installation of MRET-Shield
on mobile phone makes the level of changes in studied parameters statistically
insignificant because their p-levels are much higher than p=0.05.
For the mobile phone without any neutralizer and with
all other studied neutralizers the difference between the mean values
of Vibraimage parameters and their spontaneous fluctuations level of 5%
is still statistically significant with p<0.001. All those mean values
differ from their spontaneous fluctuations level of 5% by more than the
standard deviation multiplied by 3 times and consequently their p-levels
are less than p=0.001.
CONCLUSIONS
- This research shows that there are statistically significant changes in the physiological state of the human subjects after the 5 minutes exposure to the mobile phone radiation in talk mode.
- The installation of MRET-Shield on the mobile phone significantly reduces the level of changes in the physiological state of the human subjects and makes them insignificant.
- The installation of all other tested neutralizers on the mobile phone, on the contrary, increases the level of changes in the physiological state of the human subjects.
|