Environmental Design and Inspection Services

rawfrogpondUrban and Civil

Nov 16, 2013 (3 years and 8 months ago)

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Environmental Design and Inspection Services

Oram Miller, BBEI

Certified Building Biology Environmental Inspector

“EMF” Consultant

P.O. Box 8063, Minneapolis, Minnesota 55408


Phone 952
-
412
-
0781 Fax 612
-
822
-
0870

info@createhealthyhomes.com


www.createhealthyhomes.com



“Harmful Frequencies Generated by TDMA (Cell Phone)
Technology and Non
-
Thermal Effect at Very Low Power Density”


The following posting comes from an August 2, 2006 email to Oram Miller fr
om
Building Biologist Larry Gust of Larry J. Gust Consulting in San Marcos,
California (
www.healbuildings.com
; 760
-
599
-
5892). Larry is a member of the
faculty of the International Institute for Bau
-
biologie and

Ecology, the organization
that trains and certifies Building Biologists.


Note that when you see the term “base stations” in the article, the author is
referring to cell phone antennas on masts (pole and towers) and buildings.


Here is Larry’s email:


Dea
r Colleagues,


The following article appears in the British Medical Journal
Lancet.
After this
there is research by

Salzburg environmental physician Oberfeld showing EEG
disturbance from cell radiation in a Rudolph Steiner school in Salzburg
-
Mayrwies.


It

is very good in explaining cellular technology and the harmful frequencies
generated by TDMA technology and discussing non
-
thermal effect at very low
power density. More and more people are becoming RF (radio frequency) or
Microwave sensitive. We should

be prepared with the knowledge to help.


Larry Gust

?


Lancet 2000; 356: 1833

36



See Commentary page 1782



Department of Physics, University of Warwick, Coventry, UK; and International
Institute of Biophysics, Neuss
-
Holzheim, Germany (G J Hyland PhD)



Correspondence to: Dr G J Hyland, Department of Physics, University of
Warwick, Coventry CV4 4AL, UK (e
-
mail:
G.J.Hyland@warwick.ac.uk
)

Physics and biology of mobile telephony



G J Hyland



Seminar



Although safety guidelines

to which mobile telep
hones and their base
-
stations
conform

do protect against excessive microwave heating, there is evidence that
the low intensity, pulsed radiation currently used can exert subtle non
-
thermal
influences. If these influences entail adverse health consequences,

current
guidelines would be inadequate. This review will focus on this possibility.


The radiation used is indeed of very low intensity, but an oscillatory similitude
between this pulsed microwave radiation and certain electrochemical activities of
the l
iving human being should prompt concern. However, being so inherently
dependent on aliveness, non
-
thermal effects cannot be expected to be as robust
as thermal ones, as is indeed found; nor can everyone be expected to be
affected in the same way by exposur
e to the same radiation.


Notwithstanding uncertainty about whether the non
-
thermal influences reported
do adversely affect health, there are consistencies between some of these
effects and the neurological problems reported by some mobile
-
telephone users

and people exposed longterm to base
-
station radiation. These should be pointers
for future research. For personal use only. Not to be reproduced without
permission of The Lancet.


SEMINAR



THE LANCET • Vol 356 • November 25, 2000 1833



Public concern
over possible adverse health impacts from exposure to the
radiation used in GSM (Global System for Mobile communication) mobile
telephony shows little sign of abating, despite assurances from the industry and
official bodies such as the UK National Radiolo
gical Protection Board (NRPB)
that all is well. In March, 1999, the UK Government set up the Independent
Expert Group on Mobile Phones, under the chairmanship of Sir William Stewart.


The Stewart Report, (1) published in May, 2000, makes some sensible
rec
ommendations, but unfortunately some of its grayer areas are now being
exploited by the industry to obfuscate the issue. As yet unresolved is the
question of adverse health impacts provoked by the contentious non
-
thermal
effects of the low intensity, pulse
d microwave radiation (MWR) used. For these
effects are not taken into account in current safety guidelines (2), which simply
restrict the intensity of the radiation to prevent tissue heating in excess of what
the body’s thermoregulatory mechanism can cope

with.


Whilst these guidelines, which are the result of careful investigation over many
years, are clearly necessary, the question remains as to whether they are
comprehensive enough. For in the case of living systems (and only living ones)
there are man
y reports over the past 30 years that MWR can exert non
-
thermal
influences, at intensities well below those necessary to cause any detectable
heating. (3)



The purpose of this review is to introduce clinicians to the physics of mobile
telephony and to e
xplain how low
-
intensity, pulsed microwaves can affect living
organisms, both thermally and non
-
thermally; and then to identify some of the
reported biological impacts of exposure to this radiation, particularly those
provoked by the contentious non
-
therma
l effects.


It is thereby hoped to alert clinicians to the possibility that certain presenting
symptoms might well be a consequence of non
-
thermal exposure to this kind of
radiation. A companion
Lancet
review (4) covers the epidemiological evidence for
ef
fects of mobile telephony on human health.



Physics of mobile telephony



Mobile (cellular) telephony is based on two
-
way radio communication between a
portable handset and the nearest base
-
station. Every base
-
station serves a cell,
from hundreds of met
res in extent in densely populated areas to kilometres in
rural areas, and is connected both to the conventional land
-
line telephone
network and, by tightly focused line
-
of
-
sight microwave links, to neighbouring
stations.


As the user of a mobile phone mo
ves from cell to cell, the call is transferred
between base
-
stations without interruption. The radio communication utilises
microwaves at 900 or 1800 MHz to carry voice information via small modulations
of the wave’s frequency. A base
-
station antenna typic
ally radiates 60 W and a
handset between 1 and 2 W (peak).


The antenna of a handset radiates equally in all directions but a base
-
station
produces a beam that is much more directional. In addition, the stations have
subsidiary beams called side
-
lobes, in
to which a small fraction of the emitted
power is channelled.



Unlike the mean beam, these side
-
lobes are localised in the immediate vicinity of
the mast, and, despite their low power, the power density can be comparable
with that of the main beam much f
urther away from the mast. At 150

200 m, for
example, the power density in the main beam near ground level is typically tenths
of a W/cm2.



A handset that is in operation also has a low
-
frequency magnetic field
associated, not with the emitted microwaves
, but with surges of electric current
from the battery that are necessary to implement “time division multiple access”
(TDMA), the system currently used to increase the number of people who can
simultaneously communicate with a base
-
station. Every communic
ation channel
has eight time slots (thus the average power of a handset is 1/8 of the peak
values cited above

ie, is between 0.125 W and 0.25 W), which are transmitted
as 576 s bursts. Together, the eight slots define a frame, the repetition rate of
which
is 217 Hz.


The frames transmitted by both handsets and base
-
stations are grouped into
“multi
-
frames” of 25 by the absence of every 26th frame. This results in an
additional low
-
frequency pulsing of the signal at 8.34 Hz, which, unlike that at
217 Hz, is
unaffected by call density, and is thus a permanent feature of the
emission. With handsets that have an energy
-
saving discontinuous transmission
mode (DTX), there is an even lower frequency pulsing at 2 Hz, which occurs
when the user is listening but not s
peaking.



Biological impacts: thermal



Heating of biological tissue is a consequence of microwave energy absorption by
the tissue’s water content. The amount of heating produced in a living organism
depends primarily on the intensity (or power density)

of the radiation once it has
penetrated the system, on certain electrical properties of the biomatter, and on
the efficiency of the body’s thermoregulation mechanism.


Above a certain intensity of the microwaves, temperature homoeostasis is not
maintaine
d, and effects on health ensue once the temperature rise exceeds
about 1°C. Safety guidelines impose upper limits on the radiation intensity to
ensure that this does not happen. Heating occurs whether the organism is alive
or dead.



The frequency of the
radiation, as opposed to the intensity, is taken into account
only in so far as it affects (via size resonance) the ability of the organism to
absorb energy from the irradiating field.



Amongst the most thermally vulnerable areas of the body, (2) because

of their
low blood supply, are the eyes and the testes, and cataract formation and
reduced sperm counts are well
-
documented acute exposure hazards.



Animal studies indicate that a variety of behavioural and physiological disorders
can be provoked by tem
perature rises below 1°C

ie, under much less acute
exposure conditions.



There have been many investigations to estimate, using phantom heads, (5) the
rate at which thermal energy is deposited in the head during use of a mobile
phone

the so
-
called absorp
tion rate. These studies indicate that, for most
handsets, safety guidelines are not violated. In publicly accessible areas near a
base
-
station, thermal influences of the emitted MWR can be totally discounted;
the microwave intensity is far too low.



Nev
ertheless, in both cases there are reports of adverse health effects of
subthermal intensities, the possible origin of which will now be considered.



Biological effects: non
-
thermal



The possibility that the pulsed, low
-
intensity MWR currently used in
GSM mobile
telephony can exert subtle, non
-
thermal influences on a living organism arises
because microwaves are waves; they have properties other than the intensity
that is regulated by safety guidelines.



This microwave radiation has certain well
-
defin
ed frequencies, which facilitate its
discernment by a living organism (despite its ultralow intensity), and via which the
organism can, in turn, be affected. The human body is an electrochemical
instrument of exquisite sensitivity whose orderly functioning

and control are
underpinned (6) by oscillatory electrical processes of various kinds, each
characterised by a specific frequency, some of which happen to be close to those
used in GSM. Thus some endogenous biological electrical activities can be
interfere
d with via oscillatory aspects of the incoming radiation, in much the same
way as can the reception on a radio.



The biological electrical activities that are vulnerable to interference from GSM
radiation include highly organised electrical activities at

a cellular level whose
frequency happens to lie in the microwave region, and which are a consequence
of metabolism. (7)



Although not universally accepted, there is experimental evidence (7

9)
consistent with these endogenous activities, in terms of whi
ch effects of ultralow
-
intensity microwave radiation of a specific frequency on processes as
fundamental as cell division, for example, can be understood in a rather natural
way. (10)



Furthermore, the DTX pulse frequency at 2 Hz and the TDMA frequency o
f 8∙34
Hz correspond to frequencies of electrical oscillations found in the human brain,
specifically the delta and alpha brain
-
waves, respectively. It is thus quite possible
that living organisms have a two
-
fold sensitivity to the pulsed GSM signal

ie, to

both the microwave carrier and the lower frequency pulsings of the TDMA and
DTX signals. To deny this possibility yet admit the importance of ensuring
electromagnetic compatibility with electronic instruments by banning the use of
mobile phones on aircraf
t (11) and hospitals (a prohibition driven by concerns
about non
-
thermal interference) seems inconsistent.



Thus, in contrast to heating, which relies on an organism’s ability to absorb
energy from the irradiating field, the possibility of non
-
thermal ef
fects arises from
an “oscillatory similitude” between the radiation and the living organism, which
makes it possible for the living organism to respond to low
-
intensity, pulsed MWR
via its ability to recognise certain frequency characteristics of that radi
ation. The
intensity of radiation needed for this recognition is many orders of magnitude
below even that currently associated with non
-
thermal effects. This influence is
possible only when the organism is alive, with excited endogenous frequencies;
the de
ad have flat electroencephalograms.


Non
-
thermal effects thus depend on the state of the person when exposed to the
radiation

ie, non
-
thermal effects are non
-
linear. A low
-
intensity field can entail a
seemingly disproportionately large response (or none a
t all), and vice versa,
quite unlike the predictable thermal responses. Thus not everyone can be
expected to be affected in the same way by identical exposure to the same
radiation.



A good example of human vulnerability to a non
-
thermal, electromagnetic

influence is the ability of a light flashing at about 15 Hz to induce seizures in
people with photosensitive epilepsy. (12) It is not so much the amount of energy
absorbed from the light that provokes the seizure, but rather the information
transmitted to

the brain by the (coherent) regularity of its flashing, at a frequency
that the brain “recognises” because it matches or is close to a frequency utilised
by the brain itself.


What do we know experimentally about non
-
thermal biological influences of
MWR (
both pulsed and continuous) of an intensity close to that near a mobile
phone handset, but often at higher microwave carrier frequencies? A selection of
in vitro studies is given in panel 1.


Panel 1:

Selected in vitro studies of non
-
thermal effects of mic
rowave radiation
of various frequencies and intensities



Effect Ref

Epileptic activity in rat brain slices in conjunction with 13 certain drugs

Resonant effects on cell division of Saccharomyces (9, 14) cerevisiae, and on
the genome conformation of Esche
richia coli

Synchronisation of cell division in S carlsbergenis (15)

“Switch
-
on” of epigenetic processes, such as ë
-
phage (16, 17) and colicin
synthesis

Altered ornithine decarboxylase activity (18)

Reduced lymphocyte cytotoxicity (19)

Increased permeabil
ity of erythrocyte membrane (20)

Effects on brain electrochemistry (calcium efflux) (21)

Increase in chromosome aberrations and micronuclei in (22) human blood
lymphocytes

Synergism with cancer
-
promoting drugs such as phorbol ester 23.


(From SEMINAR, page

1834, THE LANCET • Vol 356 • November 25, 2000)


In vivo evidence of non
-
thermal influences, including exposure to actual GSM
radiation, comes predominantly from animal studies (panel 2).


Panel 2: Selected in vivo studies of non
-
thermal microwave



Exp
osure, including GSM radiation

Effect Ref

Epileptiform activity in rats, in conjunction with certain drugs (24)

Depression of chicken immune systems (melatonin, (25) corticosterone and IgG
levels)

Increase in chick embryo mortality (25)

Increased permeabil
ity of blood
-
brain barrier in rats (26)

Effects on brain electrochemistry (dopamine, opiates) (27)

Increases in DNA single and double strand breaks in rat brain (28)

Promotion of lymphomas in transgenic mice (29)

Synergistic effects with certain psychoacti
ve drugs (30). For personal use only.
Not to be reproduced without permission of The Lancet.)


(From SEMINAR, page 1835, THE LANCET • Vol 356 • November 25, 2000)


Finally, human in vivo studies, under GSM or similar conditions, include effects
on the EEG
and on blood pressure. A delayed increase in spectral power density
(particularly in the alpha band) has been corroborated (31) in the “awake” EEG of
adults exposed to GSM radiation. Influences on the “alseep” EEG include a
shortening of rapid
-
eye
-
movement

(REM) sleep during which the power density
in the alpha band increases, (32) and effects on non
-
REM sleep. (33)



Exposure to mobile phone radiation also decreases the preparatory slow
potentials in certain regions of the brain (34) and affects memory ta
sks. (35) In
1998, Braune et al (36) recorded increases in resting blood pressure during
exposure to radiofrequencies. Although the power density of the radiation used in
these experiments is typical of that found at the head when a mobile handset is
used,

and thus much higher than that close to a base
-
station, the information
content of the radiation emitted by base
-
stations is the same.



Accordingly

apart from near/far field differences (ie, localised exposure to the
near field during handset use and wh
ole body exposure to the far field from a
base
-
station)


these results are not irrelevant to any consideration of potential
adverse health effects associated with chronic exposure to base
-
station
radiation.



Non
-
thermal effects have proved controversial
, and independent attempts to
replicate them have not always been successful. Such difficulties are not
unexpected, however, because these effects depend on the state of the
organism when it is exposed, particularly in vivo. In in vitro studies, discrepant

findings can sometimes be traced to differences in the conditions or design of the
experiment. Examples of this are the unsuccessful attempts to replicate an
earlier yeast
-
growth experiment, (37,9) and the reported increased incidence of
DNA strand breaks
. (38,28)



The highly non
-
linear nature of living systems makes them hypersensitive (via
deterministic chaos, (39) as exemplified by the so
-
called “butterfly effect”, for
example) to the prevailing conditions, and thus militates against the realisation o
f
the identical conditions necessary for exact replication.



Possible associated adverse health reactions


It is important to stress that the existence even of established non
-
thermal effects
does not make adverse health consequences inevitable. Nonethe
less GSM does
seem to affect non
-
thermally a variety of brain functions (including the
neuroendocrine system), and health problems reported anecdotally do tend to be
neurological, although formal confirmation of such reports, based on
epidemiological studi
es, is still lacking.



For example, reports of headache are consistent with the effect of the radiation
on the dopamine
-
opiate system of the brain (27) and the permeability of the
blood
-
brain barrier, (26) both of which have been connected to headache.
(
40,41) Reports of sleep disruption are consistent with effects of the radiation on
melatonin levels (25) and on rapid
-
eye
-
movement sleep. (32)



Furthermore, since there is no reason to suppose that the seizure
-
inducing ability
(12) of a flashing visible
light does not extend to microwave radiation (which can
access the brain through the skull) flashing at a similarly low frequency, together
with the fact that exposure to pulsed MWR can induce epileptic activity in rats,
(24) reports of epileptic activity
in some children exposed to base
-
station
radiation are perhaps not surprising. I have heard of one child whose seizures
diminish when, unbeknown to her or her family, the mast is not functioning (or
when she is away), only to increase again when the base
-
s
tation is working
again or when she returns home.



Finally, the significant increase (by a factor of between 2 and 3) in the incidence
of neuroepithelial tumours (the laterality of which correlates with cell
-
phone use)
found in a nationwide US study (42)

is consistent not only with the genotoxicity of
GSM radiation, as indicated by increased DNA strand breaks (28) and formation
of chromosome aberrations and micronuclei but also with its promotional effect
on tumour development. (43)



However, as Rothman
’s accompanying review shows, (4) the overall
epidemiological evidence for an association with cell
-
phone use is rather weak.
Nevertheless, it cannot be denied that non
-
thermal effects of the MWR used in
mobile telephony do have the potential to induce adv
erse health reactions of the
kind reported, and this possibility should not be ignored even if only a small
minority of people are at risk. Whether a person is affected or not could depend,
for example, on the level of stress before exposure; if it is high

enough, the
additional contribution from MWR exposure might be sufficient to trigger an
abnormality that would otherwise have remained latent. It is often argued that
anecdotal reports of health problems should be dismissed.



However, given the paucity
of systematic epidemiological studies of this new
technology, such reports are an indispensable source of information, a point
acknowledged in the 1999 report of the UK parlia
-
mentary committee. (44)



Preadolescent children can be expected to be more vul
nerable to any adverse
health effects than adults because absorption of GSM microwaves is greatest (5)
in an object about the size of a child’s head, because of the “head resonance”
effect and the greater ease with which the radiation can penetrate the thi
nner
skull of an infant. (1) Also the multiframe repetition frequency of 8.34 Hz and the
2 Hz pulsing in the DTX mode of cellphones lie in the range of the alpha and
delta brain
-
waves, respectively. In a child, alpha waves do not replace delta
waves as a s
table activity until the age of about 12 years.


Furthermore, the immune system, whose efficacy is degraded (19,25) by this
kind of radiation, is less robust in children. This makes them less able to cope
with any adverse health effect that might be provok
ed by chronic exposure, not
only to the pulsed microwave radiation but also to the more penetrating low
-
frequency magnetic fields associated with the current surges from the handset
battery which can reach 40 T (peak) near the back of the case. (45)


Indi
cations of the biological noxiousness of these magnetic fields (in animals) can
be found in ref 25. In the context of base
-
station radiation, reports relating to
animals are of particular value since it cannot here be claimed that the effects are
psychosom
atic. Of particular interest is a publication on cattle, (43) recording
severely reduced milk yields, emaciation, spontaneous abortions, and stillbirths.
When cattle are removed to pastures well away from the mast, their condition
improves, but it deterior
ates once they are brought back. The adverse effects
appeared only after GSM microwave antennae were installed on a tower formerly
used to transmit only non
-
pulsed television and radio signals.



Finally, in support of the reality of an adverse health imp
act of non
-
thermal
influences of the kind of radiation used today in mobile telephony, we should
recall that during the “cold war” the Soviet irradiation of western embassies with
microwave radiation (of an intensity intermediate between that in the vicini
ty of a
handset and a base
-
station), done with the express intention of inducing adverse
health effects, was quite successful. (47)



References



1 Independent Expert Group on Mobile Phones. Mobile phones and health.
London: Stationery Office, 2000 and
http://iegmp.gov.uk



2 Anon. Guidelines for limiting exposure to time varying electric, magnetic and
electromagnetic fields (up to 300 GHz).
Health Phys
1998;
74:
494

522.



3 Hyland GJ. In: Scientific advisory system: mobile phones and health vol II,
a
ppendix 15: 86

91. London: Stationery Office, 1999.



4 Rothman KJ. Epidemiological evidence on health risks of cellular telephones.
Lancet
2000;
356:
1837

40



5 Gandhi OP, Lazzi G, Furse CM, et al. Electromagnetic absorption in the human
head and neck
for mobile telephones at 835 and 1900 MHz.
IEEE Trans MTT
1996;
44:
1884

97.



6 Smith CW, Best S. Electromagnetic man. London: Dent & Sons, 1989.



7 Fröhlich H. The biological effects of microwaves and related questions.
Adv
Electronics Electron Phys
1
980;
53:
85

152.



8 Fröhlich H, ed. Biological coherence and response to external stimuli. Berlin:
Springer
-
Verlag, 1988.



9 Grundler W, Kaiser F. Experimental evidence for coherent excitations
correlated with cell growth.
Nanobiology
1992;
1:
163

76.



10 Hyland GJ. Non
-
thermal bioeffects induced by low intensity microwave
irradiation of living systems.
Engineering Sci Educ J
1998;
7:
261

69.



11 Marks P. Danger signals: now it’s official: avionics and mobile phones do not
mix.
New Sci
2000;
166:
7.



12 Harding GFA, Jeavons PM. Photosensitive epilepsy. London: MacKeith
Press, 1994.



13 Tattersall J.
New Horizons
1999 (autumn): 11.



14 Shcheglov VS, Belyaev IY, Alipov YD, Ushakov VL. Power
-
dependent
rearrangement in the spectrum of resonance eff
ect of millimetre waves on the
genome conformational state of
Escherichia coli
cells.
Electro
-
Magnetobiol
1997;
16:
69

82.



15 Golant MB, Mudrick DG, Kruglyakova OP, Izvol’skaya VE, et al. Effect of EHF
radiation polarization on yeast cells.
Radiophys Qu
antum Electron
1994;
37:
82

84.



16 Lukashevsky K, Belyaev IY. Switching of prophage ë genes in
E coli
by
millimetre waves.
Med Sci Res
1990;
18:
955

57.



17 Smolyanskaya AZ, Vilenskaya RL. Effects of millimetre
-
band electromagnetic
radiation on the fu
nctional activity of certain genetic elements of bacterial cells.
Sov Phys Usp
(English transl) 1974;
16:
571

72.



18 Penafiel LM, Litovitz T, Krause D, Desta A, Mullins JM. Role of modulation on
the effect of microwaves on ornithine decarboxylase activit
y in L929 cells.
Bioelectromagnetics
1997;
18:
132

41.



19 Lyle B, et al. Suppression of T
-
lymphocyte cytotoxicity following exposure to
sinusoidally amplitude
-
modified fields.
Bioelectromagnetics
1983;
4:
281

92.



20 Savopol T, Moraru R, Dinu A, Kovác
s E, Sajin G. Membrane damage of
human red blood cells induced by low power microwave radiation.
Electro
-
Magnetobiol
1995;
14:
99

105.



21 Dutta SK, Subramoniam A, Ghosh B, Parslad R. Microwave radiation
-
induced
calcium ion efflux from human neuroblastom
a cells in culture.
Bioelectromagnetics
1984;
5:
71

78.



22 Garaj
-
Vhovac V, Fucic A, Horvat D. The correlation between the frequency of
micronuclei and specific aberrations in human lymphocytes exposed to
microwave radiation in vitro.
Mutation Res
1992;
281:
181

86.



23 Balcer
-
Kubiczek EK, Harrison GH. Neoplastic transformation of C3H/10T1/2
cells following exposure to 120 Hz modulated 2.45 GHz microwaves and phorbol
ester tumour promoter.
Radiation Res
1991;
126:
65

72.



24 Sidorenko AV, Tsaryk VV. E
lectrophysiological characteristics of the epileptic
activity in the rat brain upon microwave treatment. In: Proceedings of Conference
on Electromagnetic Fields and Human Health (Moscow, September, 1999): 283

84.



25 Youbicier
-
Simo BJ, Bastide M. Patholo
gical effects induced by embryonic and
postnatal exposure to EMFs radiation by cellular mobile phones (written evidence
to IEGMP).
Radiat Protect
1999;
1:
218

23.



26 Persson BRR, Salford LG, Brun A, et al. Blood
-
brain barrier permeability in
rats exposed

to electromagnetic fields used in wireless communication.
Wireless
Networks
1997;
3:
455

61.



27 Frey AH, ed. On the nature of electromagnetic field interactions with biological
systems. Austin, TX: RG Landes, 1994.



28 Lai H, Singh NP. Single and dou
ble
-
strand DNA breaks after acute exposure
to radiofrequency radiation.
Int J Radiation Biol
1996;
69:
13

521.



29 Repacholi MH, Baster A, Gebski V, Noonan D, Finnie J, Harris AW.
Lymphomas in E
-
Pim 1 transgenic mice exposed to pulsed 900 MHz
electromagen
tic fields.
Radiation Res
1997;
147:
631

40.



30 Lai H, Horita A, Chou CK, Guy AW. A review of microwave irradiation and
actions of psychoactive drugs.
Engineering Med Biol
1987;
6:
31

36.



31 Reiser H
-
P, Dimpfel W, Schober F. The influence of electrom
agnetic fields on
human brain activity.
Eur J Med Res
1995;
1:
27

32.



32 Mann K, Roschke J. Effects of pulsed high
-
frequency electromagnetic fields
on human sleep.
Neuropsychobiology
1996;
33:
41

47.



33 Borbely AA, Huber R, Graf T, et al. Pulsed high
-
frequency electromagnetic
field affects human sleep and sleep electroencephalogram.
Neurosci Lett
1999;
275:
207

10.



34 Freude G, Ullsperger P, Eggert S, Ruppe I. Effects of microwaves emitted by
cellular phones on human slow brain potentials.
Bioelect
romagnetics
1998;
19:
384

87.



35 Krause CM, et al. Effects of electromagnetic field emitted by cellular
telephones on the EEG during a memory task.
NeuroReport
2000;
11:
761

64.



36 Braune S, Wrocklage C, Raczek J Gailus T, Lüching CH. Resting blood
pr
essure increase during exposure to radio
-
frequency electromagnetic field.
Lancet
1998;
351:
1857

58.


37 Gos P, Eicher B, Kohli J, Heyer WD. Extremely high frequency fields at low
power density do not affect the division of exponential phase
Saccharomyces
cerevisiae
cells.
Bioelectromagnetics
1997;
18:
142

55.



38 Malyapa RS, Ahern EW, Bi C, et al. DNA damage in rat brain cells after in
vivo exposure to 2450 MHz electromagnetic radiation and various methods of
euthanasia.
Radiation Res
1998;
149:
637

45.



39 Kaiser F. The role of chaos in biological systems. In: Barrett TW, Pohl HA,
eds. Energy transfer dynamics. Berlin: Springer
-
Verlag, 1987: 224

36.



40 Winkler T, Sharma HS, Stalberg E, Olsson Y, Dey PK. Impairment of blood
-
brain barrier function by
serotonin induces desynchronization of spontaneous
cerebral cortical activity: experimental observations in the anaesthetized rat.
Neuroscience
1995;
68:
1097

104.


41 Barbanti P, Bronzetti F, Ricci A, et al. Increased density of dopamine D5
receptor in pe
ripheral blood lymphocytes of migraineurs: a marker of migraine?
Neurosci Lett
1996;
207:
73

76.



42 Carlo GL. Wireless telephones and health: WTR Final Report. Presented to
the French National Assembly, June 19, 2000.



43 Repacholi MH, Basten A, Gebsk
i V, Finnie J, Harris AW. Lymphomas in E
mu
-
Pim1 transgenic mice exposed to pulsed 900 MHz electromagnetic fields.
Radiat Res
1997;
147:
631

40.



44 Scientific Advisory System: mobile phones and health. London: Stationery
Office 1999: vol I, para 36.



45 Andersen JB, Pedersen GF. The technology of mobile telephone systems
relevant for risk assessment.
Radiat Prot Dosim
1997;
72:
249

57.



46 Löscher W, Käs G. Conspicuous behavioural abnormalities in a dairy cow
herd near a TV and radio transmitting ante
nna.
Pract Vet Surg
1998;
79:
437

44.



47 Goldsmith JR. Epidemiological evidence of radiofrequency radiation
(microwave) effects on health in military, broadcasting, and occupational studies.
Int J Occup Environ Health
1995;
1:
47

57.



SEMINAR



1836
THE LANCET • Vol 356 • November 25, 2000



/Mobilfunksendeanlagen/Gehirnströme [/Mobile phone transmitters/Brain waves]







RAYS FROM MOBILE PHONE TRANSMITTERS AFFECT BRAIN WAVES





Salzburg environmental physician Oberfeld presents the results of a

new study

(LK) “The results of a new study show globally, for the first time, that radiation
from a mobile phone transmitter (GSM 900/1800 MHz) at a distance of
approximately 80 meters leads to significant changes in various EEG
parameters. The measured

changes of brain waves were combined with
different vegetative and central nervous system disturbances reported by the
study participants.” This was communicated today, Wednesday, 27 April, by the
environmental physician from Salzburg, Dr. Gerd Oberfeld,

in his paper "Health,
hygiene and environmental medicine".





In the evaluation study, pairs of electrodes were placed on the occipital lobes and
the parietal lobes and examined for three frequency bands, Alpha 1 (8
-
10 cycles
per second), Alpha 2 (10
-
12

cycles per second) and Beta (13
-
20 cycles per
second). The phase of the smallest dose of radiation resulted in changes of
activity in all three frequency bands. These changes can be regarded, in
summary, as the response of the brain to an external stimul
us
--
in this case,
radiation from a GSM mobile phone facility. External stimuli which cause a
reaction in a biological system are called external stressors. Stressors are not
fundamentally negative (Eustress); they can, however, with frequent occurrence
a
nd/or with great intensity, lead to disturbances in the quality of life, work, and
health (Distress) of sensitive humans, claimed Dr. Oberfeld. Based on the
interference to their wellbeing described, in part, as considerable by almost all
study participan
ts, a Distress reaction is at least assumed among persons
already sensitive to short
-
term mobile phone radiation.



Radiation must be reduced



According to Oberfeld in his synopsis of the available empirical data, the results
of the investigation sho
w the need to reduce the burden to health caused by high
frequency electromagnetic radiation, and [the need] to intensify the research. The
results show globally, for the first time, that radiation from a wireless mobile
transmitter (GSM 900/1800 MHz) lead
s, within a distance of approximately 80
meters, to significant changes in various EEG parameters. The plan is to publish
these results in international technical journals and to confirm the present results
with further investigation. In addition, volunte
er study participants are already
being sought, from age 16 on, who regard themselves as sensitive or insensitive
in relation to wireless mobile transmitters. Prospective participants are requested
to telephone Environmental Medicine of Salzburg at (0662)
8042
-
2969. The
investigation was financed by funds from the central government of Salzburg.





The Rudolf Steiner school was the project trigger



The Rudolf Steiner school in Salzburg
-
Mayrwies lies inside the main beam of the
mobile phone transmitter

from the neighbouring government office of Telekom
Austria. The highest radiation levels were measured through an open window in
Religion Room 1, on the first floor of the school, within approximately 80 meters
of the transmitter. Several attempts by th
e school to remove the transmitter have
so far been futile.



In an interdisciplinary work group consisting of university Dr. of medicine Gerd
Oberfeld, environmental physician of Salzburg (the study leader), Dr. Hannes
Schimke (EEG
-
Brainmapping/Psychophy
siology/statistics) and university
professor Dr. Günther Bernatzky, work group for Neurodynamics and
Neurosignalling of the University of Salzburg, an innovative study design was
provided. The neurophysiological EEG finding was supported by university Dr.

of
medicine Gernot Luthringshausen, neurologist/EEC. A goal of the investigation
was to reveal a possible connection between the radiation from the mobile phone
transmitter and its influence on the brain activity of adult study participants.



A school
class becomes a radiation lab



With the support of the Rudolf Steiner school, Religion Room 1 became a study
laboratory for one week in August 2004. The transmitter side got blocked by a
screen; a normal fabric was hung over only a small portion of the
opened window
in order to allow the high frequency ray to enter the test area. This opening could
now be closed very easily, and reopened, with a second small screen.



High frequency radiation into the Religion Room was controlled by the nearby
mobile ph
one transmitter. In the location of the investigation, the unshielded
area resulted in maximal value for the TV
-
transmitter at levels of 0.03 µW/m∑, for
UKW at 3 µW/m∏ and for the mobile phone transmitter at 6290 µW/m∑. During
the entire investigation,
besides recording radiation exposure due to the direct
transmission of mobile phone rays on the study participants, various
environmental parameters arose, such as sound levels (Environment Department
of Salzburg), carbon dioxide, temperature, relative hum
idity, magnetic alternating
fields (which can, for example, occur during the output of a flow of current), and
sferic activity (triggers of weather complaints).



Study participants between the ages of 20 and 78


Nine women and three men, aged 20 to 78, w
ho designated themselves as
sensitive in relation to mobile phone transmitters, volunteered for the experiment.
The participants were told they could leave the investigation at any time. The
time sequences of exposure were not communicated to the particip
ants.



The study participants sat in a comfortable upholstered armchair with their backs
to the open window. The rays made a simple slant over the back of the head.
Because of the screen, stress to the upper body amounted to about 1/8 of the
stress t
o the head. Subsequently, in order to record the bioelectric activity of the
brain (electroencephalogram EEC), several electrodes were attached to the
head. In order to minimize the effects of other environmental influences, the
study participants receive
d a dark eye mask (sleep mask) and ear wax (Ohropax)
[ear plugs?] on both sides. The investigation took place quietly, all movement
with the exception of respiration and swallowing was avoided. At the beginning
of the experiment in the room, the experime
nter visibly reduced exposure to
radiation in the head region by a local average of about 26 µW/m∑. Afterwards,
for 15 minutes, the second small screening curtain was raised for the study
participants without their awareness. This led to an increase of
output flow
density at approximately 3327 µW/m∑. Then a screened phase followed again
with approximately 26 µW/m∑.



At the end of the EEG recording, the study participants were asked to describe
all their perceptions. Eleven of the twelve study partici
pants described different
symptoms such as buzzing in the head, pounding heart, uneasiness, behavior[al
changes?], anxiety, breathlessness, nervousness, restlessness, headache,
tinnitus, sensation of heat, depression, feeling of getting insufficient air.
J86
-
11B.