Active Prediction of
Sites Prone to the HUM by Aharonov- Bohm Criteria
CHRIS BARNES
Email
Abstract –Although the Hum is predominantly an infrasonic effect, in some individuals it would seem to be enhanced by the presence of certain electromagnetic frequencies. Active prediction of locations most likely to experience the HUM are made and confirmed using criteria derived from the electromagnetic Aharonov-Bohm effect, in that the HUM is also proposed to be a non-linear bio-acoustic effect linking electromagnetism and quantum biology. That is to calculate predetermined distances from known transmitter masts where magnetic A potential and B -field would be expected to have between them odd integral numbers of pi/2 phase difference on the basis of transmission frequency and propagation path. Types and frequencies of UHF transmission likely to produce the most intensive HUM in an area in conjunction with a strong medium wave field are also identified. Strong supporting evidence of the HUM as a coherently detected bio-effect possibly involving biological Josephson junction type behaviour is also presented.
Introduction
The author has recently shown that the
manifestation in sensitive individuals of the phenomenon known World- wide as
the HUM, and experienced extensively in parts of the
Distance Related Effects near
Radio and Television Transmitters
Over the last two decades, as the use of radio
communications has expanded faster than ever before there have been equally
increasing concerns about its general safety.
The number of HUM reports World wide seems to
have mirrored this increase although there are comparatively few reports in big
cities (Deming 2004). The present author has provided explanations for this in
a previous publication (Barnes 2007). Other strange effects such as sleep
disturbances have also been reported as being associated with mobile telephone
transmitter installations. There is a phenomenal body of literature, too
extensive to review here, some of which is quoted by Henry Lai of
energyfields.org to suggest that bio-effects, often non- thermal, due to
electromagnetic radiation are very real and significant, and lead to
physiological consequences for individuals from the mild to the chronic and
even severe such as carcinogenesis, for example. Because of and in addition to such
findings, epidemiological studies ( Dolk 1 Sutton Colfield (1997), Dolk 2 All of UK
(1997), Cherry (2000), Michelozzi (2002), Ahlbom et al (2004) and Wolf (2004), have also been made,
mainly of cancer in individuals living close to various broadcast transmitting
facilities. One such study in the
A second larger study of more transmitters throughout the UK by Dolk et al.,(1997) (Dolk 2) was concerned with, findings for adult leukemia, skin melanoma, and bladder cancer near twenty high power radio and TV transmitters in Great Britain other than the Sutton Coldfield transmitter previously studied. It concluded that, “….while there is evidence of a decline in leukemia risk with distance from transmitters, the pattern and magnitude of risk associated with residence near the Sutton Coldfield transmitter do not appear to be replicated around other transmitters. Indeed in the Dolk 2 (1997) study the incidence in the risk of leukemia in particular seemed to be a maximum 15% higher than expected at distances in the range 2-10 km from transmitters but actually equal or lower than this at distances closer than 2km. Cherry 2000) in a study of the Sutro TV Transmitter, San Francisco and others have explained these findings elegantly in terms of radio frequency field effects relating to the side and main lobes of television and radio transmitting antennas. The Dolk studies (Dolk 1 &2 (1997) and their findings appeared to be at odds with the opinions of local residents, which, having being communicated to Smith, prompted him to re-examined it in the simplest manner so far as its published data allowed in Electromagnetic Hazard & Therapy (Best, 2001).
Smith and Best (2001) re-examines
the combined data from both Dolk1 (1997) and Dolk 2
(1997) studies and explains that since
the Study covered 20 transmitters from different parts of the UK, it is
reasonable to assume that any effects related to geographical or topographical
features and antenna design should average out. He believes this only leaves
the physical characteristics of the propagation of electromagnetic radiation
from which to seek a mechanism. He reaches the conclusion
that when all the data is
considered there is a highly significant peak in cancer incidence at on average
some 5 km from the transmitter masts
giving an observed to expected ratio of up to two fold. In following Smith’s logic, we must not loose
site of the fact that most British UHF TV transmitter masts are co-sited with
high power VHF FM facilities.
In seeking potential novel and new mechanisms to explain subtle energy bio-interactions, Smith( 2001 and 2004) and others ( Pitkanen 2006) have recently discussed water memory effects not only with regard to homeopathy but with regard to radio –frequency imprinting as well.A simple experiment involving a toroid and solenoid connected in series shows that when the magnetic A –potential and magnetic field vector- B are in opposite directions (180º or p/2 phase difference) the frequency of the current is imprinted into water placed nearby. When the A-potential and B field are parallel (zero phase difference) the frequency imprint is erased. Smith (2001) sees carcinogenesis associated with electromagnetic fields (and potentials) as a subtle bio-effect related to the Aharonov-Bohm effect first described in 1959. More recently it has been shown by van Vlaenderen (2001) that for electromagnetism the generalised Maxwell equations also contain scalar field terms which predict the existence of so called LES (longitudinal electro-scalar) waves in the vacuum which have an associated power flow term. Evans (2004) has stressed the possible importance of the Electromagnetic Aharonov-Bohm effect in radar and signalling technologies and is convinced that the effect is responsible for certain effects of radio frequency radiation on animal and human physiology. Additionally, if Batteaus’ (1968) hypothesis on nerve function proves correct, then the A –potential with its ability to perturb electron wave function at a distance may be able to directly influence nerve and brain tissue.
The present author also agrees
that the results as re-evaluated by Smith certainly appear to bear some kind of
a manifestation of the electromagnetic Aharonov –Bohm effect. For
instance, the electromagnetic radiation
(E- and B-fields) from a transmitter will experience refractive index and
propagate at the velocity of light in air, but the magnetic vector potential-A
(A-field), following the Aharonov-Bohm
effect, does not interact with matter (instead it alters the phase of the
electron wave-function) and so propagates at the vacuum velocity of light. At 5
km distance from a 100 MHz VHF FM transmitter, there will thus be a transit
time difference of 5 ns between the A and B fields,
based on standard values for the dielectric constant and refractive index of
air. At 100MHz, this distance or time
delay represents a 180º or pi/2 phase difference. This
would be the ideal condition for that frequency to be imprinted into any water
present such as living tissues. The frequency band 70MHz-130MHz would cover the
standard deviations in Smith’s data as plotted. In the UK VHF FM broadcasts can
be made anywhere within the band 88-108 MHz.
At the other end of the frequency
scale, there has been talk of restricting
the power output of some medium wave transmitters such as the one at Anguillara-Sabazia
(Italy) in response to pressure from the government on the basis of a ‘thermal effects’
hypothesis from “classical physics”. On
the basis of Smith’s findings and the work presented here that would seem
rather pointless.
Smith (Electromagnetic Man, Chapter
11) has further stated that possible bio-medical effects of the FM
transmissions should include stress by entrainment of the allergy acupuncture
meridian (AD1 in Voll-notation) which has an
endogenous frequency of 94 MHz. As with
power lines, there should be stress from chronic exposure to the
‘proving-symptoms’ for whatever homoeopathic potencies happen contain in this case,
frequencies in the region of 100 MHz.
Extension of Aharonov-Bohm hypothesis
The hypothesis presented by the present author is that it should be
wholly reasonable to expect Aharonov –Bohm type bio-interactions not only at pi/2 phase
difference between A and B but also at odd integer multiples of
this phase difference as well.
Cherry (2000) has
analysed the incidence of all cancers, brain cancer and leukaemia around the Sutro TV tower. In his
findings he concludes that cancer clusters coincide well with the radial
distances of the antenna lobes. However if one looks at the positive residual
variances in the data over and above those expected on a straight linear
decrease in cancer probability with distance from the transmitter, (Cherry
(2000), figure 11) it can be seen that there are significant increases in all
cancers at distances of .9 ,2.6 , 4.3 and 6.3 km from the transmitter. The actual UHF channels in use at the Sutro transmitter mast are UHF 32, 44, 60 and 66
corresponding to a minimum frequency of 560 MHz and a maximum frequency of 834
MHz. On the basis of expectant peaks in
bio-interaction, in this case carcinogenesis, one would expect families of
peaks in cancer incidence to occur at distances form the transmitter mast
corresponding to odd integer multiples of pi/2 phase between A and B at the
working frequencies. A working frequency of 834 MHz yields expected peaks for
the first, third, fifth and seventh integer multiples at distances of .89,
2.67, 4.45 and 6.29 Km from the mast. A working frequency of 560 MHz yields
distances of 0.6, 1.8, 3.0, 4.2 and 5.4 Km.
The data show a positive residual in the region of .9 km which is not
explained by the antenna characteristic alone, Cherry (2000) makes no comment
on this. It can be seen by the argument presented here that this residual has
as its most likely origin the Aharonov-Bohm type
electromagnetic bio-effect with A and
B exactly pi/2 out of phase at 834
MHz. Moreover, Cherry suggests the residual in the data which peaks at 4.3 km
is due to the antenna lobe at 4.5 km whereas a more accurate picture is
obtained by considering the mean of distances 4.2 and 4.45 Km predicted above.
The data also show a clear peaking positive residual at 6.3km which Cherry
attributes to the antenna main lobe at exactly 6 km distant from the tower.
However, a more accurate fit can be obtained by considering the influence of
the seventh integer Aharonove –Bohm electromagnetic bio-effect associated with 834 MHz
signal which peaks at exactly 6.29km from the transmitter. Generally the 834
MHz transmitter seems a more effective source of carcinogenesis than does the
one of 560 MHz frequency. Interestingly Smith has stated that the Ren 24 acupuncture point on the Ren
Mai meridian will entrain at a frequency of 730 MHz and up to 920 MHz but from his data it does not appear to do
the same at frequencies as low as 560
MHz.
Also the natural
resonant frequencies of the water molecule at 1.42 and 2.65 GHz are both
significantly closer to direct harmonics of the 834 MHz frequency than to those
of the 560 MHz frequency.
Method
for Active Prediction of HUM locations
So striking are the
above results for an interpretation of electromagnetically induced bio-effect
in cancer epidemiology, it was decided by the present author to see if the same
type of logic could be applied for the actual active prediction of HUM
locations. That is to predict exactly where on the map the HUM would be likely
to be perceived the loudest, and where, perhaps, it ought not to be perceived
at all, in that the HUM is also proposed to be a non-linear bio-acoustic effect
linking electromagnetism and quantum biology (Barnes 2007). The strategy for
such prediction is to calculate predetermined distances from known transmitter
masts where the magnetic potential (A-field)
and magnetic field B would be
expected to have between them odd integral numbers of pi/2 phase difference on the
basis of transmission frequency and propagation path. The method is simply to
make the calculation according to Smith considering that the B-field is affected by the refractive
index and dielectric constant of the propagation path whereas the A-field propagates in the vacuum at
full light speed. The distances, calculated from several transmitter masts
including one TETRA, two GSM 900MHz, one GSM 1800 MHz and a UHF TV transmitter
with co-sited VHF FM and DAB, were marked as radial circles on an ordnance survey
map and a number of sites conveniently accessible by road were selected on that
basis alone.
In all 7 sites were selected where A and B would be expected to fulfil the required pi/2 out of phase requirement with respect to
the TETRA transmitter, and a further five where A and B would be expected to be
3pi/2 out of phase.
Five sites were selected which would be
expected to produce the pi/2 relationship for
GSM900 and a further three sites to produce the
3pi/2 relationship. A further three sites were selected on the basis of the
3pi/2 relationship for a GSM1800 MHz transmitter. It was not possible to get
close enough to the transmitter mast by car to facilitate the much shorter pi/2
distance since the former was located in
an open field. A further seven sites
were investigated on the basis that they were located such as to give integral
numbers of pi/2 ranging from 9-13 in respect of the 100KW UHF TV installation at Llandonna on the island of Anglesey. In choosing each site, care was taken to make
sure the local geography was such as to exclude, as much as practically
possible, signals from other UHF and microwave sources. Such a practical
assessment and study is only possible in a semi-rural region like
Finally a further three sites were chosen with
a random phase relationship for all the transmitters concerned whilst trying to
ensure that at least some of these sites would still be line of site with some
or all of the transmitters yet not present any of the above odd integer phase
relationships.
The
The transmitter location grid references were
as follows:
TETRA; 579711
GSM 900 (1); 570718
GSM 900 (2); 579711
GSM 1800; 581712
UHF TV; 583806 (Co –sited with VHF FM and DAB)
AM 882 KHz; 632805
Experiments
All the experiments were performed on the same
night in January 2007. The weather conditions were calm and dry and the temperature
was about 7 Celsius. The HUM could be heard at the author’s home address before
embarking on the car journey to collect the experimental recordings. Both the
author and his wife are sensitive to the HUM and both agreed on subjective HUM
levels at the various locations on a scale of 0-10, 0 being equivalent to no
HUM level discerned ranging to 10 being ‘ear splitting’ or extremely unpleasant
HUM and equivalent to the loudest either had ever perceived the phenomenon in
the past. All the experiments were
performed by manually recording the perceived level in a parked car with the
engine off. The type of car was a Vauxhall Astra 1.8,
2002 model. At locations where the HUM
level was low i.e. 4 or under on the perception scale the author and his wife
waited for at least 20 seconds to see if there was any variation in the HUM
level. No recordings were taken in the vicinity of passing vehicles which
disrupt the HUM by both background noise interference and signal scattering
which causes Doppler shift and reduced coherence. The recorded results were transferred from
a paper log in to an XL spreadsheet on returning to the author’s residence.
Results
The results obtained are shown in Table 1
below.
Map reference |
A/B Phase relationship |
Transmitter |
Subjective Hum strength 0-10 |
Comment |
Normalised |
|
|
|
|
|
|
573719 |
180 DEGREES |
TETRA |
10 |
LOS |
|
578727 |
180 DEGREES |
TETRA |
10 |
LOS |
|
586726 |
180 DEGREES |
TETRA |
10 |
LOS |
|
593717 |
180 DEGREES |
TETRA |
8 |
NLOS |
|
591706 |
180 DEGREES |
TETRA |
8 |
NLOS |
|
583700 |
180 DEGREES |
TETRA |
8 |
LOS |
|
568706 |
180 DEGREES |
TETRA |
7 |
NLOS |
|
|
|
|
|
|
|
AVERAGE |
|
TETRA |
8.71 |
57% LOS |
15.2 |
|
|
|
|
|
|
618712 |
540 DEGREES |
TETRA |
10 |
LOS |
|
614697 |
540 DEGREES |
TETRA |
10 |
LOS |
|
607687 |
540 DEGREES |
TETRA |
4 |
NLOS |
|
598680 |
540 DEGREES |
TETRA |
10 |
LOS |
|
548692 |
540 DEGREES |
TETRA |
10 |
LOS |
|
|
|
|
|
|
|
AVERAGE |
|
TETRA |
8.8 |
80% LOS |
11 |
|
|
|
|
|
|
|
|
|
|
|
|
577715 |
180 DEGREES |
GSM 900 |
6 |
NLOS |
|
573713 |
180 DEGREES |
GSM 900 |
6 |
LOS |
|
584706 |
180 DEGREES |
GSM 900 |
8 |
LOS |
|
568706 |
180 DEGREES |
GSM 900 |
8 |
LOS |
|
573719 |
180 DEGREES |
GSM 900 |
10 |
LOS |
|
|
|
|
|
|
|
AVERAGE |
180 |
GSM900 |
7.6 |
80% LOS |
9.5 |
|
|
|
|
|
|
591718 |
540 DEGREES |
GSM900 |
9 |
LOS |
|
588720 |
540 DEGREES |
GSM900 |
6 |
LOS |
|
565708 |
540 DEGREES |
GSM900 |
6 |
LOS |
|
|
|
|
|
|
|
|
|
|
|
|
|
AVERAGE |
540 |
GSM900 |
7 |
100% LOS |
7 |
|
|
|
|
|
|
|
|
|
|
|
|
585713 |
540 DEGREES |
GSM1800 |
6 |
LOS |
|
568706 |
540 DEGREES |
GSM1800 |
8 |
LOS |
|
571713 |
540 DEGREES |
GSM1800 |
4 |
LOS |
|
|
|
|
|
|
|
AVERAGE |
540 |
GSM1800 |
6 |
100% LOS |
6 |
|
|
|
|
|
|
|
|
|
|
|
|
588716 |
ODD MULTIPLE 180 DEG |
UHF TV |
8 |
LOS |
|
579715 |
ODD MULTIPLE 180 DEG |
UHF TV |
6 |
NLOS |
|
574716 |
ODD MULTIPLE 180 DEG |
UHF TV |
6 |
NLOS |
|
573719 |
ODD MULTIPLE 180 DEG |
UHF TV |
10 |
LOS |
|
567717 |
ODD MULTIPLE 180 DEG |
UHF TV |
4 |
LOS |
|
555718 |
ODD MULTIPLE 180 DEG |
UHF TV |
8 |
NLOS |
|
544726 |
ODD MULTIPLE 180 DEG |
UHF TV |
10 |
LOS |
|
|
|
|
|
|
|
AVERAGE |
|
UHF TV |
7.4 |
57% LOS |
13 |
|
|
|
|
|
|
|
|
|
|
|
|
597710 |
RANDOM |
NO LOS |
0 |
|
|
605706 |
RANDOM |
NO LOS |
2 |
|
|
557712 |
RANDOM |
NO LOS |
0 |
|
|
557704 |
RANDOM |
LOS ALL |
0 |
|
|
Column 1 of the table merely shows the o/s grid
reference of the experimental location. Column 2 shows the phase relationship
between the A-potential and the B-field at each location. Column 3 shows the
transmitter type for which each location was optimised. Column 4 shows the
subjective perceived HUM strengths at each location together with the average
HUM strengths across each particular location type. Column 5 is the comment
column; LOS standing for line of sight communication path with the chosen
transmitter mast and NLOS standing for not line of site. Column 6 shows the
subjective HUM level obtained as a result of re-normalising the average levels
to take out imbalances in the data caused by none line of site propagation
paths.
It can be seen that all sites with a pi/2 or
npi/2 phase relationship between the A-potential and the B-field for their
chosen transmitter manifest the HUM to a greater or lesser degree, exactly as
predicted by the initial hypothesis. Further it can be seen that subjectively,
TETRA and UHF television have the largest potential to give rise to the HUM
followed by GSM900 mobile phone base stations, followed least of all by GSM1800
base stations, see figure 1. It can also
be seen that subjective HUM levels are not dependent on UHF field strength. For
instance going from a pi/2 to a 3pi/2 criterion as defined above trebles the
distance from the transmitter. For such an increase in distance, classical
electromagnetism would predict a fall in field strength to 1/9th its
original value, yet the subjective HUM level only falls to .72 of the original
for TETRA and .86 of the original for GSM900 over this trebling of distance from the respective
transmitters. It can further be
seen that sites which do not satisfy the Aharonov-Bohm
criteria have either no or minimal potential to cause the HUM, even in the case
where they are in direct line of site with all the above transmitter
installations.
Interfering
frequencies
An attempt was made to see if interference from
nearby frequency sources could modify the HUM.
A 100mW 49MHz source caused a miniscule reduction in the perceived HUM
amplitude when capacitively coupled directly to the
author’s outer ear. A 144 MHz 1 watt source made no difference whatsoever. A
446 MHz 100mW PMR source caused a minute increase in the perceived HUM
magnitude.
Confirmation of most
likely mechanism for HUM hearing
As previously discovered (Barnes 2007)
perception of the HUM requires very specific frequencies and magnetic field
strengths and it is not surprising, therefore, interfering signals even at
considerable local field strength have little discernable effect. Some contemporary scientists view certain
protein and nucleic acid segments of
biological cells and organelles as being room temperature superconductors and
therefore capable of, under appropriate circumstances, Josephson
junction type behaviour (Del Guidice et al 1989 and
Smith 2004). Classical Josephson junctions are used
in SQUID devices for the detection of brain wave magnetism and also for
microwave detection and for detection of Curl-free magnetic vector potential
fields (A-fields), indeed there are
several US patents on this use. An a.c. Josepson junction acts like
a perfect voltage to frequency converter (or the converse) and so it might
demodulate a frequency or amplitude varying A –potential. Taken with the weight
of evidence above ,in particular maximisation of the HUM phenomenon at odd npi/2 phase differences between A and B
for a given transmitter the results give extremely strong support to the most
likely mechanism of HUM hearing as coherent bio detection. It has not been possible from this experiment
to localise the precise place of bio detection, but in the author at least
secondary nerve stimulation as a result of the HUM would appear to occur
possibly causing tensor tympani syndrome as borne out by the Helmholtz resonator like change in pulse repetition
frequency when the outer ear is sealed with an airtight plastic sheet.
Direction of the HUM
It is impossible for individuals affected to
sense the direction of the HUM. The perfect omni-directional transmitting
antenna is the theoretical isotropic radiator. The converse is true of a
receiving antenna. If single cells or
even cellular clusters are responsible for the bio-detection of the HUM they
are far tinier than a wavelength and would therefore be expected to act as
isotropic. When the HUM amplitude is quite weak it is sometimes necessary to
turn the head a couple of times before it can be discerned. It is interesting
to note that Smith (2006) has mentioned
that tapping, shock or shaking is needed when radio-imprinting water and
comments that clearly something unusual is happening in space and time in order
to facilitate this requirement. Maybe
turning of the head does something similar to bio fluids in the brain or
hearing apparatus. Involving infrasound,
in addition to electromagnetic radiation the Hum will have components which are
seismic or vibratory and components of near vertical incidence which have been
shown to originate from at least jet stream height. This also accounts for people’s perceived difficulty
in locating a Hum direction .
Conclusions
The present work shows the following
conclusions:
Implications and the
future
The implications of this study and the previous
on of the author (Barnes 2007) to the general public, planners and users of the
radio frequency spectrum are immense. Doubts have been raised in the past
concerning the simplistic approach that it is only dangerous to be within the
near field or at least very close to say within a few tens metres at the most
of a UHF/ microwave transmitting antenna.
This study has shown that the acoustic electromagnetic bio-effect known
as the HUM is precipitated in locations and at field strengths not previously
thought to be in any way hazardous. At the very least, the HUM is a nocturnal
nuisance; at most, sites wherein it is perceived might even constitute
dangerous bio-hazards. In the meantime we should err on the side of caution and
reduce power levels of all broadcasting and communications facilities to an
absolutely practical minimum. Mobile telephone receivers for example are
capable of working at field strengths between 1-10,000 times less than those
currently employed. Armed with this type
of information in the future transmitter site planners and even general
building town and country planners will have more idea how to locate buildings
and transmitters to minimise bio-effects such as the HUM. It may be that in
future as the quantum biological manifestations of the electromagnetic
interaction become better understood that certain specific frequencies and
modulation schemes will also have to be avoided.
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