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Geodivining
is a unique geoprospecting method developed by
the British South African geologist and water
diviner, Doug Bates, who came to Scotland
in 1991 with valuable and broad geological
experience gained in Southern Africa where he
worked for Tg Exploration (a subsidiary of
Texasgulf Inc. USA). Working in Scotland, he
extended his knowledge to include the richly
varied geological environments of Scotland,
England and Wales, and combined it with his
interest in (and ancestral history of) the
ancient intuitive art of water divining, or
"dowsing".
This
unique synthesis of the science of geology and
the art of divining found a ready market in
Scotland, and led to the foundation of
Geodivining International in 1994. Since then the
business has developed rapidly, expanding into
mineral and oil exploration, and developing
international markets.
Working
with all the major water well drillers in
Scotland, in our first four years we
successfully found new good quality water
supplies for over 200 clients, ranging from
domestic drinking water supplies to large scale
irrigation and industrial developments. We have
now been going for 10 years with over 1000
clients.
Recent
successes include a 120m deep 180,000
litre/hour borehole for a natural mineral water
bottling development near Dumfries; a 140m deep
72,000 l/hr test borehole at Longannet Power
Station in Fife; Two 108m deep boreholes at
Gleneagles Hotel and Golf Courses with a combined
yield of 70,000 l/hr; a 100m deep 100,000 l/hr
irrigation borehole (cover photograph) at
Burnside of Boysack, Arbroath, which has the
strongest artesian flow ever found in Scotland;
and many farm irrigation wells in the dry East
coast regions of Angus, Fife, and Lothian,
yielding 45,000 to 90,000 l/hr of high quality
ground-water, often in places where general
hydrological prospects were poor, and where
previous single or multiple drilling attempts had
been unsuccessful.
Even
in the hard non-porous igneous and metamorphic
rocks of the Highlands and Islands and Grampian
regions we regularly find good quality domestic,
agricultural, and industrial water supplies, in
boreholes of 30 - 90m depth yielding 500 to
50,000 l/hr proven in many places where ordinary
hydrological advice was not to drill, and where
previous drilling attempts had failed. In one
such example, for Sangs (Banff) Ltd,
Geodivining accurately pinpointed and assessed a
source that yields a constant supply of 11,700
l/hr from a 60m well in the Precambrian Macduff
slate formation, in a half-hectare hilltop site
that had previously been drilled, to the same
depth, 8 times without success!
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All
of these failed boreholes were in close proximity
to the successful well; two of them within 10m!
This example is one of many that serve to
graphically demonstrate the distinct advantages
of our accurate geoprospecting techniques;
particularly the degree of precision that
is possible and necessary to be sure of a
successful outcome in this type of environment.
The
Sangs borehole being drilled, August 1995
Doug located an intersection of 2 deep
near-vertical faults or fractures and carefully
marked an exact drilling site for optimum
productivity. He forecast a sustainable yield of
2600 gallons/hour (11700 l/hr) from a productive
zone intersecting both fractures between 150ft
and 200ft (45 to 60m). Drilling intersected the
first productive fracture at 150-165ft and the
second at 186-195ft, and proved a 30 day test
yield of 3000 gall/hr and a sustainable yield of
2600 gall/hr.
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Using Doug's thorough and precise hydrogeological
/ water divining survey methods, we maintain a
high full-satisfaction success-rate,
consistently above 80% on first-attempt water
well drilling, and over 90% of our clients
finish up with an adequate water supply. Our
boreholes typically outperform the normal
hydrological yield expectations by factors of 2x
to 20x. Our
unique combination of geoscientific know-how and
intuitive water divining skill has resulted in an
extraordinary track record of success and a
reputation in the water development industry
second to none. Our results prove unequivocally
that even in this technological age, the human
mind-brain-body trinity is still the most
sensitive, versatile and accurate remote-sensory
geophysical instrument known to man.
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| Doug Bates, using a
traditional forked-stick divining rod to exactly
locate the deep faults and fractures which are
the natural conduits for rapid groundwater flow
in most bedrock formations. "Basic
water divining like this will work for most
people who give it half a chance," says
Doug; "It's an innate ability that we all
have to some degree, but like all skills it takes
long and dedicated practice to perfect the
art."
One
of the most amazing aspects of advanced water
divining is its goal-oriented nature.
Doug
has repeatedly demonstrated his ability to screen
out unwanted signals and selectively locate the
highest yielding source in a given area, the
nearest source capable of producing a given
minimum yield, or the best source in a given
depth range; and to selectively measure and
forecast drilling depths and yields.
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"It's all in the mind," says Doug,
"Successful divining is all about logical
thought and being specific, so the more logical
and specific you are, the better it works."
This is where Doug's geological training is
valuable because he knows what to look for in
different geological environments, and how to
apply scientifically disciplined logic to his
prospecting techniques. "The body and rod
can be thought of as an instrument that can
apprehend a target in a number of ways," he
says, "but it is the diviner's mind that
sets the mode of operation, and calibrates the
instrument to recognise pre-selected target
criteria."We
owe our remarkable success to these unique survey
methods which almost infallibly identify the best
drilling locations even in the most difficult
geological environments; principally on major
vertical or sub-vertical geostructural aquifers
such as faults, joint fissures, fracture zones,
and sometimes dyke margins, which act as major
conduits for groundwater flow in nearly all rock
formations, and are most favourably disposed for
productive intersection by vertical boreholes.
We
do not pick and choose our customers. In fact, we
have never turned down a job, however small,
distant, or difficult; and naturally it is in
areas where water is most difficult to find that
our Geodivining services are most frequently in
demand. For the service we provide our fees are
modest; and most clients consider us to be good
value for money. Clients in the U.K. are offered
the option of paying an hourly rate, or buying a money-back
guarantee. Our guaranteed survey fees are
fairly and affordably linked to the minimum yield
requirements of each client, catering for all
jobs from domestic supplies as little as 100
l/hr, to large agricultural and industrial
supplies up to a maximum guaranteeable yield of
100,000 l/hr.
No
survey job is too small, too large, too distant,
or too difficult for us to tackle efficiently and
economically.
We aim always to locate and delineate the
best available sources of groundwater in terms of
both yield and quality, and to assess their
productive depth range and their continuously
sustainable yield potential, also taking into
account many environmental, logistical and
convenience factors, before careful selection of
the exact drilling positions. This enables us to
match water sources to our clients' water supply
requirements, thus fully satisfying their needs
with a single borehole in over 80% of cases.
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Such precision can not be achieved by any
other survey method. In groundwater surveying
Geodivining is still well ahead of even the most
expensive state-of-the-art geophysics.
Furthermore, our techniques are non-intrusive,
efficient, and highly cost-effective. No
other hydrogeological consultancy in the U.K.
offers such a high degree of commitment to
getting it right, and responsibility for
occasionally getting it wrong. Our guaranteed
commitment to no-nonsense realism and precision
in assessing groundwater prospects ensures that
we always give our clients the best possible
advice; and although we often confidently
recommend drilling where others might not dare,
or have already failed, this self-regulating duty
of care is reflected in our remarkable and
continuous record of successful groundwater
development.
Associated
development costs are among the lowest in the
industry. Conventional hydrogeological
prospecting, even employing the extensive use of
time-consuming and often costly geophysics, is
generally not able to deliver the kind of
detailed site-specific information that
Geodivining routinely discovers, until a number
of test boreholes have been drilled; and even
then, the best sources may sometimes remain
undiscovered. Because Geodivining is so accurate
and goal-oriented, test drilling is seldom
necessary on developments surveyed in this way,
and our production boreholes typically achieve
higher yields for less drilling, than most
conventionally sited boreholes. Geodivining is
therefore an excellent stand-alone survey method
for all groundwater developments where budgetary
constraints prevent the use of geophysical
surveying and the conventional test-drilling
approach.
On
most groundwater developments, savings on
drilling and other development costs can be quite
substantial, justifying our survey fees many
times over, even where thorough geological and
geophysical surveying has already been planned or
completed. We do not mean to imply that
conventional surveying is of less value than
Geodivining. On the contrary, the broader base on
which conventional methods operate is essential
for larger scale aquifer assessment and
development, and achieves a great deal that our
selective goal-oriented methods do not.
The
two methods overlap, but are also distinctly
different in their approach, execution, and
results, and for the best results they should
ideally be used together. The whole idea of Geodivining
is to achieve this union between
geoscience and the art of divining and apply it
to the benefit of all our clients.
The
implications for large projects and regional
development programs are enormous. Our
consistently high success rate and high yield to
depth ratios generally enhance project
productivity at least two-fold, and sometimes
four or five fold, effectively saving large sums
of money and enabling much more productive work
to be done within a given budget. (We have a
separate 11-page article by Doug Bates,
originally published in the water forum of the
Global Water Partnership. Copies are available by
request or on the internet at
http://www.gwpforum.org under the heading of
"general discussion"; which gives a
brief history of water divining, some
illustrative examples, and detailed discussion of
the practical and economic benefits to government
organisations and N.G.Os.)
The
commercial value of Geodivining to Mining
companies and Oil & Gas companies is
likewise enormous. The combination of
conventional and unconventional exploration
techniques that we can bring to bear in the
search for these natural resources is a powerful
tool for increasing productivity in all stages of
exploration and resource development work. (We
also have separate articles by Doug Bates, on the
subjects of Mineral Exploration and Oil
Exploration, available by request to companies
and individuals involved in these industries.)
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Who uses Groundwater, How much, and
Why ?
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| CONSUMER GROUPS / USES |
DAILY & HOURLY CONSUMPTION RATES (IN
LITRES) |
REASONS FOR CHOOSING TO USE, OR HAVING TO
USE GROUNDWATER |
| Private Rural Home Owners and New Home
Builders. |
500 to 3,000 l/day
100 to 1,000 l/hr |
Public water supply not available, or too
distant to connect to economically. Personal
preference for natural groundwater instead of
treated or recycled water. |
| Hamlets, Crofts, and Smallholdings. |
2,000 to 15,000 l/day
500 to 5,000 l/hr |
Existing surface or shallow well supplies are
often polluted with bacteria, nitrates,
agro-chemicals, oil, etc; or may be inadequate or
seasonally unreliable. |
| Poultry farms and egg producers. |
5,000 to 30,000 l/day
1,000 to 10,000 l/hr |
Existing supplies are often inadequate for
larger more intensive modern farming methods and
modern standards of hygiene and animal welfare. |
| Stock Farms, and Dairy Farms. |
10,000 to 50,000 l/day
2,000 to 10,000 l/hr |
Metered water, if available, is a major
expense for farmers today, typically costing
£1,000 to £10,000 p.a. |
| Small Agricultural Industries such as fruit,
potato, or vegetable washing & processing,
Oil-seed processing, Farm Creameries, etc. |
10,000 to 100,000 l/day
2,000 to 20,000 l/hr |
For this sector, metered water may cost
£2,000 to £20,000 p.a. This is a substantial
rising overhead that affects both profitability
and viability of many small businesses, making a
modest capital investment in private borehole
developments an attractive option. Boreholes
usually deliver the high quality water needed. |
| Nurseries & Garden Centres, Public Parks
and Sports Grounds. |
20,000 to 200,000 l/day
5,000 to 40,000 l/hr |
Water used mainly for irrigation, water
features, etc; Public water supply is often not
readily available for such purposes, and may be
prohibitively expensive. |
| Golf Courses, and large public parks &
amenities. |
50,000 to 1,000,000 l/day
5,000 to 100,000 l/hr |
Larger scale consumption makes public water
supply prohibitively expensive in nearly all
cases. |
Sand & Gravel Quarries, Washers &
Graders.
Concrete Production. |
50,000 to 2,000,000 l/day
5,000 to 200,000 l/hr |
Surface waters may be treated and used where
available and water recycling systems are often
used, but ground-water development is
increasingly the most practical, economic, and
environmentally friendly alternative. |
| Natural Mineral Water & Soft Drinks
Producers. |
100,000 to 2,000,000 l/day
10,000 to 200,000 l/hr |
Natural mineral water must be top quality
groundwater, free of microbiological and chemical
contaminants. |
| Breweries, Maltings, and Distilleries. |
200,000 to 2,000,000 l/day
20,000 to 200,000 l/hr |
Chlorinated water is expensive and
undesirable for soft drinks production and
brewing. Sulphate in groundwater may enhance
brewing & malting processes. |
| Large Food Processing & Manufacturing
industries. |
200,000 to 3,000,000 l/day
20,000 to 300,000 l/hr |
High Quality Groundwater is a valuable
commodity to these industries. Public supply may
cost £30,000 to over £500,000 in some cases. |
| Fish Farms, Hatcheries, & other
Aquaculture. |
200,000 to 5,000,000 l/day
10,000 to 500,000 l/hr |
Unlike surface waters, Groundwater is usually
free of microbiological pathogens, and has
relatively constant temperature all year;
typically between 7 and 12 deg. C.
Characteristics greatly beneficial to
aquaculture. |
| Arable Farm Irrigation. |
500,000 to 10,000,000 l/day
50,000 to 1,000,000 l/hr |
Use of surface waters may be restricted or
prohibited. Groundwater development for
irrigation improves crop yields and quality, and
enhances land value. |
Heavy Industries, cooling & fire control
systems, Power Stations, Chemical Works, Paper
Mills, etc.
Civil Engineering, Mining. |
500,000 to 50,000,000 l/day
50,000 to 2,500,000 l/hr |
Public water supply can cost Millions. At
these levels of consumption, where groundwater is
available in large sustainable quantities, it
presents a resource of immense economic
importance to agriculture and industry. |
| Public Water Supply. |
500,000 - 500,000,000 l/day
25,000 to 25,000,000 l/hr |
Excellent quality
groundwater resources are found in many places,
needing less filtration and treatment than
typical surface water supplies. Boreholes are
cheaper to develop and maintain than reservoirs,
and less wasteful. |
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