This document summarizes the global water crisis, noting that over 1 billion people lack access to safe drinking water. It introduces the concept of megawatersheds as a potential solution, describing how fractured bedrock acts as a natural distribution system for large quantities of fresh water. Megawatershed development offers significant benefits like improved health and economic development. Several case studies are provided where EarthWater has successfully located large sources of groundwater in areas previously thought to have little water.
On Earth water has too many forms and variety which
are necessary specifically for particular geographical as well as
environmental surroundings. Below 1% of the world's fresh
water (0.007% of all water on earth) is reachable for direct
human uses. Water pollutions now become a part of concern and
disquiet in country like India. Large parts of water which are life
supportive get contaminated because of illegal activities of human
beings. Water effluence is a major problem globally. It is the
leading worldwide cause of deaths and diseases, and that it
accounts for the deaths of more than 14,000 people daily. In
addition to the acute problems of different problems in
developing countries, industrialized countries continue to
struggle with water pollution problems as well. There are many
inorganic metals which are contaminating water bodies which
serve life to large part of India, Arsenic (As) is one of the biggest
threats for water bodies. High toxicity of Arsenic poses a serious
risk not only to ecological systems but also for human health.
There is availability of sophisticated techniques for arsenic
removal from contaminated water, development of new
laboratory based techniques along with cost reduction and
enhancement of conventional techniques are essential for the
benefit of common people. This paper is based on the future
aspects, for removal of Arsenic from drinking water or the water
of different rivers like Ganga, Gomti and Yamuna etc which
humans are consuming for domestic purpose. Demograph
estimate that around 52 millions peoples are drinking ground
water with arsenic concentrations above the guidelines of World
Health Organization. WHO proposed a parameter or MIC for
Arsenic i.e. of 10 parts per billion (ppb) or 0.010 Mg/L, it is found
that level of Arsenic has been increased vigorously in many
rivers. Objective is to apply Bioremediation technique with the
help of batch culture that needs Bioremediators to detoxify
contaminated water and helps in maintaining the original quality
of water.
On Earth water has too many forms and variety which
are necessary specifically for particular geographical as well as
environmental surroundings. Below 1% of the world's fresh
water (0.007% of all water on earth) is reachable for direct
human uses. Water pollutions now become a part of concern and
disquiet in country like India. Large parts of water which are life
supportive get contaminated because of illegal activities of human
beings. Water effluence is a major problem globally. It is the
leading worldwide cause of deaths and diseases, and that it
accounts for the deaths of more than 14,000 people daily. In
addition to the acute problems of different problems in
developing countries, industrialized countries continue to
struggle with water pollution problems as well. There are many
inorganic metals which are contaminating water bodies which
serve life to large part of India, Arsenic (As) is one of the biggest
threats for water bodies. High toxicity of Arsenic poses a serious
risk not only to ecological systems but also for human health.
There is availability of sophisticated techniques for arsenic
removal from contaminated water, development of new
laboratory based techniques along with cost reduction and
enhancement of conventional techniques are essential for the
benefit of common people. This paper is based on the future
aspects, for removal of Arsenic from drinking water or the water
of different rivers like Ganga, Gomti and Yamuna etc which
humans are consuming for domestic purpose. Demograph
estimate that around 52 millions peoples are drinking ground
water with arsenic concentrations above the guidelines of World
Health Organization. WHO proposed a parameter or MIC for
Arsenic i.e. of 10 parts per billion (ppb) or 0.010 Mg/L, it is found
that level of Arsenic has been increased vigorously in many
rivers. Objective is to apply Bioremediation technique with the
help of batch culture that needs Bioremediators to detoxify
contaminated water and helps in maintaining the original quality
of water.
This article has three objectives: 1) to demonstrate that there is a drastic change in the Earth's climate thanks to global warming, which is contributing to the occurrence of floods in cities that are increasingly catastrophic in their effects; 2) propose measures to combat global climate change; and 3) propose measures to prepare cities to face extreme weather events. Recently, floods have occurred that expose the vulnerability of cities in Europe and China to the most extreme weather. After the floods that killed people in Germany, Belgium and China, the message was reinforced that significant changes are needed to prepare cities to face similar events in the future. Governments need to admit that the infrastructure they built in the past for cities, even in more recent times, is vulnerable to these extreme weather events. To deal with the floods that will become more and more frequent, governments need to act simultaneously in three directions: the first is to combat global climate change; the second is to prepare cities to face extreme weather events and the third is to implement a sustainable society at the national and global levels.
Randy Lehr (Northland College), presented at the Adapting Forested Watersheds to Climate Change Workshop, at The Waters, Minocqua, WI on March 15-16, 2017. The workshop was hosted by the Northern Institute of Applied Climate Science (NIACS), USDA Climate Hubs, and the Wisconsin Initiative on Climate Change Impacts (WICCI).
This presentation is all about the different types of water resources on the planet Earth and this presentation also shows what kind of cycle that water undergoes to create rain, snow or hail. This presentation is also about how we can find different kinds of things that we normally do that destroys our bodies of water specially climate change and water pollution.
This presentation highlights the occurrence of floods in India as a part of Environmental Studies. A brief idea about traditional methods of water management and the phenomenon of bio-precipitation is also included. Various sources from the internet were referred during this compilation.
Fresh Water resources
Global Overview
Volume of water stored in the water cycle's reservoirs
Scarcity of fresh water
Water consumption for food production (I)
Competing water uses
Fresh Water supply
Problems related to Water crisis
Threats to fresh water resources
Distribution of population and water resources
Pressure of freshwater ecosystem
Fresh Water Outlook
Water in China
Desalination of sea water as fresh water supply
Water Scarcity Of Water Pollution
Water Scarcity Essay
Thesis Statement On Water Scarcity
The Scarcity of Water Essay
Water Scarcity In Africa
Water Scarcity
The History Of Drinking Water
Causes Of Water Scarcity Of Niger
Scarcity Of Water
Water Pollution and Water Scarcity Essay
Causes Of Water Scarcity
The Scarcity Of Water Crisis
The Scarcity Of Clean Water
The Water Crisis and Solutions Essay
Speech On Water Scarcity
Water Scarcity Of Clean Water
Water Scarcity
Water Scarcity Essay
46 S C I E N T I F I C A M E R I C A N A u g u s t 2 0 0 8.docxgilbertkpeters11344
46 S C I E N T I F I C A M E R I C A N A u g u s t 2 0 0 8
C
A
RY
W
O
LI
N
SK
Y
A friend of mine lives in a middle-class neighborhood of New Delhi, one of the richest cities in India. Although the area
gets a fair amount of rain every year, he wakes
in the morning to the blare of a megaphone an-
nouncing that freshwater will be available only
for the next hour. He rushes to fill the bathtub
and other receptacles to last the day. New Del-
hi’s endemic shortfalls occur largely because wa-
ter managers decided some years back to divert
large amounts from upstream rivers and reser-
voirs to irrigate crops.
My son, who lives in arid Phoenix, arises to
the low, schussing sounds of sprinklers watering
verdant suburban lawns and golf courses.
Although Phoenix sits amid the Sonoran Desert,
he enjoys a virtually unlimited water supply. Pol-
iticians there have allowed irrigation water to be
shifted away from farming operations to cities
and suburbs, while permitting recycled waste-
water to be employed for landscaping and other
nonpotable applications.
As in New Delhi and Phoenix, policymakers
worldwide wield great power over how water
resources are managed. Wise use of such power
will become increasingly important as the years
go by because the world’s demand for freshwa-
ter is currently overtaking its ready supply in
many places, and this situation shows no sign of
abating. That the problem is well-known makes
it no less disturbing: today one out of six people,
more than a billion, suffer inadequate access to
safe freshwater. By 2025, according to data
released by the United Nations, the freshwater
resources of more than half the countries across
the globe will undergo either stress—for exam-
ple, when people increasingly demand more
water than is available or safe for use— or out-
right shortages. By midcentury as much as three
quarters of the earth’s population could face
scarcities of freshwater.
Scientists expect water scarcity to become
more common in large part because the world’s
population is rising and many people are getting
richer (thus expanding demand) and because
global climate change is exacerbating aridity
and reducing supply in many regions. What is
more, many water sources are threatened by
faulty waste disposal, releases of industrial pol-
lutants, fertilizer runoff and coastal influxes of
saltwater into aquifers as groundwater is deplet-
ed. Because lack of access to water can lead to
starvation, disease, political instability and
even armed conflict, failure to take action can
have broad and grave consequences.
Fortunately, to a great extent, the technolo-
gies and policy tools required to conserve exist-
KEY CONCEPTS
n Global freshwater resourc-
es are threatened by rising
demands from many quar-
ters. Growing populations
need ever more water for
drinking, hygiene, sanita-
tion, food production and
industry. Climate change,
meanwhile, is expected to
contribute to.
This article has three objectives: 1) to demonstrate that there is a drastic change in the Earth's climate thanks to global warming, which is contributing to the occurrence of floods in cities that are increasingly catastrophic in their effects; 2) propose measures to combat global climate change; and 3) propose measures to prepare cities to face extreme weather events. Recently, floods have occurred that expose the vulnerability of cities in Europe and China to the most extreme weather. After the floods that killed people in Germany, Belgium and China, the message was reinforced that significant changes are needed to prepare cities to face similar events in the future. Governments need to admit that the infrastructure they built in the past for cities, even in more recent times, is vulnerable to these extreme weather events. To deal with the floods that will become more and more frequent, governments need to act simultaneously in three directions: the first is to combat global climate change; the second is to prepare cities to face extreme weather events and the third is to implement a sustainable society at the national and global levels.
Randy Lehr (Northland College), presented at the Adapting Forested Watersheds to Climate Change Workshop, at The Waters, Minocqua, WI on March 15-16, 2017. The workshop was hosted by the Northern Institute of Applied Climate Science (NIACS), USDA Climate Hubs, and the Wisconsin Initiative on Climate Change Impacts (WICCI).
This presentation is all about the different types of water resources on the planet Earth and this presentation also shows what kind of cycle that water undergoes to create rain, snow or hail. This presentation is also about how we can find different kinds of things that we normally do that destroys our bodies of water specially climate change and water pollution.
This presentation highlights the occurrence of floods in India as a part of Environmental Studies. A brief idea about traditional methods of water management and the phenomenon of bio-precipitation is also included. Various sources from the internet were referred during this compilation.
Fresh Water resources
Global Overview
Volume of water stored in the water cycle's reservoirs
Scarcity of fresh water
Water consumption for food production (I)
Competing water uses
Fresh Water supply
Problems related to Water crisis
Threats to fresh water resources
Distribution of population and water resources
Pressure of freshwater ecosystem
Fresh Water Outlook
Water in China
Desalination of sea water as fresh water supply
Water Scarcity Of Water Pollution
Water Scarcity Essay
Thesis Statement On Water Scarcity
The Scarcity of Water Essay
Water Scarcity In Africa
Water Scarcity
The History Of Drinking Water
Causes Of Water Scarcity Of Niger
Scarcity Of Water
Water Pollution and Water Scarcity Essay
Causes Of Water Scarcity
The Scarcity Of Water Crisis
The Scarcity Of Clean Water
The Water Crisis and Solutions Essay
Speech On Water Scarcity
Water Scarcity Of Clean Water
Water Scarcity
Water Scarcity Essay
46 S C I E N T I F I C A M E R I C A N A u g u s t 2 0 0 8.docxgilbertkpeters11344
46 S C I E N T I F I C A M E R I C A N A u g u s t 2 0 0 8
C
A
RY
W
O
LI
N
SK
Y
A friend of mine lives in a middle-class neighborhood of New Delhi, one of the richest cities in India. Although the area
gets a fair amount of rain every year, he wakes
in the morning to the blare of a megaphone an-
nouncing that freshwater will be available only
for the next hour. He rushes to fill the bathtub
and other receptacles to last the day. New Del-
hi’s endemic shortfalls occur largely because wa-
ter managers decided some years back to divert
large amounts from upstream rivers and reser-
voirs to irrigate crops.
My son, who lives in arid Phoenix, arises to
the low, schussing sounds of sprinklers watering
verdant suburban lawns and golf courses.
Although Phoenix sits amid the Sonoran Desert,
he enjoys a virtually unlimited water supply. Pol-
iticians there have allowed irrigation water to be
shifted away from farming operations to cities
and suburbs, while permitting recycled waste-
water to be employed for landscaping and other
nonpotable applications.
As in New Delhi and Phoenix, policymakers
worldwide wield great power over how water
resources are managed. Wise use of such power
will become increasingly important as the years
go by because the world’s demand for freshwa-
ter is currently overtaking its ready supply in
many places, and this situation shows no sign of
abating. That the problem is well-known makes
it no less disturbing: today one out of six people,
more than a billion, suffer inadequate access to
safe freshwater. By 2025, according to data
released by the United Nations, the freshwater
resources of more than half the countries across
the globe will undergo either stress—for exam-
ple, when people increasingly demand more
water than is available or safe for use— or out-
right shortages. By midcentury as much as three
quarters of the earth’s population could face
scarcities of freshwater.
Scientists expect water scarcity to become
more common in large part because the world’s
population is rising and many people are getting
richer (thus expanding demand) and because
global climate change is exacerbating aridity
and reducing supply in many regions. What is
more, many water sources are threatened by
faulty waste disposal, releases of industrial pol-
lutants, fertilizer runoff and coastal influxes of
saltwater into aquifers as groundwater is deplet-
ed. Because lack of access to water can lead to
starvation, disease, political instability and
even armed conflict, failure to take action can
have broad and grave consequences.
Fortunately, to a great extent, the technolo-
gies and policy tools required to conserve exist-
KEY CONCEPTS
n Global freshwater resourc-
es are threatened by rising
demands from many quar-
ters. Growing populations
need ever more water for
drinking, hygiene, sanita-
tion, food production and
industry. Climate change,
meanwhile, is expected to
contribute to.
IN DEFENSE OF THE RATIONAL USE OF WATER, A SOURCE OF LIFE, ON WORLD WATER DAY...Faga1939
This article aims to highlight the importance of water for life on planet Earth, present how water emerged on our planet and demonstrate the lack of rationality in the use of water for its various purposes on planet Earth. Research carried out by the São Paulo State University (Unesp), Guaratinguetá campus, in collaboration with the Federal Technological University of Paraná (UTFPR) and the Astrobiology Institute of the North American space agency (NASA), considered that existing water on planet Earth would have become originated from comets (30%), asteroids (50%) and the solar nebula (20%) that collided with Earth. Around 800 million people do not have access to drinking water around the world, 2.5 billion people do not have basic sanitation and, between 3 billion and 4 billion people, which corresponds to half of the world's population, do not have access to water on a permanent basis using water of questionable quality every day and 11% of the world's population still shares water with animals in riverbeds. According to the WHO (World Health Organization), seven people die every minute in the world from drinking rotten water and more than 1 billion people still defecate in the open. The OECD (Organization for Economic Cooperation and Development) reports that global water demand will increase by 55% by 2050. The forecast is that this year, 2.3 billion additional people – more than 40% of the world's population – will not have access to water if adequate measures are not adopted. Therefore, we have nothing to celebrate on World Water Day.
1. GLOBAL WATER CRISIS
“Water is life’s matter and matrix, mother and medium. There is no life without water.”
Albert Szent-Gyorgyi, Nobel Prize Winner for Medicine
2. Fresh, potable water is the
most important natural resource
on Earth for which there is no
substitute; it is an essential
element to every facet of life.
With 55 nations failing to meet
their water-related Millennium
Development Goal target, the
United Nations recently declared
water a “Global Crisis”.
www.UN.org/MillenniumGoals
Lack of fresh water is one of
the most critical issues facing
mankind today.
only 1% of the earth’s water is fit for human consumption.
3. Worldwide, over 1.1 billion people (roughly 20% of the
world’s population) lack access to safe drinking water.
Lack of clean water is the leading cause of disease in
the world resulting in 4,500 children dying each day.
21 of the 37 major diseases in developing countries
are water and sanitation related; no single type of
intervention has a greater overall impact upon national
development and public health than the provision of
safe drinking water.
The World Health Organization estimates that water
related diseases account for 80% of all sicknesses in
the developing world and claim approximately 5 million
lives each year.
Over 1 billion people must walk 3 hours or more to
obtain drinking water; individuals spend more than
200 million hours per day walking to collect water from
distant, often polluted sources.
Water usage varies greatly around the globe and is
highly correlated with economic development and
availability. In the US, per capita usage is estimated
to be 100 to 176 gallons per day; in Africa, the
comparable figure is 5 gallons.
4. If no action is taken to meet basic water needs, as many as 135 million people
may die from water-related diseases by 2020.
The United Nations estimates that within 20 years 3 billion
people in 50 countries, or 30% of the world’s population,
will face severe water shortages.
Global water consumption is increasing at twice the rate
of population growth. The human population more than
tripled in the 20th century while water use grew six fold.
Demographers expect the world population to continue
growing from 6.5 to 9.1 billion people by 2050, an increase
of 40%.
Throughout the developing world, increased urbanization
and industrialization, and the pollution associated with both,
continue to stress woefully inadequate fresh water resources
and infrastructure.
Inefficient irrigation in the developing world can account for
80 to 90% of a region’s total water usage.
The UN declared Africa the continent most vulnerable to
global warming; reports indicate that climate changes could
result in water scarcity for up to 250 million Africans within
15 years.
5.
6. Contrary to inadequate conventional approaches, a large-scale, proven and sustainable
alternative exists… for those with the vision and foresight to imagine a new direction.
7. Traditional fresh water sources, surface water and
shallow alluvial wells, have reached their productive limits
and are increasingly unreliable. These sources are finite
and, in fact, are declining due to overuse and pollution.
Conventional “solutions” to procuring additional fresh
water, dams and desalination plants, are inadequate,
destructive to the environment and unsustainable.
Dams can cost hundreds of millions of dollars and
take years to construct. They displace indigenous
populations, adversely impact the environment, destroy
productive agricultural lands, and are susceptible to
evaporation and siltation which limit water output.
Desalination plants can cost tens of millions of dollars,
are energy-intensive and are costly to operate. These
plants must be periodically rebuilt and negatively impact
the environment by discharging hot brine (their corrosive
byproduct) directly into marine eco systems and
coral reefs.
8. The Earth’s crust - a massive, relatively unex-
plored realm in terms of water development -
contains enormous volumes of renewable,
fresh water.
In a novel departure from the well-established
watershed concepts embedded in traditional
hydrology, the Megawatershed Paradigm
recognizes the movement of water through
large-scale fracture systems within the Earth’s
crust. These water conductive fractures are the
result of tectonic activity over millennia; over time,
these channels are enlarged through erosion
enabling water to travel over long distances.
Using the best of science and technology, these
resources can be developed on a large-scale,
and sustainable basis.
The implications of the Megawatershed Paradigm
are profound: the realization that substantial fresh
water can be accessed wherever the proper
geological conditions exist can have a dramatic
impact on world health and development; these
conditions exist on every continent and in the
vast majority of countries around the world.
THE ACTUAL AMOUNT OF RENEWABLE GROUNDWATER AVAILABLE IN A GIVEN GEOGRAPHY
IS 10 TO 100 TIMES THE QUANTITY ASSUMED UNDER CONVENTIONAL HYDROLOGICAL THEORY.
9. Water droplets represent regions where
feasibility studies confirm potential for
large-scale Megawatershed development
“Thousands have lived without love, not one without water.”
W.H. Auden
10. The Megawatershed Nature’s own distribution system:
For millions of years, continents have glided across the surface of the Earth,
often colliding into one another with incredible force. The results of these
tectonic collisions include the great mountain ranges of the world, periodic
devastating earthquakes and the “shattering” of bedrock into a system
of fractures and fissures that extend throughout the earth’s crust, often
uninterrupted, for tens to thousands of square miles. These fractures provide
natural pathways through which very large quantities of fresh water flow.
Roughly 80% of the world’s precipitation occurs at higher mountain elevations.
Conventional hydrologic theory maintains that most of this water evaporates
while the remainder flows down the surface and shallow subsurface into
streams or lakes, and that no appreciable amount of water penetrates
the “impervious” bedrock. Contrary to conventional theory, modern exploration
methods demonstrate that vast quantities of fresh water from mountain
precipitation are not lost to evaporation, but flow into and through the fractures
and fissures within the shattered bedrock.
Water has entered these bedrock crevices and followed gravity along the
same “fracture paths” for millions of years, gradually eroding them into larger
and larger conduits. Over the same period, natural weathering processes have
deteriorated surface rocks into soils and clays which have accumulated to form
natural layers impervious to water, thereby isolating the fresh water flowing
through fractures in the bedrock from contact with surface, and relatively
shallow sub-surface, waters.
The “Megawatershed”, a previously overlooked, sustainable, fresh water resource
of enormous significance to the current global water crisis.
11. The water flowing through these
fractures eventually discharges
deep beneath continental shelves
into the world’s oceans. The
phenomenon of tremendous
plumes of fresh water escaping
into the sea has been observed
and recorded by fisherman for
thousands of years and, in recent
years, confirmed by satellite im-
ages. These discharges of fresh
water are at rates as high as
millions of gallons per hour, a
natural resource forever lost to
human use – until now.
“By means of water, we give life to everything.”
KORAN, 21:30
12. The technologies necessary to
locate, access and sustainably
develop Megawatershed resources
are available today. The oil, gas
and mineral industries have been
developing myriad technologies
over the past century, many of
which are now being adapted to
water exploration.
Employing these technologies
in conjunction with the proper
analytical protocols has successfully
identified and accessed hundreds
of millions of gallons per day of
clean, fresh water in areas where
recognized experts, employing
conventional theories, had
concluded that there was little
or no additional water available.
Satellite Imagery
High Altitude Surveys
Low Altitude Photo and Side-Looking
Airborne Reconnaissance
Proprietary Geological, Hydrologic, and
Geologic Mapping and Surveying Techniques
“Humankind in the 21st century will need to bring about a ‘Blue Revolution’
to complement the ‘Green Revolution’ of the 20th century…
New science and technology must lead the way.”
Dr. Norman Borlaug is the 1970 Nobel Peace Prize Laureate credited with founding the ‘Green Revolution’
13.
14. Megawatershed Development
The benefits are clear:
Fundamental Change in the Quality of Life:
Megawatershed development offers the prospect of a dramatic
improvement in the quality of life for the average man, woman
and child in many water scarce regions of the world.
A new, constant supply of potable water translates to:
- Vast improvements in human health and life-expectancy.
- Drastic reductions in health costs.
- Freedom from the perpetual slavery of water-carrying.
- A potential for previously unattainable economic development.
Environmental Impact:
A single Megawatershed well requires less than 1/10th
of an acre and can be strategically located according to
demand, demographics and the minimization of water
conveyance infrastructure. In comparison to the alternatives,
Megawatershed development uses limited electrical energy
(in many instances, no electricity at all is required due to the
artesian pressure of the Megawatershed system).
Sustainable Water Supply Throughout the Year:
Megawatershed wells will supplement or totally replace
unreliable surface water sources. For instance, dams in certain
SUSTAINABLE MEGAWATERSHED DEVELOPMENT OFFERS THE PROSPECT OF IMPROVED HEALTH,
AND INCREASED ECONOMIC DEVELOPMENT, TO WATER SCARCE REGIONS AROUND THE WORLD.
15. regions operate at 10% efficiency during dry seasons
(due to high evaporation rates) and at 30% efficiency
during wet seasons (due to silt buildup). Water from the
Megawatershed is available in the desired quantities
without regard to seasonal precipitation.
Resistance to Drought and Surface Contamination:
Under proper management and care, the depth and
thickness of the Megawatershed’s bedrock provides
natural water filtration as well as vast natural storage
such that:
- Disease-causing contamination from polluted
surface water sources can be totally avoided.
- Even prolonged drought conditions have no
impact on consistent supply.
A Highly Cost-Effective Solution:
In terms of capital investment, and ongoing mainte-
nance and operations, tapping Megawatersheds
has very significant economic advantages relative
to dams, desalination plants, water barging and
nearly every other water sourcing alternative – this is
of critical importance to countries in the developing
world with limited financial resources.
16. EarthWater Global was created to help countries solve
their fresh water shortages by locating, developing
and managing previously overlooked Megawatershed
resources through fully-financed Public-Private Partnerships.
EarthWater’s success on the island of Tobago illustrates
the significant implications of Megawatershed exploration
and development:
- In the year 2000 Tobago was in the midst of a
severe water crisis that threatened to discourage
foreign investment and drastically curtail economic growth.
- In a final attempt to avoid constructing a dam,
which would have destroyed a portion of the Island’s
protected rain forest, Tobago contracted EarthWater
to employ its sustainable Megawatershed exploration
and development approach.
- Within one year, EarthWater had not only developed
the amount of water the dam was expected to
supply but also discovered 10x that amount; 5 million
gallons per day of sustainable groundwater
was developed and a total of 50 Million Gallons per
Day was discovered, (an amount 100x previous
groundwater estimates).
Providing clean water and sanitation brings tremendous benefits:
people live longer, healthier and more productive lives.
17. The Megawatershed Paradigm has been verified by the development
of numerous, high-volume, sustainable wells throughout the world.
A sample of projects completed by EarthWater teams includes:
Trinidad - Discovered over 250 Million Gallons per Day (“MGDs”);
produced 20 MGDs within two years.
Tobago - Discovered over 50 MGDs; produced 5.0 MGDs within one year
Sudan - Discovered over 10 MGDs; no production wells drilled;
project terminated by US State Department.
Somalia - Discovered 20 MGDs; produced 2.0 MGDs within one year;
civil war put project into Force Majeure.
Seabrook, NH - Discovered and produced 1.5 MGDs within one year.
Salem, NH - Discovered and produced 2.0 MGDs within one year.
These wells continue to pump without diminishing their
respective water tables.
18. EarthWater Global provides the only proven Megawatershed exploration
and sustainable development capability in the world today.
EarthWater’s “incremental” potable water projects offer the prospect of
improved health and economic development with no risk to, or capital
invested by, clients.
For more information on EarthWater’s fully-financed Megawatershed projects,
please visit our website at www.EarthWaterGlobal.com.
EarthWater Global is a member of 1% For The Planet,
an alliance of businesses committed to leveraging
their resources to create a healthier planet. We are
committed to preserving the environment through
philanthropy, activism, and education. 1% of our net
annual revenues are donated to grassroots initiatives
and environmental groups around the world.
“Securing water for a growing world will require the best of science, ecology,
economics, ethics and international cooperation.”
DR. JEFFREY SACHS IS DIRECTOR OF THE UNITED NATION’S MILLENNIUM PROJECT
19. A note from our printing partners – DUSK, a division of EarthColor:
EarthWater Global is committed to having a positive impact on this planet.
DUSK, and all of the EarthColor companies, are committed to the same path.
Our day to day business is the very finest in print, however environmental
stewardship and true sustainability are the guiding philosophies.
This book is 100% eco-neutral certified. That means that at the end of
its manufacturing, the impact to the environment nets out to zero:
- The paper comes from certified renewable forestry sources; FSC Certified.
- All of the energy we use is renewable.
- Cutting edge technology lowers production time, costs, and transportation.
- All carbon emissions are offset.
- 99% of all liquid and solid waste is re-used or recycled; often both.
- All inks and coatings are vegetable based, low VOC, earth friendly,
and of the highest quality.
- Because of our exceptionally clean operations we are an ISO company
and a member of CERES.
Sustainability is not esoteric. In this community and in many other communities,
the way “stuff” is created, used, and re-used is being challenged and engineered
to make a difference. This commitment is real. It is now. You are holding the living
evidence. Many people have contributed greatly to bring this invitation to you.
We suggest you pay it forward. The opportunity is literally in your hands.
www.duskusa.com | www.thebault.com | www.earthcolor.com