The World’s Most Hostile International Water Basins

At the launch of A New Climate for Peace, a new report on climate-fragility risks produced for the G7 by a consortium of international partners including the Wilson Center, USAID Deputy Assistant Administrator Christian Holmes called water a common denominator for climate risk.

“How you manage your water programs…has a huge amount to do with how you mitigate the prospect for increased fragility,” he said. “Sometimes it’s the obvious that’s so easy to miss, and I think that the obvious on water as it relates to economic development is, essentially, the question of sustainable water supply.”

One of the most striking infographics from A New Climate for Peace touches on that question of supply. Using data from Oregon State University’s Transboundary Freshwater Dispute Database and adapted from a graphic that originally appeared in Popular Sciencelast year, the map shows the world’s most active – and tension-filled – international water basins.

Water is a common denominator for climate risk

The Transboundary Freshwater Dispute Database measures not only the frequency of hostile events in a basin, but cooperative ones as well, each on a sliding scale. Hostile events range from declarations of war (zero recorded from 1990 to 2008, the period of time encompassed by the graphic) to leaders using “language of discord.” Cooperative events range from “mild verbal support” to “voluntary unification into a single country.”

The total number of events is indicated by shades of blue – the darker the blue, the more transboundary events, both positive and negative. This is essentially the “hot list” of international water basins – which regions have the most official and unofficial chatter over water.

Circles superimposed on the basins represent the total number of hostile events. As the description text points out, however, “circle size does not automatically translate into conflict danger.” In some places, transboundary institutions and diplomatic frameworks allow different actors to work through their differences. Cooperative hostility, if you will. In the Danube River Basin, for example, the high number of “hostile” events is mitigated by strong cooperative incentives associated with European integration. Likewise in North America, where Canada, the United States, and Mexico share several basins with a high number of hostile events, there is little chance of violent conflict.

Water basins in South Asia, the Middle East, and East Africa are major hotspots with a high number of hostile events and weaker institutional frameworks to mitigate them. The Indus, Ganges-Brahmaputra-Meghna, Salween, Tigris-Euphrates, and Jordan basins witness a very high number of interactions, suggesting at least that continued dialogue could be a way forward to mitigate the risk of violent conflict or fragility. The Nile Basin has less activity reflecting the stalled negotiations between the basin’s 10 member states to replace colonial-era water agreements. The Mekong Basin, where the largest member, China, does not participate as a full member of the Mekong River Commission, shows less activity as well.

The map does a great job illustrating why it can be difficult to answer the question, where is the highest risk of water-related violence? Tensions between states and other freshwater basin actors isn’t necessarily a sign of impending violence if there’s a framework to resolve them. Likewise, lack of communication over a major natural resource can be a bad sign for cooperation when the resource in question is the Nile. More

More infographics from ‘A New Climate for Peace: Taking Action on Climate and Fragility Risks’ are available on NewClimateforPeace.org.

 

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Deciphering clues to prehistoric climate changes locked in cave deposits

It turns out that the steady dripping of water deep underground can reveal a surprising amount of information about the constantly changing cycles of heat and cold, precipitation and drought in the turbulent atmosphere above. The analysis of a stalagmite from a cave in north east India can detect the link between El Nino conditions in the Pacific Ocean and the Indian monsoon, a new study has found.

When the conversation turns to the weather and the climate, most people’s thoughts naturally drift upward toward the clouds, but Jessica Oster’s sink down into the subterranean world of stalactites and stalagmites.

That is because the assistant professor of earth and environmental sciences at Vanderbilt University is a member of a small group of earth scientists who are pioneering in the use of mineral cave deposits, collectively known as speleothems, as proxies for the prehistoric climate.

It turns out that the steady dripping of water deep underground can reveal a surprising amount of information about the constantly changing cycles of heat and cold, precipitation and drought in the turbulent atmosphere above.

As water seeps down through the ground it picks up minerals, most commonly calcium carbonate. When this mineral-rich water drips into caves, it leaves mineral deposits behind that form layers which grow during wet periods and form dusty skins when the water dries up.

Today, scientists can date these layers with extreme precision based on the radioactive decay of uranium into its daughter product thorium. Variations in the thickness of the layers is determined by a combination of the amount of water seeping into the cave and the concentration of carbon dioxide in the cave’s atmosphere so, when conditions are right, they can provide a measure of how the amount of precipitation above the cave varies over time. By analyzing the ratios of heavy to light isotopes of oxygen present in the layers, the researchers can track changes in the temperature at which the water originally condensed into droplets in the atmosphere changes and whether the rainfall’s point of origin was local or if traveled a long way before falling to the ground.

The value of this information is illustrated by the results of a study published May 19 in the journal Geophysical Research Letters by Oster’s group, working with colleagues from the Berkeley Geochronology Center, the Smithsonian Institution National Museum of Natural History and the University of Cambridge titled “Northeast Indian stalagmite records Pacific decadal climate change: Implications for moisture transport and drought in India.”

In the study, Oster and her team made a detailed record of the last 50 years of growth of a stalagmite that formed in Mawmluh Cave in the East Khasi Hills district in the northeastern Indian state of Meghalaya, an area credited as the rainiest place on Earth.

Studies of historical records in India suggest that reduced monsoon rainfall in central India has occurred when the sea surface temperatures in specific regions of the Pacific Ocean were warmer than normal. These naturally recurring sea surface temperature “anomalies” are known as the El Niño Modoki, which occurs in the central Pacific, and the Pacific Decadal Oscillation, which takes place in the northern Pacific. (By contrast, the historical record indicates that the traditional El Niño, which occurs in the eastern Pacific, has little effect on rainfall levels in the subcontinent.)

When the researchers analyzed the Mawmluh stalagmite record, the results were consistent with the historical record. Specifically, they found that during El Niño Modoki events, when drought was occurring in central India, the mineral chemistry suggested more localized storm events occurred above the cave, while during the non-El Niño periods, the water that seeped into the cave had traveled much farther before it fell, which is the typical monsoon pattern.

“Now that we have shown that the Mawmluh cave record agrees with the instrumental record for the last 50 years, we hope to use it to investigate relationships between the Indian monsoon and El Niño during prehistoric times such as the Holocene,” said Oster.

The Holocene Climate Optimum was a period of global climate warming that occurred between six to nine thousand years ago. At that time, the global average temperatures were somewhere between four to six degrees Celsius higher than they are today. That is the range of warming that climatologists are predicting due to the build-up of greenhouse gases in the atmosphere from human activity. So information about the behavior of the monsoon during the Holocene could provide clues to how it is likely to behave in the future. This knowledge could be very important for the 600 million people living on the Indian subcontinent who rely on the monsoon, which provides the area with 75 percent of its annual rainfall.

“The study actually grew out of an accidental discovery,” said Oster. Vanderbilt graduate student Chris Myers visited the cave, which co-author Sebastian Breitenbach from Cambridge has been studying for several years, to see if it contained enough broken speleothems so they could use them to date major prehistoric earthquakes in the area.

Myers found a number of columns that appear to have broken off in the magnitude 8.6 earthquake that hit Assam, Tibet in 1950. But he also discovered a number of new stalagmites that had begun growing on the broken bases. When he examined these in detail he found that they had very thick layers and high concentrates of uranium, which made them perfect for analysis.

Because of the large amount of water running into the cave, the stalagmite they choose to analyze had grown about 2.5 centimeters in 50 years. (If that seems slow, compare it with growth rates of a few millimeters in a thousand years found in caves in arid regions like the Sierra Nevada.) As a result, the annual layers averaged about 0.4 millimeters thick — wide enough for the researchers to get seven to eight samples per layer, which is slightly better than one measurement every two months. The amount of information about the climate that scientists can extract from the stalagmites and stalactites in a cave is amazing. But the value of this approach increases substantially as the number of caves that can act as climate proxies increases.

It is not a simple task. Because each cave is unique, the scientists have to study it for several years before they understand it well enough to use it as a proxy. For example, they must establish how long it takes water to move from the surface down to the cave, a factor that can vary from days to months.

Efforts to use the mineral deposits in caves as climate proxies began in the 1990’s. Currently, there are only a few dozen scientists who are pursuing this line of research and they have analyzed the mineral deposits from 100 to 200 caves in this fashion.

Story Source:

The above story is based on materials provided by Vanderbilt University. The original article was written by David Salisbury. Note: Materials may be edited for content and length.

Journal Reference:

1. Christopher G. Myers, Jessica L. Oster, Warren D. Sharp, Ralf Bennartz, Neil P. Kelley, Aaron K. Covey, Sebastian F.M. Breitenbach. Northeast Indian stalagmite records Pacific decadal climate change: Implications for moisture transport and drought in India. Geophysical Research Letters, 2015; DOI: 10.1002/2015GL063826

 

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Climate change key in Syrian conflict – and it will trigger more war in future

Climate change was a key driver of the Syrian uprising, according to research which warns that global warming is likely to unleash more wars in the coming decades, with Eastern Mediterranean countries such as Jordan and Lebanon particularly at risk.

Experts have long predicted that climate change will be a major source of conflict as drought and rising temperatures hurt agriculture, putting a further strain on resources in already unstable regimes.

But the Syria conflict is the first war that scientists have explicitly linked to climate change. Researchers say that global warming intensified the region’s worst-ever drought, pushing the country into civil war by destroying agriculture and forcing an exodus to cities already straining from poverty, an influx of refugees from war-torn Iraq next door and poor government, the report finds.

“Added to all the other stressors, climate change helped kick things over the threshold into open conflict,” said report co-author Richard Seager, of Columbia University in New York.

“I think this is scary and it’s only just beginning. It’s going to continue through the current century as part of the general drying of the Eastern Mediterranean – I don’t see how things are going to survive there,” Professor Seager added.

Turkey, Lebananon, Israel, Jordan, Iraq and Afghanistan are among those most at risk from drought because of the intensity of the drying and the history of conflict in the region, he says. Israel is much better equipped to withstand climate change than its neighbours because it is wealthy, politically stable and imports much of its food. Drought-ravaged East African countries such as Somalia and Sudan are also vulnerable along with parts of Central America – especially Mexico, which is afflicted by crime, is politically unstable, short of water and reliant on agriculture, Prof Seager said.

The conflict in Syria began in spring 2011 and has evolved into a complex multinational war that has killed at least 200,000 people and displaced millions more, according to the Columbia study, which appears in the journal Proceedings of the National Academy of Sciences. It was preceded by a record drought that ravaged Syria between 2006 and 2010.The paper says the timing is unlikely to be a coincidence, citing a recent interview with a 38-year old farmer in Mohasen, an agricultural village in the north east of Syria.

Asked if the conflict was about the drought, Faten – a female farmer who did not want to give her last name – said: “Of course. The drought and unemployment were important in pushing people towards revolution. When the drought happened, we could handle it for two years, and then we said, ‘It’s enough’,” the report said.

The study combined climate, social and economic data relating to the so-called Fertile Crescent, spanning parts of Turkey and much of Syria and Iraq, where agriculture and herding are thought to have started 12,000 years ago and continue to be crucial.

The region has warmed by between 1 and 1.2C since 1900, reducing rainfall in the wet season by an average of 10 per cent. In addition to the warming – which has found to be caused by human greenhouse gas emissions – Syria has had to contend with rapid population growth, from 4 million in the 1950s to 22 million now.

The ruling al-Assad family encouraged water-intensive export crops such as cotton, while illegal drilling of irrigation wells dramatically depleted groundwater that might have provided valuable reserves, the report said. The drought’s effects were immediate. Agriculture production, which typically makes up a quarter of Syria’s economy, plummeted by a third.

In the hard-hit northeast, livestock herds were practically obliterated, cereal prices doubled and nutrition-related diseases among children increased dramatically. As many as 1.5m people fled from the country to the city.

“Whether it was a primary or substantial factor is impossible to know, but drought can lead to devastating consequences when coupled with pre-existing acute vulnerability,” said lead author Colin Kelley, who did the work at Columbia but is now the University of California, Santa Barbara.

The pressure exerted by climate change is even more dangerous because it comes against a backdrop of rising populations and growing scarcity of resources, experts say.

With demand for basic commodities such as wheat and copper set to soar over the next two decades, relatively small shocks to supply risk causing sudden price rises and triggering “overreactions or even militarised responses”, the Chatham House think-tank has warned.

Furthermore, while the effects of rising population and global warming may be felt hardest among the poorer countries most affected by climate change, the impact will be felt worldwide.

Global trade is so interconnected that no importer of resources is insulated from the problems of key exporters – a fact of concern to the UK, which imports 40 per cent of its food and a high proportion of fossil fuels and metals, the think-tank warns. More

 

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A Thirsty, Violent World

They say you learn something new everyday. For me, this day qualifies. Michael Specter writes at the New Yorker on the increasingly dire prospects for water -- of the clean, unpolluted kind -- for a clamoring humankind and of the water wars that are surely on the horizon.

And he has this, on the origins of the word "rivals": "After all, the word 'rivals' has its roots in battles over water—coming from the Latin, rivalis, for 'one taking from the same stream as another.'” Who knew? Not me. Specter's prognostication on our looming water disasters is a grim but important read and not just for Pakistanis or Nigerians, but for us in a country in which California is parched for water in a prolonged drought and researchers are predicting humongous droughts coming later in the century for our breadbasket, the Midwest! TomDispatch

A Thirsty, Violent World

Angry protesters filled the streets of Karachi last week, clogging traffic lanes and public squares until police and paratroopers were forced to intervene. That’s not rare in Pakistan, which is often a site of political and religious violence.

But last week’s protests had nothing to do with freedom of expression, drone wars, or Americans. They were about access to water. When Khawaja Muhammad Asif, the Minister of Defense, Power, and Water (yes, that is one ministry), warned that the country’s chronic water shortages could soon become uncontrollable, he was looking on the bright side. The meagre allotment of water available to each Pakistani is a third of what it was in 1950. As the country’s population rises, that amount is falling fast.

Dozens of other countries face similar situations—not someday, or soon, but now. Rapid climate change, population growth, and a growing demand for meat (and, thus, for the water required to grow feed for livestock) have propelled them into a state of emergency. Millions of words have been written, and scores of urgent meetings have been held, since I last wrote about this issue for the magazine, nearly a decade ago; in that time, things have only grown worse.

The various physical calamities that confront the world are hard to separate, but growing hunger and the struggle to find clean water for billions of people are clearly connected. Each problem fuels others, particularly in the developing world—where the harshest impact of natural catastrophes has always been felt. Yet the water crisis challenges even the richest among us.

California is now in its fourth year of drought, staggering through its worst dry spell in twelve hundred years; farmers have sold their herds, and some have abandoned crops. Cities have begun rationing water. According to the London-based organization Wateraid, water shortages are responsible for more deaths in Nigeria than Boko Haram; there are places in India where hospitals have trouble finding the water required to sterilize surgical tools.

Nowhere, however, is the situation more acute than in Brazil, particularly for the twenty million residents of São Paulo. “You have all the elements for a perfect storm, except that we don’t have water,” a former environmental minister told Lizzie O’Leary, in a recent interview for the syndicated radio show “Marketplace.” The country is bracing for riots. “There is a real risk of social convulsion,” José Galizia Tundisi, a hydrologist with the Brazilian Academy of Sciences, warned in a press conference last week. He said that officials have failed to act with appropriate urgency. “Authorities need to act immediately to avoid the worst.” But people rarely act until the crisis is directly affecting them, and at that point it will be too late.

It is not that we are actually running out of water, because water never technically disappears. When it leaves one place, it goes somewhere else, and the amount of freshwater on earth has not changed significantly for millions of years. But the number of people on the planet has grown exponentially; in just the past century, the population has tripled, and water use has grown sixfold. More than that, we have polluted much of what remains readily available—and climate change has made it significantly more difficult to plan for floods and droughts.

Success is part of the problem, just as it is with the pollution caused by our industrial growth. The standard of living has improved for hundreds of millions of people, and the pace of improvement will quicken. As populations grow more prosperous, vegetarian life styles often yield to a Western diet, with all the disasters that implies. The new middle classes, particularly in India and China, eat more protein than they once did, and that, again, requires more water use. (On average, hundreds of gallons of water are required to produce a single hamburger.)

Feeding a planet with nine billion residents will require at least fifty per cent more water in 2050 than we use today. It is hard to see where that water will come from. Half of the planet already lives in urban areas, and that number will increase along with the pressure to supply clean water.

“Unfortunately, the world has not really woken up to the reality of what we are going to face, in terms of the crises, as far as water is concerned,” Rajendra Pachauri, the chairman of the International Panel on Climate Change, said at a conference on water security earlier this month. “If you look at agricultural products, if you look at animal protein, the demand for which is growing—that’s highly water intensive. At the same time, on the supply side, there are going to be several constraints. Firstly because there are going to be profound changes in the water cycle due to climate change.”

Floods will become more common, and so will droughts, according to most assessments of the warming earth. “The twenty-first-century projections make the [previous] mega-droughts seem like quaint walks through the garden of Eden,” Jason Smerdon, a climate scientist at Columbia University’s Lamont-Doherty Earth Observatory, said recently. At the same time, demands for economic growth in India and other developing nations will necessarily increase pollution of rivers and lakes. That will force people to dig deeper than ever before into the earth for water.

There are ways to replace oil, gas, and coal, though we won’t do that unless economic necessity demands it. But there isn’t a tidy and synthetic invention to replace water. Conservation would help immensely, as would a more rational use of agricultural land—irrigation today consumes seventy per cent of all freshwater.

The result of continued inaction is clear. Development experts, who rarely agree on much, all agree that water wars are on the horizon. That would be nothing new for humanity. After all, the word “rivals” has its roots in battles over water—coming from the Latin, rivalis, for “one taking from the same stream as another.” It would be nice to think that, with our complete knowledge of the physical world, we have moved beyond the limitations our ancestors faced two thousand years ago. But the truth is otherwise; rivals we remain, and the evidence suggests that, until we start dying of thirst, we will stay that way. More

 

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Abu Dhabi summit to discuss water security challenges

More than 32,000 global leaders from 170 countries representing government, industry, investment and research to Abu Dhabi, will provide an upfront look at affordable technologies to enable sustainable water resource management to help meet the Middle East’s rising demand for water.

Hosted by Masdar, Abu Dhabi’s renewable energy company, ADSW is a yearly platform that addresses the interconnected challenges of energy and water security, climate risk and sustainable development.

Running from January 17 to 24, ADSW includes the World Future Energy Summit (WFES), the world’s foremost event dedicated to the advancement of renewable energy, energy efficiency and clean technology; and the International Water Summit (IWS), which provides a business approach to addressing water scarcity, sustainable growth and economic development in arid regions.

“The Mena region is in a truly unique position to solve the challenge of water security,” remarked Raed Bkayrat, vice president of development for Saudi Arabia at First Solar, which is participating in WFES.

“While the region is quite arid, it also has one of the highest solar irradiances of any region in the world, and much of the population has ready access to seawater. Accordingly, solar photovoltaic projects are proving to be sustainable means of powering water desalination in the region, ensuring that the supply of clean water will keep up with the region’s increasing demand for it,” he noted.

Masdar took a major step by launching a pilot project to test energy-efficient desalination technologies – such as reverse osmosis and forward osmosis – powered by renewable energy.

The company awarded contracts to Abengoa, Degremont, Sidem/Veolia and Trevi Systems to build the desalination plants, which are expected to enable the implementation of cost-competitive desalination plants powered by renewable energy in the UAE and abroad.

“Engaging different sectors of the industry is really crucial to bring forward innovative solutions, as well as pilot projects that demonstrate to governments the value of new integrated systems,” Bkayrat added.

Both WFES and IWS will offer numerous keynote addresses, panel discussions and workshops as well as exhibitors introducing affordable technologies to enable sustainable water resource management.

Along with WFES and IWS, ADSW will include the second EcoWaste and the seventh Zayed Future Energy Prize Award Ceremony; it also coincides with the Fifth General Assembly of the International Renewable Energy Agency.-TradeArabia News Service More

 

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Water Resource Management- New Publication 2014

Department of Organic Food Quality and Food Culture, University of Kassel and Department of Archaeology and Heritage Management, Rajarata University, Sri Lanka are pleased to announce about the publication of their new research paper, titled "Water Resource Management in Dry Zonal Paddy Cultivation in Mahaweli River Basin, Sri Lanka: An Analysis of Spatial and Temporal Climate Change Impacts and Traditional Knowledge" in the Special Issue "Changes in precipitation and impacts on regional water resources", Climate Journal International.

The paper may be accessed at http://www.mdpi.com/2225-1154/2/4/329

Abstract: Lack of attention to spatial and temporal cross-scale dynamics and effects could be understood as one of the lacunas in scholarship on river basin management. Within the water-climate-food-energy nexus, an integrated and inclusive approach that recognizes traditional knowledge about and experiences of climate change and water resource management can provide crucial assistance in confronting problems in megaprojects and multipurpose river basin management projects.

The Mahaweli Development Program (MDP), a megaproject and multipurpose river basin management project, is demonstrating substantial failures with regards to the spatial and temporal impacts of climate change and socioeconomic demands for water allocation and distribution for paddy cultivation in the dry zone area, which was one of the driving goals of the project at the initial stage. This interdisciplinary study explores how spatial and temporal climatic changes and uncertainty n weather conditions impact paddy cultivation in dry zonal areas with competing stakeholders' interest in the Mahaweli River Basin.

In the framework of embedded design in the mixed methods research approach, qualitative data is the primary source while quantitative analyses are used as supportive data. The key findings from the research analysis are as follows: close and in-depth consideration of spatial and temporal changes in climate systems and paddy farmers' socioeconomic demands altered by seasonal changes are important factors. These factors should be considered in the future modification of water allocation, application of distribution technologies, and decision-making with regards to water resource management in the dry zonal paddy cultivation of Sri Lanka. More

 

 

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The Man Who Creates Artificial Glaciers To Meet The Water Needs Of Ladakh

Ladakh’s beautiful mountains might be a paradise for tourists, but ask the locals who have to struggle to meet their basic water needs every year. Chewang Norphel put his engineering skills to a better use and created artificial glaciers to provide water in this cold and dry mountainous region. Know more about his remarkably innovative technology and how it works.

Chewang Norphel, a 79-year old retired civil engineer, has always been a solution provider. The story goes back to 1966 when he was posted in Zanskar, one of the most backward and remote areas in Ladakh, as Sub Divisional Officer. He, along with his team, had to construct school buildings, bridges, canals, roads etc. in that area. The task was very difficult to execute due to lack of skilled labour.

So he started doing the masonry work himself and trained a few villagers to help him. After some years, when he went back to that village, he found out that the villagers he had trained had become perfect mistry and were earning handsome salaries.

Today, he is called the “Ice Man of India” and has created 10 artificial glaciers in Ladakh to help people deal with water scarcity in this cold, mountainous region.

Ladakh, a beautiful location with magnificent scenery around and exquisite beauty, takes everyone’s breath away. But, it is not the same with the people of Ladakh as the cold, dry and infertile land makes their lives harder than we could imagine.

Fortunately, the situation is slowly changing as Ladakh now has artificial glaciers to meet their needs and people have Norphel to thank for his amazing contribution.

Born in 1936, Norphel comes from a farming background and has served in the government service for more than 36 years before he had to take an early retirement due to his bad health. Being at home was not something Norphel enjoyed doing, and at the same time, the poor living conditions in Ladakh constantly troubled him. He thought of putting his engineering skills to a better use.

“Almost all the villages in Ladakh have roads, culverts, bridges, buildings or irrigation systems made by me,”says Norphel. But his biggest contribution came in the form of artificial glaciers.

Being a cold mountain desert, Ladakh sees a low average rainfall of 50 mm annually making people dependent upon glaciers as their primary water source.

80 percent of the population depends on farming, and their main source of irrigation water is the water that comes from the melting of snow and glaciers. Because of global warming, the glaciers are receding quickly and as a result, farmers face a lot of difficulty in getting adequate water. On the other hand, a lot of water gets wasted during the winter months as, due to the severe cold climate, farmers cannot grow any crops in that season.

“So I thought that if we could conserve this water in the form of ice, it can be of help to farmers to some extent during the irrigation period, particularly during the sowing season. The artificial glaciers, being quite close to the villages, melt earlier than the natural glaciers. Also, getting water during the sowing period is the most crucial concern of the farmers because the natural glaciers start melting in the month of June and sowing starts in April and May,” he says.

The idea first came to him when he saw water dripping from a tap which was kept open so as to avoid the water from freezing in winter and bursting the tap. The water gradually froze into the shape of an ice sheet as it came in touch with the ground and made a pool.

It struck him that the water that melts from natural glaciers due to high temperatures in summer goes to waste as it flows into the river. Instead, if this water can be stored in summer and autumn so that it can form a glacier in winter, then this artificial glacier would melt in spring and provide water to the villagers at the right time.

It was now time for action, and he put all his engineering knowledge, field experience and passion to work. He started his first experiment in Phutse village. He made canals to divert the water from the main stream to small catchment areas located four kms away from the village. He also created a shaded area to keep the water frozen in winters.

And, as these glaciers are located at a lower altitude of 13,000 feet as compared to the original glaciers which are located at 18,000 feet, they start melting earlier than the mainstream ones and provide water to the villagers when they need it the most in April.

“The main technique used to create artificial glaciers is to control the velocity of water as much as possible. The region is a hilly area and that is why the gradient of streams is very steep. As a result, in the main streams the water usually does not freeze. So what we have done is we have diverted the water to a shadow area by constructing a diversion channel with a mild grade. When it reaches the site, the water is released downward of the hill, distributing it in a small quantity so that the velocity can be minimized, and side by side we have constructed ice retaining walls in series to store the frozen water. This is the entire methodology of the artificial glacier,” he explains.

His first project cost him Rs.90,000. The width of the glacier ranges generally from 50 to 200 feet and the depth from 2 to 7 feet. This low cost model used only locally sourced material and help from the local community. Norphel has successfully built 10 glaciers so far. The smallest one is 500 feet long in Umla and the largest is 2 km long in Phutse.

His efforts have increased the agricultural production, thereby increasing the income of the locals. This has also reduced the migration to cities. His simple technique has brought water closer to the villages, and most importantly, made it available when the villagers need it the most.

In the future, he wants to continue making the glaciers and plans to build in other areas like Lahol, Spiti, Zangskar, etc. The only thing that comes as a challenge is lack of adequate funds.

“As you sow, so you reap. There is no doubt that if one has strong determination and dedication, there is nothing impossible in the world. That is what I believe,” Norphel says.

His simple idea has received acclaim across the globe and he has proved that if man is the one responsible for disturbing nature, he also has the capacity to save it. You just need the right intention to do so. More

 

 

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ADB Spotlights Pakistan’s Water Assessment and Management Plan

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News: ADB Spotlights Pakistan’s Water Assessment and Management Plan

September 2014: The Asian Development Bank (ADB) has published a report titled ‘Water Balance: Achieving Sustainable Development through a Water Assessment and Management Plan – The Case of Federally Administered Tribal Areas (FATA), Pakistan.' The report presents the case of the development of the FATA Water Assessment and Management Plan, outlining elements necessary in such assessment, and emphasizing that inefficient and unsustainable management of development initiatives result from lack of information about water availability and cause watershed degradation.

Integrated water resources management (IWRM) was used as a core approach in the development of possible activities to promote the sustainable use of water resources in the FATA region. While noting much of the data used is historical, the report emphasizes that climate change is likely to alter current water availability patterns, and calls for integrating hydrological forecasting and climate change models into the assessment.

The report includes sections on: background; project area; assessing surface water availability; assessing groundwater; assessing water consumption; water balance model; water management plan; and conclusions. [Publication: Water Balance: Achieving Sustainable Development through a Water Assessment and Management Plan – The Case of Federally Administered Tribal Areas (FATA), Pakistan]

Read more: http://water-l.iisd.org/news/adb-spotlights-pakistans-water-assessment-and-management-plan/

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Ned Breslin: thinking big about water supply

Jordan Levy on Ned Breslin

Ned Breslin believes that too many organisations who are providing clean water and sanitation are chasing numbers. He wants to see them be bold enough to operate towards a long-term vision for clean water for everyone. This may seem simple, but he says this is not the way most in the sector operate. He believes these short-term achievements do not always contribute towards solving the systematic issues. I am inspired by Ned and his organisation because they don’t rely on short-term outputs to build legitimacy regardless of outside pressure to do so. They are not afraid to say that real solutions take time.

Ned Breslin on Water for People

The problem is clear. Three decades of support for water projects from NGOs, governments and large and small donors alike have not transformed people’s lives and country’s economic trajectories as such massive investments should.

Few celebrate the report from the World Health Organisation and Unicef (pdf) that shows progress on water supply worldwide – as contradictory evidence paints a much more unfortunate story. The European Union’s scathing audit of water aid investments and the Dutch government’s brave evaluation of their own work (pdf) offer sobering insight into water-sector history and challenges moving forward.

The impact of such failure is also sadly clear. Girls continue to fetch polluted water from muddy puddles and rivers, walking past broken hand-pumps and schools they would be attending if they had the time. To break this cycle, Water For People, the IRC, Water and Sanitation for the Urban Poor, One Drop, and some members of the Millennium Water Alliance are partnering with governments and the local private sector to change the water sector narrative.

We are testing this initiative – called Everyone Forever (EF) – across Africa, Asia and Latin America. The concept is that districts maintain water services for everyone without the need for further philanthropic aid or support.

EF takes a page from polio and smallpox eradication efforts that saturated entire districts, consisting of millions of people and hundreds and thousands of villages. “Everyone” is only achieved when every family, school and clinic in a target district has access to water services, that includes the hardest to reach, the poorest, the disabled, the politically marginalised and the socially ostracised. The poorest in those areas are receiving water services because other residents are covering their tariffs. “Forever” is only achieved when districts show they can sustain these investments over time as populations grow, water resources are threatened, economies change and infrastructure ages.

EF works with governments and insists that their financial support is essential for success. We have seen a 39% increase in government investments towards EF in the past year, with examples like the district of Rulindo in Rwanda now spending over $1m a year on water infrastructure.

Two districts – Chinda, Honduras and Cuchumuela, Bolivia – have reached full coverage verified by the national government. Another five areas are close, including an island in the Ganges in India where half a million pilgrims use the local sanitation system every year (pdf).

One mayor in Bolivia now brags about his district achieving “everyone” status. As a result, other mayors across the country are replicating EF, channeling their investments towards full district coverage. Similar spread is happening in India, Rwanda, Ghana, Uganda and Honduras.

Momentum is now building scaled work that excludes nobody, transcends individual communities and is focused on sustainability. Everyone Forever offers a model that is hard to argue against by politicians and development agencies. The alternative – more projects and hollow slogans of coverage delinked from investments – is simply not good enough anymore. More

Ned Breslin is the CEO of Water for the People. Follow @NedBreslin on Twitter.

 

© 2014

Karachi thirsts for a water supply

KARACHI: On the outskirts of the slums of Pakistan’s biggest city, protesters burning tires and throwing stones have what sounds like a simple demand: They want water at least once a week.

In Karachi people go days without getting water from city trucks, sometimes forcing them to use groundwater contaminated with salt. A recent drought has only made the problem worse. And as the city of roughly 18 million people rapidly grows, the water shortages are only expected to get worse.

“During the last three months they haven’t supplied a single drop of water in my neighbourhood,” protester Yasmeen Islam said. “It doesn’t make us happy to come on the roads to protest but we have no choice anymore.”

Karachi gets most of its water from the Indus River — about 550 million gallons per day — and another 100 million gallons from the Hub Dam that is supplied by water from neighbouring Balochistan province. But in recent years, drought has hurt the city’s supply.

Misbah Fareed, a senior official with the Karachi Water and Sewerage Board that runs the city’s water supplies, said that only meets about half the city’s needs — 1.2 billion gallons a day.

Karachi’s water distribution network has exacerbated the problem by forcing much of the city to get its water through tankers instead of directly from pipes. The Karachi Water and Sewerage Board operates 12 water hydrants around the city where tankers fill up and then distribute. Even people in the richest areas of the city get their water through tankers that come a few times a week to fill up underground cisterns.

But criminals have illegally tapped into the city’s water pipes and set up their own distribution points where they siphon off water and sell it.

“I personally know some people previously associated with drug mafias who now switched to the water tanker business,” Fareed said. “Just imagine how lucrative the business is.”

Other areas of Pakistan pump massive amounts of groundwater. But in the coastal city of Karachi, the underground water is too salty to drink. Many people have pumps but they use the water for things such as showering or washing clothes.

The water shortage is exacerbated by Karachi’s massive population. Pakistani military operations and American drone strikes in the northern tribal regions, as well as natural disasters such as flooding and earthquakes, have pushed people toward a city long seen as the economic heart of Pakistan.

The city is trying to increase the amount of water it gets from the Indus River by building another canal — dubbed the K4 project. But even if they were to get political approval from the capital to take more water from the river, it would take a minimum of four years to build.

But analysts say supply isn’t the only problem. Farhan Anwar, who runs an organisation called Sustainable Initiatives in Karachi, said the Karachi Water and Sewerage Board is horribly overstaffed and many of those are political appointees. The cost for water is also very low and the agency doesn’t collect all that it’s due, Anwar said. That’s made it difficult to upgrade the ageing pipes the system does have, meaning contamination and leakages are common.

Meanwhile, Karachi residents have to spend more money or walk further and further to get water. One elderly resident Aisha Saleem said in recent months even the little water they get from the water board is salty.

“Women and kids have to go miles by foot and carry drinking water every day,” she said More

 

© 2014

The Unity of Water

MOSCOW – In May, Vietnam became the 35th and decisive signatory of the 1997 United Nations Convention on the Law of the Non-Navigational Uses of International Watercourses. As a result, 90 days later, on August 17, the convention will enter into force.

The fact that it took almost 50 years to draft and finally achieve the necessary ratification threshold demonstrates that something is very wrong with the modern system of multilateralism. Regardless of longstanding disagreements over how cross-border freshwater resources should be allocated and managed, and understandable preferences by governments and water professionals to rely on basin agreements rather than on international legal instruments, that half-century wait can be explained only by a lack of political leadership. So, though the world may celebrate the convention’s long-awaited adoption, we cannot rest on our laurels.

Roughly 60% of all freshwater runs within cross-border basins; only an estimated 40% of those basins, however, are governed by some sort of basin agreement. In an increasingly water-stressed world, shared water resources are becoming an instrument of power, fostering competition within and between countries. The struggle for water is heightening political tensions and exacerbating impacts on ecosystems.

But the really bad news is that water consumption is growing faster than population – indeed, in the twentieth century it grew at twice the rate. As a result, several UN agencies forecast that, by 2025, 1.8 billion people will be living in regions stricken with absolute water scarcity, implying a lack of access to adequate quantities for human and environmental uses. Moreover, two-thirds of the world’s population will face water-stress conditions, meaning a scarcity of renewable freshwater.

Without resolute counter-measures, demand for water will overstretch many societies’ adaptive capacities. This could result in massive migration, economic stagnation, destabilization, and violence, posing a new threat to national and international security.

The UN Watercourses Convention must not become just another ignored international agreement, filed away in a drawer. The stakes are too high. In today’s context of climate change, rising demand, population growth, increasing pollution, and overexploited resources, everything must be done to consolidate the legal framework for managing the world’s watersheds. Our environmental security, economic development, and political stability directly depend on it.

The convention will soon apply to all of the cross-border rivers of its signatories’ territories, not just the biggest basins. It will complement the gaps and shortcomings of existing agreements and provide legal coverage to the numerous cross-border rivers that are under increasing pressure.

Worldwide, there are 276 cross-border freshwater basins and about as many cross-border aquifers. Backed by adequate financing, political will, and the engagement of stakeholders, the convention can help address the water challenges that we are all facing. But will it?

An ambitious agenda should be adopted now, at a time when the international community is negotiating the contents of the Sustainable Development Goals (SDGs), the successor to the UN Millennium Development Goals, which will expire in 2015. We at Green Cross hope that the new goals, which are to be achieved by 2030, will include a stand-alone target that addresses water-resources management.

Moreover, the international community will soon have to agree on a climate-change framework to replace the Kyoto Protocol. Climate change directly affects the hydrological cycle, which means that all of the efforts that are undertaken to contain greenhouse-gas emissions will help to stabilize rainfall patterns and mitigate the extreme water events that so many regions are already experiencing.

But the UN Watercourses Convention’s entry into force raises as many new questions as existed in the period before its ratification. What will its implementation mean in practice? How will countries apply its mandates within their borders and in relation to riparian neighbors? How will the American and Asian countries that have largely ignored ratification respond?

Furthermore, how will the convention relate to the Convention on the Protection and Use of Transboundary Watercourses and International Lakes, which is already in force in most European and Central Asian countries and, since February 2013, has aimed to open its membership to the rest of the world? Similarly, how will the convention’s implementation affect existing regional and local cross-border freshwater agreements?

The countries that ratified the UN Watercourses Convention are expected to engage in its implementation and to go further in their efforts to protect and sustainably use their cross-border waters. What instruments, including financial, will the convention provide to them?

Several legal instruments can be implemented jointly and synergistically: the Ramsar Convention on Wetlands, the UN Convention to Combat Desertification, and the UN Framework Convention on Climate Change, to name just a few. The UN Watercourses Convention’s long-delayed enactment should be viewed as an opportunity for signatory states to encourage those that are not yet party to cooperative agreements to work seriously on these issues.

Clearly, politicians and diplomats alone cannot respond effectively to the challenges that the world faces. What the world needs is the engagement of political, business, and civil-society leaders; effective implementation of the UN Watercourses Convention is impossible without it.

This is too often overlooked, but it constitutes the key to the long-term success of cooperation that generates benefits for all. Inclusive participation by stakeholders (including the affected communities), and the development of the capacity to identify, value, and share the benefits of cross-border water resources, should be an integral part of any strategy to achieve effective multilateral collaboration. More

 

© 2014

Famke Janssen addresses the World Youth Parliament for Water

gcint.org

March 14

Dear friends and distinguished members of the World Youth Parliament for Water.

The efforts of youth from all around the world to offer solutions and to work together to tackle the global water crisis both humble and inspire me. You are truly making a difference.

President Gorbachev, who spoke at the opening of the World Water Forum just two days ago, believes in the power of all people, particularly the youth, to make change aimed at protecting the environment. Young people – who will be tomorrow’s leaders -- have a vital role to play to ensure all people can live free of poverty and insecurity, and enjoy a world that conserves – not exploits – its many natural wonders.

I come from the Netherlands, a country that has a lot of experience in "coping" with water. My country is one that is vulnerable to global warming and rising oceans. Fortunately, we have a long history of finding ways to stop the ocean from flooding much of a country that rests largely below sea level. Water is a central part of Dutch life, from our many canals and dikes to the water-powered windmills that are dotted all over the country. Many historians argue that our social organization was built on the need for communities to organize democratically in order to pull together to stop an invading ocean or a broken dike – a recognition that water crises do not discriminate whether they come in the form of floods or drought and, most importantly, that water crises can unite people and not only separate them.

The Netherlands, however, is not a country associated with scarcity of water, a curse for many populations today that will grow much worse. For our world is already buckling under the weight of our 7-billion strong population, and in less than 20 years from now, we will have grown to 8.3 billion . As you know, this will only increase the demand for water. Consequently, by 2025 experts estimate that two-thirds of the world's population could be living under water stressed conditions.

Water scarcity is the problem that our future generations will have to face. Responsibility for solving this global challenge, some might say, lies unfairly in the hands of you and young people around the world. You did not cause the crisis, but it will be up to today’s youth to be prepared for steering our world toward a more sustainable future, a path that will ensure we respond to the water crisis, fairly share our available water resources, promote conservation and end waste, and help millions upon millions of people realize their basic Human Right to have access to safe Water and Sanitation.

Lack of adequate drinking water and poor or non-existent sanitation target the youth unfairly. For example, 443 million school days are missed every year due to sickness caused by water-related diseases, such as diarrhoea, dysentery and cholera. Lack of access to safe drinking water and sanitation is one of the main obstacles to education today. This is bad, but what is absolutely intolerable is that diarrhoea is the world’s second biggest killer of children and accounts for 1.5 million young lives every year. Moreover, in the absence of functioning drainage systems, water forms stagnant puddles that are soon infested with malaria-carrying mosquitoes: 3600 people die of malaria each day and 3200 of them are children. These grim statistics do not even take into account the ravages imposed on children as a result of water scarcity, which affects the availability of food and increases the risk of malnutrition among children.

Young girls are especially vulnerable to today’s water problems. For in many communities, young girls fetch water – often walking many miles to do so – placing their health, safety, education and development at grave risk. If a girl’s town or village has no safe source of water, it is often her job to collect it for her family, meaning she cannot attend school. This is a double tragedy that must be overcome.

Another factor against girls is the lack of sanitation facilities in schools, which can force many to stop attending classes when they reach puberty. Without education, futures of children and young women are being lost.

Without access to safe water and education, many young people will find it even harder – if not impossible – to rise out of poverty. As a result, when they become parents themselves, their own children will be trapped by the same problems.

But there are things we can all do today.

You are an extremely powerful voice of change. The more noise you make the more power you have. You have the right to demand a better world, as you are the ones who will inherit the problems we have caused. There are concrete actions that you can take that will result in meaningful change.

Green Crosses’ Green Lane Environmental Diary, which some of you may have participated in, shows ways to reduce our water footprints, from taking shorter showers, to avoiding use of plastic bottles. These basic tips, when practiced by an entire community can result in massive changes in the management of water resources. These are guidelines for individuals but collectively they can have profound impacts.

On a policy level you can demand that countries that have not ratified the United Nations Watercourses Convention do so. Some of you live in places that have not ratified the Convention and just 11 more signatures are needed from governments to validate it. It is the only global set of regulations and measures drafted for governing the more than 270 rivers in the world that are shared by multiple countries. 145 countries share these rivers and the groundwater linked to them. Their basins are home to 40% of the planet’s human population. But only 40% of these rivers are covered by official agreements on how to share and manage them, many of which are unsatisfactory. These weaknesses must be addressed if we are to tackle global challenges such as climate change and growing water demands.

Since you are here you have already developed the taste for politics. As potential future parliamentarians you will demand that the Right to Water and Sanitation is enshrined in your country’s constitutions and laws. It is imperative that you do all in your power to ensure your fellow countrymen and women can realize this fundamental, life-preserving right.

After meeting many of you and seeing what you have done here in Marseille, I have great confidence in your abilities to make a difference when it comes to ensuring all people have access to safe water.

I know you wont forget the experiences you have had here at the World Youth Parliament for Water. But I urge you to apply what you have absorbed, and put it into action, first and foremost in your own communities, and hopefully further afield.

Eleanor Roosevelt said, "the future belongs to those who believe in the beauty of their dreams". I encourage you to start believing. Thank you for the honor to speak with you and good luck. More

 

 

© 2014

Himalayan Water Security: The Challenges for South and Southeast Asia

The scramble for control of natural resources to support economic and population growth, combined with the uncertain effects of climate change on the Tibetan Plateau, is raising tensions in Asia over Himalayan water resources.

Ten of the region’s largest and longest rivers (the Amu Darya, Brahmaputra, Ganges, Indus, Irrawaddy, Mekong, Salween, Tarim, Yangtze, and Yellow) originate in the Himalayas. These rivers help provide water, food, and energy for nearly 4 billion people in China and across South and Southeast Asia—nearly half of the world’s population. However, depletion and diversion of these transborder resources to meet growing industrial, agricultural, and urban demands have the potential to trigger far-reaching economic, social, and environmental challenges.

The lack of comprehensive and effective regional frameworks for cooperation hinders sustainable management of these waterways. China, which controls the headwaters of these rivers, has an enormous need for Himalayan water to satisfy economic and energy demands but has little incentive to participate in formal water-sharing and water-management agreements with its neighbors. China’s dam-building and water-diversion projects are a source of major concern to the countries downstream, which often complain about Beijing’s lack of transparency and reluctance to share information. Although managing water-sharing relations with China might be the most prominent challenge, cooperation is not much easier at the middle and lower reaches of the rivers. Collaboration in South and Southeast Asia is frequently frustrated by competing national interests, economic priorities, political disputes, and weak regional organizations. In addition to the environmental impacts of man-made diversion projects and unsustainable freshwater usage, there is also inadequate cooperation on scientific research to understand and prepare for the effects of climate change on the region’s water supplies.

This Asia Policy roundtable contains seven essays that discuss the challenges and implications of water security in Asia and recommend steps that both upstream and downstream countries could take to better manage the region’s shared water resources.

Asia’s Unstable Water Tower: The Politics, Economics, and Ecology of Himalayan Water Projects
Kenneth Pomeranz

China’s Upstream Advantage in the Great Himalayan Watershed
Jennifer L. Turner, Susan Chan Shifflett, and Robert Batten

Melting the Geopolitical Ice in South Asia
Robert G. Wirsing

Himalayan Water Security: A South Asian Perspective
Tushaar Shah and Mark Giordano

Hydropower Dams on the Mekong: Old Dreams, New Dangers
Richard P. Cronin

Climate Change and Water Security in the Himalayan Region
Richard Matthew

Securing the Himalayas as the Water Tower of Asia: An Environmental Perspective
Jayanta Bandyopadhyay

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As I have been arguing for a number of years South Asia needs to re-negotiate the Indus Water Treaty to encompass Afghainstan, Bangladesh, Bhutan, China, India, Nepal and Pakistan before the region starts to suffer from water insecurity and the effects of climate change. Editor

 

 

 

© 2014