Vandana Shiva, Author at 51勛圖 /author/vandana-shiva/ Fact-based, well-reasoned perspectives from around the world Thu, 24 Nov 2016 14:03:18 +0000 en-US hourly 1 https://wordpress.org/?v=6.9.4 The Uttarakhand Disaster: A Wake-up Call /region/central_south_asia/uttarakhand-disaster-wake-call/ /region/central_south_asia/uttarakhand-disaster-wake-call/#respond Wed, 28 Aug 2013 06:48:29 +0000 The Uttarakhand floods were a direct result of misguided government policy.

The Uttarakhand disaster in India, which struck during the 2013 monsoon season, was a consequence of the disastrous ecological systems upholding the fragile Himalayan ranges. The greed for profit through its rich natural and cultural heritage is a driving factor towards rapacious and unplanned development in the region.

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The Uttarakhand floods were a direct result of misguided government policy.

The Uttarakhand disaster in India, which struck during the 2013 monsoon season, was a consequence of the disastrous ecological systems upholding the fragile Himalayan ranges. The greed for profit through its rich natural and cultural heritage is a driving factor towards rapacious and unplanned development in the region.

The State of Uttarakhand is the source of the sacred Ganga River, often dubbed as the “Lifeline of India.” The sanctity of the Ganga’s glacial sources and tributaries have been observed since times immemorial; Hindu deities in magnificent temples have been worshipped there. These sites were anointed as sacred in order to protect the Ganga River and the Himalayan range at large. According to legend, the yatra (Hindu pilgrimage/journey) to the four holy sites of Gangotri, Yamunotri, Kedarnath and Badrinath, the Char Dham (the four abodes/seats of Hindu Gods) was meant to enable people to connect culturally, spiritually and ecologically to sources of the rivers of India: the bhutirths (sacred/purest sites of the earth) and, in turn, connect to the sources of all life itself.

The Himalayan Mountains have sustained local communities and pilgrims for thousands of years. This is because, in the past, they have been treated with reverence and respect. Today, however, the situation has changed. The Himalayas are being plundered and pillaged for all to see.

A Complete Failure

The June 2013 flash flood disaster, which caused over 5,000 deaths and disappearances, is a wake-up. We need to revere and respect the sacred mountains and rivers of India as we once did. India is continuing on an unsustainable path of development.

This article is a call to incorporate scientific discoveries into ecological conservation. As the country struggles under the burden of corruption, all that follows after a disaster of such intensity is a saga of mud-slinging. Everyone blames the other while no one gets the job done. Thus, contrary to what the politicians of Uttarakhand say, the disaster was clearly manmade. It is the politicians, decision-makers and corporations who are responsible for causing the disaster through shortsightedness, ignorance, and greed. They need to take responsibility for the disaster as a direct result of their policies. The Polluter Pays Principle, a universally accepted principle of international law, must be expanded to cover the scale of ecological devastation that has been witnessed.

On June 25, the chief minister of Uttarakhand, Vijay Bahuguna, stated that the Himalayan disaster set back Uttarakhand by three years and damaged development projects worth Rs 3000 crore (Rs 30 billion). This is evidence that Bahuguna only looks at development in terms of profit. He fails to see that the formation of an inch-thick layer of protective top-soil, which was washed away, will take another 500 years to develop. He fails to see that local communities over thousands of years have worked hard to coexist peacefully with the fragile mountains. He fails to see the millions of years it took the Himalayas to form. He fails to see that the devastation caused by the floods to the lives and livelihoods of local communities cannot possibly be reversed in three years.

In 1916, Rai Patiram Bahadur, in his book “Garhwal: Ancient and Modern,” wrote:

“We may say that there is no country in the world of the dimension of Garhwal which has so many rivers as a traveler will find in this land. The district has 60 rivers of different sizes; besides these, there are rivulets, rills, springs and fountains in hundreds, showing that nature has been especially bountiful to this land in the matter of its water supply.”

Dynamite and Dams

Today, the Garhwal region and other parts of Uttarakhand are being violated, as rivers are dammed and diverted for electricity, and the pilgrimage to the Char Dhams is turned into a crass consumerist tourism routine. It is evident that the Himalayan landscape has undergone a drastic change for the worse over a century.

An RTI query, filed by activists in 2010, revealed that the state government planned to construct 557 dams across the River Ganga and its tributaries. Next to the Narmada Bachao Andolan, which threw light on India’s unfounded obsession to dam Indian rivers, the biggest agitation has been against the Tehri dam. This is the tallest dam in the world, located on the river Bhagirathi. Its first phase was completed in 2006, despite intense opposition. There are hundreds of dams on rivers like Bhagirathi, Alaknanda, Mandakini, Gauriganga, which are either built, or about to be built and are running "bumper-to-bumper." Often a "shortcut" is created by blasting tunnels through hill-sides, to create a gravity induced water flow. It plays absolute mayhem with the ecology, the flora and fauna, and the local people's livelihoods. The long-term impact of such hydel projects is unknown, as environment costs of any project are never taken into consideration.

The pioneering Swami Gyanswarup Sanand, (formerly Dr. G.D. Agrawal) of the Ganga Sewa Abhiyanam (an organization based in Varanasi, India committed to the conservation of the Ganga River) has repeatedly gone on fast to save the Ganga. His efforts forced the Indian government to declare the area from Uttarkashi to Gaumukh an eco-sensitive zone in April this year. The Uttarakhand state government strongly opposed the Indian government's decision to make the declaration. The chief minister then stated that a blanket ban on deforestation and the establishment of factories to manufacture furniture and other wooden items, would not be in the interests of the state.

The disaster of 2013 ought to have made him realize the value of protecting the Himalayan banks of the Ganga River. There is an urgent need to protect the entire catchment region of the Ganga. And it is not just the stretch between Uttarkashi and Gaumukh that is ecologically fragile.

Blasting dynamite recklessly to construct dams and tunnels, triggered thousands of landslides. When the first rain comes, these landslides fill the river bed with rubble, leaving no space for water to flow. These activities end up literally stealing the ecological space required by rivers. Overflow and flooding is a natural consequence when rivers have no space to flow.

Local communities, which are often unseen and unheard in the mainstream media, cannot retrieve their loved ones that extinguished in the disaster, or their fields and homes that were washed away. But those that caused the catastrophe by building dams — the construction companies like JP, GVK, LANCO, L&T, etc — will lose nothing.

It is high time that hydroelectric projects are reassessed. The environmental impact of any project has to be taken into account, and the ecological loss quantified. This is how the cost-benefit ratio of any project will be ascertained. The opinion and approval of local communities, which bear the brunt of development projects’ negative externalities, needs to be taken into account during this process.

In addition to blind adherence of the skewed “development” model, there is a denial of the deepening vulnerability of the Himalayas to climate change. Extensive research of climate change shows that severe weather events are a consequence of global warming. The Research Foundation for Science Technology and Ecology on Climate Change, warned the Indian government that climate extremities, untimely rains and erratic melting of glaciers were results of global warming, which created new challenges for the Himalayas.

The monsoons came early this year, and rainfall was much more than normal. Usually, floods come at the end of a heavy monsoon. This year, they came with the first rains. This is climate instability.

In the meantime, the ecological damage caused by mal-development has reduced the capacity of the mountain ecosystem to deal with heavy rain. Climate havoc adds to its vulnerability, creating a vicious cycle.

Kedarnath, the 8th century Shiva shrine, located at the source of the Mandakini River, received severe damage, caused by the breaking of the Kedar Dome glacier that led to the bursting of the glacial Charbari Lake. In spite of this, just before the Copenhagen Climate Conference in 2009, the Indian government issued a report saying there was no developmental impact on the glaciers. It stated that there was no “conclusive proof” that the glaciers were melting. Nevertheless, the simple reason why there is no "conclusive evidence" is because India repeatedly rejected requests from the International Centre for Integrated Mountain Development (ICIMOD), in collaboration with the United Nations Environment Programme (UNEP), for an exhaustive study of the Himalayan glaciers.

The Kedarnath tragedy shows how heavy the cost of this denial is. It is more than imperative to recognize that our glaciers are threatened, and that the current rate and pattern of their melting will lead to more disasters. Disaster preparation is a paramount duty of the government, especially in a state like Uttarakhand. Disaster management programs require honest and robust inquiry into ecological science, and an honest and robust form of participatory democracy.

Mass tourism has led to construction on the fragile banks of the rivers. When rivers flood, more damage is caused. Only a few decades ago, elderly people did the pilgrimage on foot. It was only along the main arteries that there were roads for limited traffic.

A Look Back

Today, there has been an attempt to make four lane highways in the mountains. The construction of highways entails blasting mountain slopes: the rubble is thrown down the slope, causing landslides. Deforestation and dynamiting mountains disperses soil fragments, diminishing the soil’s capacity to hold together, and therefore, multiplying the impact of landslides. Landslides further slope instability as more boulders and debris destroy forests and fields. As stated earlier, this process leaves less space for river water to flow. Rivers thus flood more easily, and instead of reaching faster, pilgrims and local people face road blocks for days due to landslides. Pilgrim tourism needs to be “slow” tourism in order to respect the sacredness and fragility of the Himalayas.

The historic Chipko movement’s activities of 40 years ago deserve a mention. The Chipko movement, or Chipko Andolan, was a movement that practiced the  methods of  ( resistance), through the act of hugging trees to protect them from being decapitated. The modern Chipko movement started in the early 1970s in the  region of the  in , and then in  with a growing awareness of deforestation. The movement started in response to the Alaknanda flooding disaster in 1972. The volunteers continually pointed out that the primary products of the forest was not timber revenue, but soil and water. Forests, when left standing to protect the fragile Himalayan slopes, contributed more to the economy than when they were felled as dead timber. The richness of soil, water resources and biodiversity are invaluable gifts of the forest.

It took another disaster in Uttarkashi (a location in Uttarakhand) in 1978 for the Indian government to recognize that the findings of the Chipko Movement were right. Ironically, the amounts expended to restore normality by way of rehabilitation and humanitarian assistance were much higher than the revenue earned by the government through timber and other forest produce.

In 1981, in response to the Chipko movement, logging was banned above 1,000 km in the Garhwal Himalaya. As a result, government policy reflected that forestry in the fragile Himalaya has to be in the form of conservative forestry, which maximizes the ecological services of the forest in protecting and not exploiting the forests.

Later, in 1983, the Supreme Court ordered the immediate cessation of limestone mining in Doon Valley (a region in Uttarakhand), recognizing that the limestone extraction was highly detrimental to the mountain ecology. Limestone, when left untouched, contributed more to the economy than the limestone removed through mining.

Rivers of Life and Death

However, all these steps have been in the form of curative measures and not preventive ones. It is only after a jolt that the government wakes up. And more often than not, the post-disaster steps are taken only half-heartedly. The 2013 disaster assumed new social, ecological and economic proportions. It highlighted the destructive policies that have devastated the fragile and beautiful mountain ecosystems. Being the youngest mountain system in the world, they cannot bear the violence of deforestation and dam-building.

The current disaster should shake the government out of its slumber so they realize that, when respected, our rivers are rivers of life, but when violated, they are rivers of death.

The views expressed in this article are the author's own and do not necessarily reflect 51勛圖’s editorial policy.

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Health Per Acre – The Real Wealth of Farmers (Part 1/3) /region/central_south_asia/health-per-acre-the-real-wealth-of-farmers-part1/ /region/central_south_asia/health-per-acre-the-real-wealth-of-farmers-part1/#respond Thu, 28 Mar 2013 09:52:53 +0000 The introduction of chemicals and, thereby, progression to chemical intensive conventional farming led to simultaneous development of two types of trends in Indian agriculture- that of investing huge sums of money in seeds, fertilizers to nourish these seeds, and pesticides to protect them, and that of growing one type of crop in a huge area leading to production of relatively fewer crops in the whole state or region.

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The introduction of chemicals and, thereby, progression to chemical intensive conventional farming led to simultaneous development of two types of trends in Indian agriculture- that of investing huge sums of money in seeds, fertilizers to nourish these seeds, and pesticides to protect them, and that of growing one type of crop in a huge area leading to production of relatively fewer crops in the whole state or region. The new development, initially projected, advertised, and promoted keeping a scientific whip in hand seemed the only solution towards an imaginary hunger free prosperous society.

The notions that technology is the only answer to develop better ways of doing things leading to production of greater quantity of goods and that switching to chemical intensive, technology intensive, oil intensive industrial model of agriculture are the outcomes of natural human wisdom; such wisdom, working to end all suffering and to shift the Production Possibility Curve to the right, led to mass propagation of a delusion, a euphoria that commoditized food. What Indian Diaspora failed to consider was how more of rice, wheat, corn, soya, cotton, and other few cash crops automatically translates into hunger alleviation and prosperity at a time when production of pulses and oil seeds was completely destroyed by a wave, called Green Revolution. The revolutionary part emerged as centralization of food economy, commodification of a few food items (out of hundreds if not thousands of food items consumed by humans), and, in turn, provision of direct and indirect benefit to The Industry , an entity with a self-proclaimed hypothetical burden to take the economy of 1.2 billion Indians, who define India, forward. The Green Revolution, however, incurred a huge cost to the nation and its people in the form of 270,000 farmers suicides in India, in the form of hunger and malnutrition, in the form of food inflation, and in the form of ecological destruction and overuse of resources.

The difficulty to sustain the gains made through Green Revolution, a phenomenon common at many places, leads to stagnant farm output and sluggish agricultural growth. As a solution to the problem, the Industry proposes Green Revolution 2.0, a newer version of the disease that is at the root of the problem and that can be compared to if not classified as a weapon of mass destruction. The Green revolution not only jeopardized the interest of the farmers, but also made our food chain more dependent on harmful chemicals and oil. The initiative benefitted the Industry at the cost of squeezing the farmer at every possible level from buying seeds, fertilizers, and pesticides at high cost to selling produce at unrealistically low price. Farmers were only shown output of one commodity as USP that attracted farmers in herds and flocks to join the movement. Subsequently, Indian farmers, in their journey towards prosperity, experienced unwanted evils of Industrial form of agriculture such as high input cost, high rates of crop failures attributed to climate change and contrary to conventional promise, compulsory debt cycle leading to bankruptcy in some if not most of the times, and eventual suicides to relieve oneself from the clutches of bankruptcy and the trauma of loss of land.

Even when a farmer smartly shields himself or herself from the evils of Green Revolution listed above, he or she is still vulnerable to the environmental impact of Green Revolution, impact that can be felt over the health of the farmers who is handling deadly chemicals, over the health of the soil that is sprayed with poisons, and over the health of the rivers, flora, fauna, and human civilization up the chain. There are some basic questions that need to be addressed. We framed questions according to popular knowledge, questioned the assumptions at root level, and produced answers, backed by evidence, that point to the contrary. We expect our readers to kindly not misunderstand our view as anti-globalization. It is just globalization of food and agriculture that we are talking against.

Which System of Agriculture Produces More Food- Conventional Monocropping Or Organic Mixed Cropping

Judging food as output of just rice, wheat, corn, soya, potato, and a few other food items is misleading. We propose a more uniform benchmark of comparison, one which compares nutrition produced per acre of farmland in the two systems of farming. To explain with help of a real example used in our case study, it is difficult to compare the output of 1 acre of farmland used for conventional mono cropping of 5 qt of maize with that of 1 acre of farmland used for organic mixed cropping of 4 qt of maize, 2 qt of radish, 100 bundles of mustard leaves, and 2 qt of peas. In order to remove ambiguity from the yield data we devised a methodology wherein we compared nutrition produced per acre of farmland in the two farming systems. In this particular case study of Sikkim, macronutrients produced per acre of farmland in conventional mono cropping that produces 5 qt of maize equals 55.5 kg of protein, 331 kg of carbohydrate, and 18 kg of fat; macronutrients produced per acre of farmland in organic mixed cropping that produces 4 qt of maize, 2 qt of radish, 100 bundles of mustard (sarson) saag, and 2 qt of peas equals 64.2 kg of protein, 304 kg of carbohydrate, 17.2 kg of fat. The comparison across all nutrients in this particular case study is given in the table below:

Nutrition Produced Per Acre of Farmland In Case Study 1, Sikkim

NUTRIENT PRODUCED PER ACRE OF FARMLAND ORGANIC MIXED CROPPING CONVENTIONAL MONO CROPPING
PROTEIN 64.2 kg 55.5 kg
CARBOHYDRATE 304.0 kg 331.0 kg
FAT 17.2 kg 18.0 kg
ENERGY 1622000 kcal 1710000 kcal
CAROTENE 3154 mg 450 mg
THIAMINE 2330 mg 2100 mg
RIBOFLAVIN 460 mg 500 mg
NIACIN 9800 mg 9000 mg
B6
FOLIC ACID 80 mg 100 mg
VITAMIN C 81000 mg 0 mg
CHOLINE 166000 mg 0 mg
CALCIUM 305 g 50 g
IRON 29.3 g 11.5 g
PHOSPHOROUS 1740 g 1740 g
MAGNESIUM 626 g 695 g
SODIUM 145.2 g 79.5 g
POTASSIUM 1878 g 1430 g
CHLORINE 172 g 165 g
COPPER 6420 mg 2050 mg
MANGANESE 3030 mg 2400 mg
MOLYBEDNUM 790 mg 190 mg
ZINC 14240 mg 14000 mg
CHROMIUM 48 mg 20 mg
SULPHUR 645000 mg 570000 mg

Source: Navdanya[1], Nutritive Value of Indian Foods, Icmr [2].

We took twelve such case studies across three states namely Sikkim, Rajasthan, and Uttaranchal. After tabling the data from twelve case studies in the manner shown above, we calculated the average nutrition produced per acre of farm land in the two systems of agriculture- Conventional mono cropping and organic mixed cropping. The average nutrition produced per acre of farmland through conventional mono cropping and through organic mixed cropping across twelve case studies is presented and compared below:

Average Nutrition Produced Per Acre of Farmland Across 12 Case Studies In The States Of Sikkim, Rajasthan, And Uttaranchal

NUTRIENT PRODUCED PER ACRE OF FARMLAND ORGANIC MIXED CROPPING CONVENTIONAL MONO CROPPING
PROTEIN 240 kg 116 kg
CARBOHYDRATE 833 kg 785 kg
FAT 66 kg 23 kg
ENERGY 4914270 kcal 3711475 kcal
CAROTENE 2919 mg 745 mg
THIAMINE 6550 mg 3911 mg
RIBOFLAVIN 3179 mg 1685 mg
NIACIN 31443 mg 28381 mg
B6 821 mg 475 mg
FOLIC ACID 878 mg 328 mg
VITAMIN C 24145 mg 36833 mg
CHOLINE 680675 mg 537527 mg
CALCIUM 2166 g 731 g
IRON 82 g 43 g
PHOSPHOROUS 5158 g 3117 g
MAGNESIUM 1866 g 1496 g
SODIUM 197 g 158 g
POTASSIUM 6076 g 3465 g
CHLORINE 323 g 320 g
COPPER 12591 mg 6101 mg
MANGANESE 25124 mg 15629 mg
MOLYBEDNUM 3694 mg 1077 mg
ZINC 43977 mg 26769 mg
CHROMIUM 345 mg 157 mg
SULPHUR 1.64 kg 1.303 kg

Source: Navdanya[1], Nutritive Value of Indian Foods, Icmr[2].

The table above shows that there is transition to increased production of nutrition per acre of farmland as one switch from conventional mono cropping to organic mixed cropping. Assuming that the results above could be replicated on a national level, we mean that by switching from conventional mono cropping to organic mixed cropping on a national level, the increased production of nutrients would be proportionate to the average of the twelve case studies shown above. According to Central Water Commission, GOI, total cultivable land in India in 2003-2004 was 183 million hectares. Since our report, Health per Acre-organic solutions to hunger and malnutrition, published in March 2011 and available on the internet since then uses the figures mentioned above, we continue using these values in our further calculations and analysis to estimate an approximation of the actual case scenario.

If the results across the average of twelve case studies are assumed to be replicated over 183 million ha, we will produce enough protein to fulfill the protein requirement of 5 billion individuals organically; protein produced conventionally would satisfy only 2.5 billion individuals in the whole year from the same land usage. Additional protein produced through biodiversity intensive organic farming for 2.5 billion extra individuals is sufficient to eradicate protein energy malnutrition from the planet; in reaching this conclusion, we assume that distribution of food will not act as a limiting factor. Similarly, in terms of total food calorie produced for consumption, enough calories will be produced through organic mixed cropping on a national scale to feed 2.4 billion adults, a value that is 600 million adults more than the number of adults for whom energy produced through conventional mono cropping would suffice. It is also assumed that an average adult would consume 2500 kcal every day to stay healthy and to lead a productive life. Except for Vitamin C, every single nutrient marked increased production in organic mixed cropping over conventional mono cropping.

Read the second part of “Health Per Acre – The Real Wealth of Farmers” on April 01, 2013

The views expressed in this article are the author’s own and do not necessarily reflect 51勛圖s editorial policy.

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