Drought Special Issue
MAY 2016: 1-15 fortnightly
GREEN
FEATURES
- जलवायु संकट,
पारिस्थिकी
-
प्रदूषण
- आदिवासी विमर्श
- कृषि और किसानी
- जल दर्शन
- देशज ज्ञान और स्वस्थ
- विविध
Swaraj represents a genuine attempt to regain control of the
'self' - our self-respect, self-responsibility, and capacities for
self-realization - from institutions of dehumanization. As Gandhi states,
"It is swaraj when we learn to rule ourselves."
-----------------------------------------------------------------------------------------------------
विषयवस्तु
|
जलवायु संकट: (सूखे पर विशेष)
·
Two German
states hit 100% renewable electricity
·
Four
critical voices on India’s perennial drought problem
·
Drought migration forces aged to toil as farm hands
·
Bundelkhand's
cycle of droughts: is it man-made?
·
Unseasonal rain: 601 farmer suicides in Maharashra in just 3 months
·
Kharif crops hit by drought, pulses take a Maha pounding
·
Water will continue to be scarce
·
In Fact: Why sugarcane can’t be blamed for Marathwada drought woes
·
Lessons
from semi-arid regions on how to adapt to climate change
·
Resort to
heritage
कृषि और किसानी:
·
Maharashtra govt says mulling farmer insurance as opposition cites
TOI’s suicide reports
·
Study: Agri-corporates, not farmers, hog loans
·
Maharashtra crosses 60,000 farm suicides
·
State government's logic for its low farmer suicide count: Only 3
blamed rains
·
Parched earth, broken promises -
Ground reports from Marathwada give the lie to the government’s claims that it
is doing everything it can to address the drought situation
‘Progressive’
farmer shows the way to success in parched Bundelkhand
·
New water purification system could help slake the world’s thirst
·
Co-operative farming
·
Farmers reap a bountiful supply of tank-bed soil
·
Farming
for a Small Planet: Agro ecology Now
जल दर्शन:
·
Conservation: Lessons from ancient India
देशज ज्ञान और स्वस्थ:
· भारत में गोमूत्र से विकसित कीटनाशक को अमेरिकी पेटेंट
विविध
·
Revised Solid Waste Management Rules Mandate Inclusion of Wastepickers!
·
When
communalists turns on environmentalists
·
वजीराबाद जलाशय मे पानी 25 फीसदी घटा
·
सियासत के चलते लूपलाइन मे पानी एक्स्प्रेस
·
सूखा प्रभावित प्रदेशो के मुख्यमंत्रियों की बुलाई बैठक –प्रभावित
राज्यो के लिए चलेगी पशुचारे की विशेष रेल गड़िया |
·
खाकपति से लखपति बने किसान की कहानी
·
Drinking water; sipping poison-Fluoride contamination has severely affected residents in
drought hit areas
·
Remote sensing and ‘divining’ in a desperate quest for water
·
Scarcity in Mettur's vicinity
·
Water level in dams dips to a new low
·
Politics over an empty water-train in Bundelkhand
·
A new plan to clean up Yamuna
·
Food in India untested for diabetes-linked chemical
·
Water shortage likely in the Capital
*****
जलवायु संकट
|
Two
German states hit 100% renewable electricity
29
April 2016; Europe Sustainable Energy
The German states of Mecklenburg-Vorpommern and Schleswig-Holstein
generated more renewable power in 2015 than households and businesses in each
state consumed.
Germany has 16 federal
states, three of which are city-states, leaving 13 area states known as
Flächenländer.
Renewable energy
production is easier in Germany’s rural areas than in cities, and low
population density means that power consumption is also lower making it easier
for rural states to reach 100 per cent renewable electricity.
Mecklenburg-Vorpommern,
which borders the Baltic and Poland, reached 120 per cent renewable electricity
in 2013.
The state increased
its net share of renewables in power supply to 130 per cent last year.
Onshore wind power
accounted for about 2.6 TWh of the total of 4.9 TWh, followed by power from
biomass at 2.3 GWh, PV at 1.2 TWh, and 0.6 TWh of offshore wind.
The state of
Schleswig-Holstein ocated, bordering Denmark near the North Sea, recorded 78
per cent renewable power in 2014 and reached 100 per cent net last year,
according to analysts.
Biomass made up 46 per cent of this energy,
followed by 44 per cent wind power and 10 per cent other.
Four
critical voices on India’s perennial drought problem
Apr 29, 2016
Many parts of India is
in the grip of severe drought, some for the third consecutive year, leading to
growing hunger, mass migration, water conflicts and farmer suicides.
We present four well-known voices – Yogendra Yadav, Jean Dreze, Sunita Narain and the
late Anil Agarwal – on India’s
perennial drought problem, its causes and possible solutions.
(1) Maharashtra ignored my warnings on
drought: Yogendra Yadav
MUMBAI, April 10, 2016
Accusing Maharashtra Chief Minister
Devendra Fadnavis of ignoring his warnings on the severity of the drought
impacting Marathawada, where the local police had to invoke Section 144 to
prevent violence over water, Swaraj Abhiyan leader Yogendra Yadav on Saturday
said 31 per cent of the gram panchayats in drought-affected districts had not
shown any expenditure under MGNREGS, according to official data, till March 31.
Mr. Yadav said his organisation had
taken out the Samvedna Yatra across drought-affected regions in Karnataka,
Telangana, Maharashtra, Madhya Pradesh, Uttar Pradesh, and Haryana from October
2 to examine the impact of the drought. On October 8, he had written to the
Chief Ministers of all States, including Maharashtra, specifying the immediate
measures needed to be taken to alleviate the sufferings of the rural
population.
In his four-page letter, Mr Yadav had
suggested that the Maharashtra government officially declare drought to prise
open the funds from the State Disaster Relief Fund, take emergency measures to
tackle the water crisis, implement the rural employment guarantee scheme and
the State Employment Guarantee Scheme, restructure agri-loans, enhance ratio
under the PDS, and compensate farmer for crop losses.
“On September 30, 2015, the monsoon
ended, and it was clear on October 1 that Marathawada would face another
drought. Had the government acted upon our suggestions, things would not have
reached such severity,” Mr. Yadva said, releasing his letter.
In the letter, Mr. Yadav had suggested
to the government to stop any diversion of water for non-essential purposes. He
had suggested temporary ban on supply of water for water-intensive sugarcane crops,
ban reopening of sugar factories, regulating drawing of water by bottling
plants, stopping unauthorised diversion of water for industries.
“It is a crime against humanity to
supply water to sugarcane crops when there is acute drinking water shortage.
Activists have repeatedly pointed out how sugar factories are sucking out water
in the Marathawada region, but yet in Latur, water was supplied to sugarcane
farming,” he said.
(
2) A drought of action
April 27, 2016
India has a lasting infrastructure of public support that
can, in principle, be expanded in drought years to provide relief. But business
as usual seems to be the motto
Droughts in India
used to be times of frantic relief
activity. Large-scale public works were organised, often employing more than
1,00,000 workers in a single district. Food distribution was arranged for
destitute persons who were unable to work. Arrangements were also made for debt
relief, cattle camps, water supply and more. The drought relief system was best
developed in the western States of Maharashtra, Gujarat and Rajasthan, but the
basic framework was much the same elsewhere even if its implementation often
fell short.
This
year, nothing like the same sense of urgency can be observed, despite 256
districts being declared drought-affected. To some extent, of course, people’s
ability to withstand drought on their own has increased: incomes have risen,
the rural economy is more diversified, and water supply facilities have
improved. Also, a semblance of social security system has emerged in rural
India, with permanent income support measures such as the Mahatma Gandhi
National Rural Employment Guarantee Scheme (MGNREGS), the Public Distribution
System (PDS), midday meals and social security pensions. This also reduces
people’s dependence on special relief measures in drought years.
None
of this, however, obviates the need for active intervention in a drought
situation. Despite rapid economic growth and some entitlements, the rural poor
in India continue to live in conditions of appalling deprivation and
insecurity. And in some respects, notably water scarcity, the impact of drought
may be worse than before. Recent reports from Bundelkhand and elsewhere confirm
that without emergency support, drought continues to plunge millions of people
into intolerable hardship.
To
some extent, the nature of the required interventions has changed. The simplest
way of preventing starvation in a drought situation today is to intensify the
permanent income support measures mentioned earlier, for instance by expanding
employment under MGNREGS, providing special food rations under the PDS, and
arranging for improved school meals. That may not be enough, but it would be a
good start.
The MGNREGS funds crunch
There
are, however, no sign of this happening. According to official data, the
MGNREGS generated 230 crore person-days of work in 2015-16. This essentially
restored MGNREGS employment generation to the level it had reached before
crashing to 166 crore person-days in 2014-15, when a new government took charge
at the Centre. However, the Finance Minister had not provided for this
recovery. The result was a mountain of arrears at the end of 2015-16 — more
than Rs.12,000 crore. Yet the Finance Minister continued the unspoken policy
(initiated by the previous government) of keeping the MGNREGS budget more or
less constant in money terms year after year. If last year’s employment level
is to be maintained this year, the Central government would need to spend at least
Rs. 50,000 crore, rising to more than Rs. 60,000 crore if arrears are to be
cleared — a legal obligation since MGNREGS workers have a right to payment
within 15 days. Yet the allocation for MGNREGS in this year’s Budget is only
Rs. 38,500 crore. Unless the Central government accepts the need for a large
injection of funds, MGNREGS employment is all set to contract again, or wage
payments will be postponed — both would be a disaster in a drought year as well
as a violation of people’s entitlements under the law.
Slipping up on food security
It is arguable that the PDS is even more important than MGNREGS as a tool of drought relief. Monthly food rations under the PDS are more regular and predictable than MGNREGS work. They also cover a much larger fraction of the rural population — 75 per cent under the National Food Security Act (NFSA). A well-managed PDS is a major safeguard against hunger and starvation.
It
is no accident that the worst reports of food deprivation come from Uttar
Pradesh, which is nowhere near implementing the NFSA. No Indian State has more
to gain than U.P. from the NFSA. Before the Act came into force, barely
one-fourth of the rural population in U.P. benefited from the PDS under the
“below poverty line” (BPL) category. The rest received nothing as the “above
poverty line” (APL) quota was routinely sold in the open market by corrupt
middlemen. Further, even BPL cards were often in the wrong hands. The NFSA is a
chance for the government of U.P. to clean up this mess and cover 80 per cent
of the rural population under an improved PDS, as many of the poorer States
have already done to a large extent.
Unfortunately,
recent reports on the status of the NFSA in U.P. are most alarming. Rapid
investigations conducted recently in Moradabad, Rae Bareli and Lucknow
districts (the last one just 23 km from the State Assembly) all came to the
same conclusion: NFSA ration cards are yet to be distributed, many people are
not even aware of the Act, and the same flawed system continues much as before.
So much for Chief Minister Akhilesh Yadav’s upbeat statement (made twice, on
record, on April 7, 2016) that “we have implemented the Right to Food Act”. One
wonders whether he knows that elections are coming up next year in U.P., and
whether he thinks that this is the way to win them. Opposition parties, it
seems, are equally blind to the situation.
In
other States, the status of the NFSA varies a great deal, from dismal (e.g. in
Rajasthan) to reasonably promising (in many of the eastern States). Alas, these
developments are receiving very little attention. Few issues are more important
at this time than the successful roll-out of the NFSA, yet it seems to be off
the Central government’s radar. The Finance Minister’s recent Budget speech,
for instance, did not make a single reference to it, or for that matter to
nutrition in general. In fact, the Central government (led by the Prime
Minister’s Office) is making things worse by pushing for Aadhaar-based
biometric authentication of PDS beneficiaries. This wholly inappropriate
technology has already caused havoc in Rajasthan, and is all set to disrupt the
PDS across the country if the Central government has its way.
For
the first time, India has a lasting infrastructure of public support that can,
in principle, be expanded in drought years to prevent hunger and starvation.
Business as usual, however, seems to be the motto. The price is paid by
millions of people who are not just exposed to intense hardship but also losing
valuable human and physical capital, condemning them to further poverty in the
future.
Jean
Drèze is Visiting Professor at the Department of Economics, Ranchi University.
(3) Sunita Narain: Permanently fighting
drought
Jhabua late 1980s. This tribal and hilly district of Madhya
Pradesh looked like the moonscape - all around me were bare brown hills. There
was no water. No work. Despair all around. I can still see the faces of people,
crunched on the side of the broken dusty road, breaking stones. This was what
drought relief was all about - work in the scorching sun to dig pits for trees
that did not survive; repairing roads that got damaged each year or building
walls that went nowhere. It was unproductive work. But it was all that people
had to survive this cursed time. What was also clear then was that the impact
of drought was pervasive and long term - it destroyed the livestock economy and
put people in a spiral of debt. One severe drought would set back all
development work for years.
I write this as the country once again reels under crippling drought. But this drought is different. In the 1990s, it was the drought of a poor India. This 2016 drought is of richer and more water-guzzling India. This classless drought makes for a crisis that is more severe and solutions more complex. But it is also clear that drought in India is not a new phenomenon, nor is it going away soon. The fact is that the severity and intensity of drought is not about lack of rainfall, it is about the lack of planning, foresight and criminal neglect. Drought is man-made. Let's be clear about this.
In the decade of 2000, there was rain - years of deficiency were fewer - and there were government programmes designed to build water structures across the country. Under the Mahatma Gandhi National Rural Employment Scheme (MGNRES) millions of checkdams, ponds and other structures were even constructed. But as the intention was not to fight against drought, only provide employment, the impact of this labour has never shown up in the country's waterline. The structures in most cases were holes in the ground - that quickly filled up with soil by the next season.
But this is not the only reason for today's water desperation: the fact is that India has prospered over these decades. This means that there is more water to be used and even less to be saved for times of scarcity.
In today's India, water demand has increased manifold. Today, cities drag water from miles away for their consumption. Industries, including power plants, take what they can from where they can. The water they use is returned as sewage or waste water. Then farmers grow commercial crops - from sugarcane to banana. They dig deeper and deeper into the ground to pump water for their irrigation needs.
This modern day drought of rich India has to be combined also with another development: climate change. The fact is that rain is becoming even more variable, unseasonal and extreme. This will only exacerbate the crisis. It is time we understood that as drought is man-made, it does not have to stay. It can be reversed. It can be managed. But then we really need to get our act together.
What needs to be done is as follows: First, do everything we can to augment water resources - catch every drop of water; store it; recharge groundwater. To do this we need to build millions more structures, but this time based on planning for water and not just employment. This means being deliberate and purposeful. It also means giving people the right to plan where to locate the water body and the right to manage it for their need. Today, invariably, the land on which the water body is built belongs to one department and the land from where the water will be harvested and channels from where the water will be brought belong to another person or even another government department.
Second, revise and update the drought code. It is not as if the richer parts of the world do not have droughts - Australia and California have gone through years of water scarcity. But their governments respond by shutting off all non-essential water use from watering lawns to hosing down cars and much more. This is what is needed in India.
Third, obsessively work to secure water in all times. This means insisting on water codes for everyday India. We need to reduce water usage in all sectors - from agriculture, urban to industry. This means benchmarking this use and setting targets for reduced consumption year on year. It would mean doing everything from introducing water efficient fixtures to promoting water-frugal foods. It means making our war against drought permanent. Only then will drought not become permanent.
I write this as the country once again reels under crippling drought. But this drought is different. In the 1990s, it was the drought of a poor India. This 2016 drought is of richer and more water-guzzling India. This classless drought makes for a crisis that is more severe and solutions more complex. But it is also clear that drought in India is not a new phenomenon, nor is it going away soon. The fact is that the severity and intensity of drought is not about lack of rainfall, it is about the lack of planning, foresight and criminal neglect. Drought is man-made. Let's be clear about this.
In the decade of 2000, there was rain - years of deficiency were fewer - and there were government programmes designed to build water structures across the country. Under the Mahatma Gandhi National Rural Employment Scheme (MGNRES) millions of checkdams, ponds and other structures were even constructed. But as the intention was not to fight against drought, only provide employment, the impact of this labour has never shown up in the country's waterline. The structures in most cases were holes in the ground - that quickly filled up with soil by the next season.
But this is not the only reason for today's water desperation: the fact is that India has prospered over these decades. This means that there is more water to be used and even less to be saved for times of scarcity.
In today's India, water demand has increased manifold. Today, cities drag water from miles away for their consumption. Industries, including power plants, take what they can from where they can. The water they use is returned as sewage or waste water. Then farmers grow commercial crops - from sugarcane to banana. They dig deeper and deeper into the ground to pump water for their irrigation needs.
This modern day drought of rich India has to be combined also with another development: climate change. The fact is that rain is becoming even more variable, unseasonal and extreme. This will only exacerbate the crisis. It is time we understood that as drought is man-made, it does not have to stay. It can be reversed. It can be managed. But then we really need to get our act together.
What needs to be done is as follows: First, do everything we can to augment water resources - catch every drop of water; store it; recharge groundwater. To do this we need to build millions more structures, but this time based on planning for water and not just employment. This means being deliberate and purposeful. It also means giving people the right to plan where to locate the water body and the right to manage it for their need. Today, invariably, the land on which the water body is built belongs to one department and the land from where the water will be harvested and channels from where the water will be brought belong to another person or even another government department.
Second, revise and update the drought code. It is not as if the richer parts of the world do not have droughts - Australia and California have gone through years of water scarcity. But their governments respond by shutting off all non-essential water use from watering lawns to hosing down cars and much more. This is what is needed in India.
Third, obsessively work to secure water in all times. This means insisting on water codes for everyday India. We need to reduce water usage in all sectors - from agriculture, urban to industry. This means benchmarking this use and setting targets for reduced consumption year on year. It would mean doing everything from introducing water efficient fixtures to promoting water-frugal foods. It means making our war against drought permanent. Only then will drought not become permanent.
(4 ) One missed opportunity, 330 million drought-stricken Indians
Anil
Agarwal Wednesday 20 April 2016
We could have been
drought-proof by 2010 had we only harvested rainwater. Sixteen years later,
India's villages are paying the price
It doesn’t matter how much rain you
get, if you do not capture it you can still be short of water. It is
unbelievable but it is true that Cherrapunji in Meghalaya which gets 11,000 mm
annual rainfall, still suffers from serious drinking water shortage.
Now contrast with this. Just the simple richness of rainwater availability that few of us realise because of the speed with which water, the world’s most fluid substance, disappears. Imagine you had a hectare of land in Barmer in Rajasthan, one of India’s driest places, and you received 100 mm of water in a year, common even for this area. That means that you received as much as one million litres of water —enough to meet drinking and cooking water needs of 182 people at a liberal 15 litres per day. Even if you are not able to capture all that water—this would depend on the nature of rainfall events and type of runoff surface, among other factors —you could still, even with rudimentary technology, capture at least half a million litres a year.
In 1991, India had 587,226 inhabited villages with a total population of 629 million giving us an average population of 1,071 persons per village, up from 942 persons in 1981. Let us, therefore, assume that the average population of an Indian village today is about 1,200. India’s average annual rainfall is about 1,170 mm.
If even only half of this water can be captured, though with technology inputs this can be greatly increased, an average Indian village needs 1.12 hectares to capture 6.57 million litres of water it will use in a year for cooking and drinking. If there is a drought and rainfall levels dip to half the normal, the land required would rise to a mere 2.24 hectares. The amount of land needed to meet the drinking water needs of an average village will vary from 0.10 hectares in Arunachal Pradesh (average population 236) where villages are small and rainfall high to 8.46 hectares in Delhi where villages are big (average population 4769) and rainfall is low. In Rajasthan, the land required will vary from 1.68-3.64 hectares in different meteorological regions and, in Gujarat, it will vary from 1.72- 3.30 hectares (see table: Every village in India can meet its own water needs). And, of course, any more water the villagers catch can go for irrigation.
Does this sound like an impossible task? Is there any village that does not have this land availability? India’s total land area is over 300 million hectares. Let us assume that India’s 587,000 villages can harvest the runoff from 200 million hectares of land, excluding inaccessible forest areas, high mountains and other uninhabited terrains, that still gives every village on an average access to 340 hectares or a rainfall endowment of 3.75 billion litres of water. These calculations show the potential of rainwater harvesting is enormous and undeniable. There is just no reason whatsoever for thirst in India.
Therefore, it is possible to drought proof the entire country. Not just drinking water, most of India’s agricultural fields should also be able to get some irrigation water to grow less water-intensive crops every year through rainwater harvesting.
Now contrast with this. Just the simple richness of rainwater availability that few of us realise because of the speed with which water, the world’s most fluid substance, disappears. Imagine you had a hectare of land in Barmer in Rajasthan, one of India’s driest places, and you received 100 mm of water in a year, common even for this area. That means that you received as much as one million litres of water —enough to meet drinking and cooking water needs of 182 people at a liberal 15 litres per day. Even if you are not able to capture all that water—this would depend on the nature of rainfall events and type of runoff surface, among other factors —you could still, even with rudimentary technology, capture at least half a million litres a year.
In 1991, India had 587,226 inhabited villages with a total population of 629 million giving us an average population of 1,071 persons per village, up from 942 persons in 1981. Let us, therefore, assume that the average population of an Indian village today is about 1,200. India’s average annual rainfall is about 1,170 mm.
If even only half of this water can be captured, though with technology inputs this can be greatly increased, an average Indian village needs 1.12 hectares to capture 6.57 million litres of water it will use in a year for cooking and drinking. If there is a drought and rainfall levels dip to half the normal, the land required would rise to a mere 2.24 hectares. The amount of land needed to meet the drinking water needs of an average village will vary from 0.10 hectares in Arunachal Pradesh (average population 236) where villages are small and rainfall high to 8.46 hectares in Delhi where villages are big (average population 4769) and rainfall is low. In Rajasthan, the land required will vary from 1.68-3.64 hectares in different meteorological regions and, in Gujarat, it will vary from 1.72- 3.30 hectares (see table: Every village in India can meet its own water needs). And, of course, any more water the villagers catch can go for irrigation.
Does this sound like an impossible task? Is there any village that does not have this land availability? India’s total land area is over 300 million hectares. Let us assume that India’s 587,000 villages can harvest the runoff from 200 million hectares of land, excluding inaccessible forest areas, high mountains and other uninhabited terrains, that still gives every village on an average access to 340 hectares or a rainfall endowment of 3.75 billion litres of water. These calculations show the potential of rainwater harvesting is enormous and undeniable. There is just no reason whatsoever for thirst in India.
Therefore, it is possible to drought proof the entire country. Not just drinking water, most of India’s agricultural fields should also be able to get some irrigation water to grow less water-intensive crops every year through rainwater harvesting.
Source: India Meteorological Department for normal rainfall
data and projections of average population in 2000 based on Census of India
data for 1981 and 1991.
Source: http://www.downtoearth.org.in/news/one-missed-opportunity-330-million-drought-stricken-indians-53657
Drought migration forces aged to
toil as farm hands
With the able-bodied migrating in
large numbers, 72-year-olds are returning to hard physical labour they cannot
cope with in Marathwada.
Once the food ran out, the 72-year-old became a
farm hand. She spends several hours a day scouting for work in the parched
fields of drought-hit Marathwada's Patoda taluka. "On a day when I find
work, it means bending over for eight to nine hours to help harvest
jowar," she says. She makes Rs 100 a day, barely enough to help scrape
together her meals of bhakri and salt. Hansabai's greatest fear is of falling
ill, since her only companions are even older than her.
"Last week, I started feeling faint, so I
hoisted myself onto the ST bus to see the doctor. My husband is too old to
accompany me," she says.
Yevalewadi has become a ghost-town, each ancient
wooden door sealed with a lock. The animal sheds are bare and the village
square is deserted. In the village of 900, barely 200 remain.
Marathwada is known for the seasonal migration of
cane cutters, who head to sugar factories in Western Maharashtra and Karnataka
from October to April each year. Roughly 10 lakh small farmers migrate each
year after sowing their crop, with Beed being the largest hub.
But this year, unions say, the drought has pushed
migration up by 30%, so 13 lakh sugarcane cutters have migrated. "In our
estimation, there are at least 3lakh more migrants this year," says
Keshvrao Andhale of the Sugarcane Cutters and Transporters Union.
The drought this year is so widespread that
farmers with large holdings of up to 20 acres have also joined migrants of
Georai taluka, where several debt-ridden farmers have committed suicide.
"Two of my brothers had to work as cane cutters for the first time this
year," says Bharat Shendge, whose family owns 20 acres.
In Yevalewadi, where farmers have lost two crops in the drought, more than
one family member has migrated. "Last year, only one son worked as a
sugarcane cutter. This year, both my sons have gone," says Bhausaheb
Yevale. The family has a Rs 70,000 bank loan.Compensation delayed
Although the state government claims it has distributed nearly Rs 4,000 crore as relief to farmers who lost their crop, many here say they have not received the money. The state's decision to send it directly to bank accounts is a major obstacle for those who have no access to banks. State agriculture minister Eknath Khadse claims, "By now 90% of the farmers have received the money. Those without accounts can open them under our Jan Dhan scheme."
Cut in MNREGA work?
Villages across this belt complain of the lack of work under the rural job security scheme MNREGA, which could have otherwise have helped stem migration. Beed district has 8 lakh registered workers but at the moment, only 9,291 are employed.
"This season, we have not been able to get any MNREGA work in the village," says Ganesh Sawant, the
sarpanch of Ranjani village in Georai.
However, officials say MNREGA works have not reduced. "Sugarcane cutting is a traditional occupation. It pays more than MNREGA work and people are able to get a hefty advance, so they prefer it," says agriculture minister Khadse.
Cane cutters have access to advance payments between Rs 30,000-60,000 at the beginning of the season, which helps many settle pending debts. The work fetches roughly Rs 300-400 per day for a husband and wife team, much higher than MNREGA wages.
However, union leader Andhale says once cane workers return to their villages in April and May, jobs on MNREGA will be their only lifeline. "It's important for more jobs to be generated by then," he says.
Bundelkhand's cycle of droughts: is it man-made?
Monday 09 June 2014
Study by National Institute of
Disaster Management shows authorities neglected to break the cycle of droughts
when rains were plentiful
Drought
in Bundelkhand region of central India has been a matter of concern for
decades. A new study by National Institute of Disaster Management (NIDM) now
gives a composite map of the drought which explains the reason for the region
witnessing drought year on year.
The study shows that droughts are not a result of just climatic conditions, but also man-made. "The composite map is aimed at giving an overall scenario for drought in the region. The policies have to consider all of them together, an effort which has not been made earlier," says Anil K Gupta, associate professor at NIDM and principal investigator of the study.
NIDM undertook the study jointly with Indian Council of Social Science Research (ICSSR) to understand the drought patterns and differential role of mitigation strategies in Bundelkhand in order to suggest strategies for future.
The research report—Vunerability Assessment and mitigation anlysis for drought in Bundelkhand region—threw up many more issues. It is to be noted that Bundelkhand comprises 13 districts—seven in Uttar Pradesh (Jhansi, Jalaun, Lalitpur, Hamirpur, Mahoba, Banda and Chitrakut) and six in Madhya Pradesh (Datia, Tikamgarh, Chattarpur, Damoh, Sagar and Panna). It covers an area of 7.08 million hectares (ha).
The report talks of three kinds of droughts—meteorological, agricultural and hydrological.
Gupta says the most important finding that has emerged from the study is about anomalies between different kinds of droughts. "The usual pattern is that first the meteorological drought—rainfall much below average—happens. It leads to agricultural drought in the same year because India depends on monsoons for agricultural production. If the meteorological drought continues for the second consecutive year, then the hydrological drought—below average water availability—occurs," says Gupta. "We have collected evidence that in Bundelkhand this pattern [cycle of drought] has been broken many times, indicating that there are lapses in the efforts made by the authorities to provide relief," says Gupta. For instance, reasons for lack of drinking water in 2011 were man-made as rainfall was ample.
In 2011, all the 13 districts of the region received above average rainfall. According to the state meteorology department, Banda district received 252.4 mm rainfall (214 per cent above normal) between June 1 and June 30. During the same period, Hamirpur recorded 253.9 mm rains (334 per cent above normal), Jalaun 266 mm (153 per cent above normal), Jhansi 266.1 mm (203 per cent above normal) and Mahoba recorded 185.2 mm rains (210 per cent above normal). Lalitpur was under the threat of floods with 644 mm rains which was 5.8 times (588 per cent) more than normal for the district.
However, in the same year, residents of Bundelkhand experienced acute scarcity of water for agricultural and domestic use. "In other words, in that very year people faced hydrological drought in the region," says Gupta. He says systems have to put in place to conserve water during such times to be used in times of scarcity.
Funds not utilized
The study shows that droughts are not a result of just climatic conditions, but also man-made. "The composite map is aimed at giving an overall scenario for drought in the region. The policies have to consider all of them together, an effort which has not been made earlier," says Anil K Gupta, associate professor at NIDM and principal investigator of the study.
NIDM undertook the study jointly with Indian Council of Social Science Research (ICSSR) to understand the drought patterns and differential role of mitigation strategies in Bundelkhand in order to suggest strategies for future.
The research report—Vunerability Assessment and mitigation anlysis for drought in Bundelkhand region—threw up many more issues. It is to be noted that Bundelkhand comprises 13 districts—seven in Uttar Pradesh (Jhansi, Jalaun, Lalitpur, Hamirpur, Mahoba, Banda and Chitrakut) and six in Madhya Pradesh (Datia, Tikamgarh, Chattarpur, Damoh, Sagar and Panna). It covers an area of 7.08 million hectares (ha).
The report talks of three kinds of droughts—meteorological, agricultural and hydrological.
Gupta says the most important finding that has emerged from the study is about anomalies between different kinds of droughts. "The usual pattern is that first the meteorological drought—rainfall much below average—happens. It leads to agricultural drought in the same year because India depends on monsoons for agricultural production. If the meteorological drought continues for the second consecutive year, then the hydrological drought—below average water availability—occurs," says Gupta. "We have collected evidence that in Bundelkhand this pattern [cycle of drought] has been broken many times, indicating that there are lapses in the efforts made by the authorities to provide relief," says Gupta. For instance, reasons for lack of drinking water in 2011 were man-made as rainfall was ample.
In 2011, all the 13 districts of the region received above average rainfall. According to the state meteorology department, Banda district received 252.4 mm rainfall (214 per cent above normal) between June 1 and June 30. During the same period, Hamirpur recorded 253.9 mm rains (334 per cent above normal), Jalaun 266 mm (153 per cent above normal), Jhansi 266.1 mm (203 per cent above normal) and Mahoba recorded 185.2 mm rains (210 per cent above normal). Lalitpur was under the threat of floods with 644 mm rains which was 5.8 times (588 per cent) more than normal for the district.
However, in the same year, residents of Bundelkhand experienced acute scarcity of water for agricultural and domestic use. "In other words, in that very year people faced hydrological drought in the region," says Gupta. He says systems have to put in place to conserve water during such times to be used in times of scarcity.
Funds not utilized
The expenditure from Bundelkhand package by National Rainfed Area Authority, announced in 2007 for drought mitigation strategies, speaks for itself. Till November 2012, NRAA had received confirmation for completion of works worth Rs 179 crore out of Rs 1,005 crore allocated. This amounts to only 18 per cent of the total allocated fund.
Further, as on March 31, 2013, Madhya Pradesh spent 58.4 per cent and Uttar Pradesh 43.89 per cent of the funds. Rs 1,400 crore was allocated for the financial year 2013-14 under the package; how much of the funds were utilised and in what manner is still being ascertained.
History of neglect
J S Samra, CEO of NRAA, says that the situation in Bundelkhand has to be seen in the historical context of the region. "This has been a neglected area. After the revolt of 1857, which primarily covered this region, the British neglected development of the region as a punishment to the people. Even after Independence, the region had a number of dacoits which hampered development. Quality services could not be maintained for these reasons," says Samra. He says that both the states, treat posting of government officials to Bundelkhand as punishment postings.
"This should change. To motivate good officers to take up challenging job like managing a drought-prone region, the governments should provide incentives," adds Samra. He says the package is being implemented and a third party is monitoring the work. "They will come out with a mid-term performance report in few months," he adds.
Climate change impacts
However, climate change is not to be ignored. The climatic modelling experiments by United Nations Institute for Training and Research (UNITAR) has predicted that temperatures are likely to be higher by about 2 to 3.5°C in Bundelkhand region by the end of this century. The impacts of drought years are already visible. In the past four to five years, there has been news of mass migration, starvation deaths, farmer suicides and even the “mortgaging” of women.
NIDM's recommendations
The report has made following recommendations:
1.
The percentage of industrial units
in Bundelkhand is only 1.5 per cent as compared to 51.3 per cent in Western
Uttar Pradesh. To create alternative employment, new small-scale and tiny units
in 26 districts of eastern Uttar Pradesh and seven districts of Bundelkhand
should be given capital subsidy.
2.
Agriculture is being promoted
through irrigation, with less emphasis on promotion of dryland agriculture and
reclamation of wastelands in the region. Dryland agriculture holds the key to
departure from dependence on rain and rain-fed systems.
3.
The focus so far has been on major
crops of kharif and rabi seasons. The emphasis should be on minor crops like
essential oils, aromatic and medical plants, floriculture, fisheries, and
dairying promotion integrated with wasteland development, animal husbandry and
livelihood diversification programmes.
Unseasonal rain: 601 farmer suicides
in Maharashra in just 3 months
As many as 601 farmers have killed
themselves in Maharashtra in the three-month span between January and March
this year. This works out to a chilling statistic of almost seven farmer
suicides every day, according to the state government's own figures.
In 2014, the state had reported 1,981 farmer
suicides. In just three months this year, it has reached 30% of that figure.
This despite the state government's claims that halting farmer suicides is its
top priority.
The suicide rate had already started climbing
with the onset of the drought last year. The unseasonal rain which impacted a
wide expanse of crops and continues to pound the state has made things worse.
The cotton belt of Vidarbha - from where chief
minister Devendra Fadnavis hails - continues to report the highest number of
cases, the data shows. More than half the suicides between January and March -
319 in all — were from Vidarbha. The arid zone of Marathwada reported the
second-highest number, with 215 cases. These regions were worst hit by the
drought and have also been impacted by unseasonal rain.
In 2014, the state reported the same trend. Of
the 1,981 cases, the highest toll of 1,097 was from Vidarbha. Marathwada
accounted for 574 cases, reporting a steep rise in suicides once the drought
began. In December 2014, Marathwada reported 151 cases, the highest toll in the
state.
Farmers' groups say the state's Rs 4,000 crore
drought relief package translated into a very small sum per farmer since as
many as 90 lakh farmers were impacted. "It works out to just around Rs
1,875 an acre. Also, banks continued to demand repayments from farmers despite
instructions from the state to restructure loans," said Kishor Tiwari of
the Vidarbha Janandolan Samiti.
The low price of crops and the lack of bank credit to farmers - which
underpin the larger crisis in the farm sector - have not been addressed by the
government, he pointed out. "It costs Rs 6,800 to grow a quintal of cotton. The sale price fixed by the government is Rs 4,000. Even without a drought, farmers were in debt," Tiwari said.
"The farm crisis preceded our government. We have announced a series of measures which will soon have an impact," said state agriculture minister Eknath Khadse. The state hopes to boost water conservation
through its Jalyukta Shivar Yojana. It has also drafted an action plan which includes restructuring bank loans and waiving loans worth Rs 171 crore from moneylenders. The state has also set up a committee to
monitor vulnerable families and planned schemes to aid education and medical treatment for families of farmers.
Kharif crops hit by drought, pulses
take a Maha pounding
A huge drop in crop yields and the
drought has impacted the arrival of supplies in the state’s main agricultural
markets.
MUMBAI: Moong production in Maharashtra is set to
drop by a steep 61% and soyabean yield by 59% compared to last year as a result
of the sweeping drought that set in nine months ago. While the havoc caused by
the recent spell of unseasonal rains is yet to sink in, the drought which
preceded it has already hit the production of the state's main kharif crops.
The drought was triggered by scanty rains between
June and October 2014, which devastated the kharif crop (June-September
season). Considered one of the most widespread agricultural droughts in recent
years, it has led to massive crop losses. Nearly two-thirds of Maharashtra's
villages reported half the standard crop yield during the kharif season.
The result is a steep decline in the production
of food crops, mainly pulses, state government estimates show.
The tur yield is set to fall by 42 % and udid by
48% compared to last year. Some cereals, including maize, have been impacted,
with yield expected to fall by 52%. Kharif jowar and bajra could see a fall of
over 30% while ragi is set to see a 20% decline.
These estimates from the state agriculture
department are part of the memorandum submitted by the Maharashtra government
to seek central aid for the drought.
Cash crops have also taken a hit, the data shows.
Besides the soyabean crop, the estimates show a 27% fall in the production of
cotton and a steep 56% decline in kharif oilseeds.
More worrying, the drought has also impacted the
arrival of farm produce in the state's main agricultural markets. "The
arrival of farm produce in 2014-15 has been reduced by almost 50% compared to
last year," the state's memorandum points out. This includes an almost 50%
fall in soyabean arrivals, a near 62% drop in groundnut produce and a 43% fall
in cotton produce.
The figures contrast the arrival of farm produce
at the Agricultural Produce Marketing Committees between September and November
2013 and the corresponding period in 2014.
State agriculture minister Eknath Khadse says the
reduced yields will not cause a shortage. "The kharif crop losses are
expected to be more than 50%. But this may not lead to a shortage in the state
because we can get supplies from other states," he said.
But experts say the state is set to face rising
prices, especially for pulses. "Since pulses are imported, a shortage will
push up prices. The price of tur dal has already shot up to Rs 6,000 per
quintal, much higher than the minimum support price of Rs 4,200," says
farm activist Vijay Jawandia.
Water will continue to be scarce
April 26, 2016
A focus on minor irrigation projects and drip irrigation
could go a long way in coping with frequent crises.
SOlution: "Increased water conservation and promoting cultivation of less water-intensive crops can go a long way towards coping with the crisis." A farmer in drought-hit Ahmedabad.
The
incidence of drought can no longer be considered a rare event. Climate change
has quickened the occurrence of extreme events such as drought,
floods and cyclones in different parts of India. It is alarming that the
frequency and severity of such extreme events has increased in recent decades.
India has experienced numerous drought years in the past, but the frequent
recurrence after 1988 — in 1999, 2002, 2004, 2009, 2014 and 2015 — is highly
worrisome. It causes enormous hardships to resource-poor farmers, who are
forced to fend themselves through sale of assets and migration to urban areas.
Though the impact of drought varies across regions, it invariably affects
human, livestock and natural resources.
Severe
drought conditions are being experienced in some parts of the country this
year as well. The Union government has already declared that the country is
grappling with severe drought conditions which are estimated to have affected a
sizeable population, nearly 330 million people. More than 50 per cent of the districts
across the country have had rainfall deficit, many in tandem with high
temperatures of above 45 degrees Celsius. The most severely affected States
include Maharashtra, Karnataka, Jharkhand and Telangana. Given the current
scenario, the government has initiated drought relief programmes to compensate
crop losses, encourage judicious use of groundwater, and has sent ‘water
trains’ to the highly water-scarce areas besides extending financial help to
the States to cope with the emerging crisis.
As
much as these relief measures are essential to ease the drinking water shortage, the problem is deep-rooted and has important implications
for the agricultural sector that provides livelihood to almost 75 per cent of
the population directly and indirectly. Drought conditions would severely affect the production
and the productivity of key crops viz. wheat and rice, which contribute
substantially to India’s food basket. In a situation of a continuous decline in
the level of water tables and low capacity of water reservoirs, irrigation
would contribute little to help in the drought conditions.
Scaling
up irrigated area
Government statistics have hardly shown any increase in the total net irrigated area, which has been hovering around 63 million hectares and constitutes only 45 per cent of the total area sown in the country. Some improvement in irrigation intensity has taken place in Assam, Jammu and Kashmir, Madhya Pradesh and Rajasthan in recent years. But it appears to be insignificant in view of a massive increase in real public investment in major, medium and minor irrigation from Rs.235 billion in 2004-05 to Rs.309 billion in 2013-14. While the capital expenditure in major projects increased by 3.5 times, the investment in minor irrigation increased by 2.5 times only. A virtually stagnancy in irrigated area — especially of the area under canal irrigation — raises concerns about the efficiency of the ongoing investments and the quantum of investment that is further required to scale up area under irrigation.
A
study carried out by International Food Policy Research Institute shows a sharp
drop in the marginal returns from additional public investment in major and
medium irrigation from 1.41 per cent during the nineties to 0.12 per cent when
expenditure incurred during the 2000s is also considered. Evidence also shows
that the ratio of irrigation potential created from public expenditure is
higher for minor irrigation projects than medium and large irrigation projects.
Unfortunately, minor irrigation projects have received only scant attention
from policymakers over time. Minor irrigation structures play a significant
role in recharging of wells, drought mitigation and flood control.
Long-term
remedial options
While the India Meteorological Department has forecast above average rainfall during the upcoming South-West monsoon and Finance Minister Arun Jaitley expressed confidence that agriculture would withstand the ongoing drought, the situation calls for long-term solutions. Increased water conservation and promoting cultivation of less water-intensive crops can go a long way towards coping with the crisis. The other remedial option could be to adopt drought-resistant crop varieties as has been done in some parts of Odisha for paddy/rice through the help of the International Rice Research Institute. This can maintain productivity and income of the farmers and also ensure price stability to the consumers. It is important for the government to sustain an increased investment in irrigation but at the same time gear up towards faster completion of the ongoing projects.
Micro
irrigation system comprising drip and sprinkler irrigation has greater
potential to improve water use efficiency in agriculture. Despite various promotional
efforts undertaken by State governments, their level of adoption and spatial
spread has remained low. Studies show that micro irrigation system helps save
water, reduce cost of cultivation and improve crop yield. Various studies
showed that the net return per inch of water supplied through drip irrigation
was 60-80 per cent higher than that of conventional irrigation system. However,
among others, high initial capital cost, suitability of designs to different
soil conditions, problems in receiving subsidy and small holdings are
reportedly affecting the adoption of this technology. Subsidy being an
important factor influencing adoption decision of farmers, delay in
disbursement and appropriation by better-off farmers seems to have affected the
vast majority of resource-poor small and marginal farmers in accessing this
technology.
The
Pradhan Mantri Krishi Sinchayee Yojana is a good policy initiative that would
accelerate public investment in both micro and macro irrigation. During the
recently organised India Water Week, 2016, India has also partnered with
Israel, a water-scarce country, to learn and adopt innovative strategies to
harness rainwater. Small vegetable-growing farmers near Solan, Himachal
Pradesh, have long adopted Israel’s water-saving technology through the
assistance of the Mother Dairy retail chain that procures their fresh produce.
It is an opportune time to scale up technology adoption.
Finally,
the shortage of drinking water can be addressed through promoting conservation
and generating awareness among people to use the scarce resource with utmost
care. Media reports indicate that the funds allocated by the Centre for
drinking water projects have remained underutilised in many of the States hit
by water scarcity. The States must act responsibly and gear up to come out of
the current situation of water crisis.
Seema
Bathla and Elumalai Kannan are Professor and Associate Professor at the Centre
for the Study of Regional Development at JNU, New Delhi.
In Fact: Why sugarcane can’t be
blamed for Marathwada drought woes
It is a convenient whipping boy, even though it consumes
less water on a per-day basis than other crops, and even less for every unit
weight of biomass produced.
April 15, 2016
Every
crisis produces its fall guy. This time, it is sugarcane that’s bearing the
brunt of the blame for drought, especially in Maharashtra’s worst-affected
Marathwada region.
Sugarcane,
no doubt, requires 2,100-2,200 mm of water, more than the 1,400 mm or so for
paddy, 900 mm for cotton, 600 mm for jowar (sorghum) and arhar (pigeon-pea),
550 mm for wheat, and under 500 mm for soyabean and chana (chickpea).
But
then, sugarcane typically grows over 365 days, as against the 180 days of
cotton and arhar, 130 days of paddy and wheat, 110 days of jowar and chana, and
100 days of soyabean. Besides, even the best Punjab farmer can harvest only six
tonnes of wheat and nine tonnes of paddy per hectare, whereas cane yields
rarely go below 40 tonnes, while averaging 80 tonnes for Maharashtra.
Simply
put, sugarcane consumes less water on a per-day basis, and even less for every
unit weight of biomass produced.
Moreover,
the sugarcane farmer doesn’t merely grow cane stalks. For every 80 tonnes of
cane produced from a hectare, an additional 15-16 tonnes of green ‘tops’ also
get harvested. These green top leaves — roughly 20 per cent over and above the
millable cane weight — meet much of the fodder needs of his buffaloes and
cattle during the crushing season from November to April. The water being used
for cultivating sugarcane, thus, also goes towards production of fodder, which
the farmer would otherwise have had to grow separately.
But
water used for sugarcane cultivation is only one part. Equally important is the
fact that the end-product, or the crop itself, is some 70% water. This water —
700 litres in one tonne — is what mills actually use for production of sugar
and much more. Out of the 700 litres, about 250 litres is utilised in boilers
for generating steam and power, while an equal quantity gets consumed in the
sugar manufacturing process. It still leaves a balance of 200 litres, which,
after cooling in spray ponds and primary treatment, can be re-used for
irrigation and other purposes.
That
makes sugar a unique industry, which doesn’t require water from outside, and
even generates its own energy from bagasse — the fibrous residue remaining
after extraction of juice from the cane. The high-pressure boilers in most
mills today use water from the cane and burn the bagasse to produce
electricity. Around 130 kilowatt-hours can be generated from every tonne of
cane, of which the mills’ own in-process and auxiliary consumption requirement
is only 35-36 units, with the remaining 94-95 units being exportable to the
grid.
Bashers
of sugarcane will tell us how it takes 2,000-odd litres of water to produce one
kg of sugar. But they won’t say that this water is consumed over 12 months, or
that it goes towards production of fodder, electricity and alcohol as well. And
if one were to also add that the mills themselves consume no additional water
or electricity — they are surplus in both — it would virtually give a lie to
the perception of sugarcane being a water-guzzler.
Incidentally,
even the sugar accumulation in the cane takes place only in last 90-100 days of
ripening and maturation. The crop’s 365-day duration also covers germination
(40-45 days), tillering (springing of stems from the parent shoot: 90-100 days)
and grand growth (development of millable canes from tillers: 110-120 days).
Much of the water consumption happens in the tillering and grand growth phases
that precede sucrose accumulation. This only reinforces the fact that this is
primarily a biomass-cum-energy crop, with sugar only one of its constituents.
But
for all this nuanced understanding of a much-maligned yet misunderstood crop,
one could still ask whether a region like Marathwada, receiving an average
annual rainfall of slightly over 820 mm, should be growing cane at all. The
answer, on the face of it, might be no, given that a water requirement of 2,000
mm-plus is too much for any crop in a traditionally drought-prone belt.
However,
even the above statement needs qualification in the light of the fact that the
total area under sugarcane in the eight districts of Marathwada has ranged
between 2.2 and 2.4 lakh hectares (lh) annually; in 2015-16, it fell to less
than 1.9 lh. The accompanying table shows this to be way below the
corresponding acreages under cereals (mainly jowar, maize and bajra), cotton,
pulses (arhar, urad, moong) or oilseeds (soyabean).
It
is difficult to see how a crop accounting for just over 2 lh out of
Marathwada’s estimated 70 lh gross cropped area be the cause for drought, as
many NGOs and drawing room experts are claiming. The drought and the
accompanying rural distress in the region is the result of the monsoon’s
failure in three out of the last four years. Period.
All this is, of course, not to argue
against efforts to promote water use efficiency in sugarcane. Replacement of
flood irrigation methods with drip irrigation has been shown to bring about
water savings of 40-50 per cent, while simultaneously boosting yields by up to
a third. The latter is on account of the water being delivered directly to the
plant’s root zone (where it is really required) and the remaining soil area
getting enough air to maintain an optimum air-water-nutrient balance. With drip
irrigation and judicious use of canal water, it should be possible for even
Marathwada’s farmers to realise the enormous food, energy, and fodder potential
offered by a most versatile crop.
Lessons from semi-arid regions on how to adapt to climate
change
Tuesday 12 April 2016
Building on local experience and having access to current and
expected climate trends is crucial to adapting to climate change for
farmers in semi-arid regions
Rising
temperatures and more extreme, unpredictable climate events are making
sustainable livelihoods tough for many people living in semi-arid regions of
the world. To adapt, local communities, and especially farmers, use different
strategies and responses.
Research
in India and Africa shows that achieving sustained and equitable adaptation
requires a number of things. It is critical to include a range of stakeholders
to think about the problem together. It’s also important to have access to usable
climate information that is considered alongside socioeconomic and governance
issues. Finally, we must look at both the past and imagine possible different
futures that reduce inequality and climate impacts.
How
farmers are adapting
In
northern
Ghana farmers are increasingly suffering
from delays in the onset of the annual rains. In an attempt to adapt, they are
experimenting with different types of crop and water-storage systems.
In
the Moyar Bhavani basin
in India’s southernmost state of Tamil Nadu, unpredictable weather patterns
mean that traditional rain calendars, used to decide sowing and harvesting
times, are no longer accurate. And as water scarcity becomes a growing problem,
farmers are turning to irrigation crops. These require expensive inputs and can
push marginalised groups further into poverty and debt.
Water
and pasture shortages in Kenya’s semi-arid regions, exacerbated by droughts,
have driven pastoralist women into new types of livelihoods. These include
petty trade in a number of products like milk, vegetables and beans, as well as
small-scale agriculture. Men, on the other hand, pushed by conflicts with other
groups over the use of land, often end up pursuing semi-legal activities such
as the drugs or arms trades, according to our unpublished research.
Adapting
to climate change
There
are many ways of preparing for, and adapting to, changing climates. We suggest
three important components:
- Building on local knowledge of climate vulnerability and responses: To start with, it helps to look at why farmers and pastoralists are vulnerable to climate impacts and what they are doing in response. Communities, households and individuals have a wealth of knowledge that can be shared about the practices and ways in which they respond. Adaptation initiatives that build on local knowledge and integrate scientific findings have a higher chance of leading to sustained and effective adaptation.
- Including climate information: Climate information that is tailored to users’ needs can help vulnerable farmers make better decisions. But this needs to be transparent, high quality and context specific, and must deal with current and expected climate trends and their impact. This kind of information is also needed by people who work with these vulnerable groups, such as extension officers, local and national governments, and NGO practitioners.
- Collaborative learning and decision-making: If planning and decisions allow for mutual learning between scientists, decision-makers and local communities, all groups gain a deeper understanding and appreciation of the limits and uncertainties about climate information, and of the types of adaptation responses that might succeed. Co-production of knowledge also supports the use of climate information in the local context and cooperative development of possible solutions.
This
approach would prompt the following types of questions to be asked:
- What makes different groups of people vulnerable, not only to climate risks but to other socioeconomic factors? How serious are the risks and when will they occur? Are there hidden opportunities?
- Will it be hotter or colder, wetter or drier? Will there be more extreme events? Will these changes further exacerbate the risks and vulnerabilities identified above?
- What responses could be developed? Which are the most urgent, given the medium and high risks? For which groups of people? Are the proposed options robust in the face of uncertainty? Are they politically and socially acceptable, and/or financially feasible?
This
approach has three advantages. It ensures users are engaged in assessing
vulnerability and risk. It improves the understanding of where and how
historical and future climate information plays a part. And it contributes to
the understanding of how climate information feeds into adaptation options.
Engagement
with farmers
In
the Adaptation
at Scale in Semi-Arid Regions
project, participatory assessments have been carried out to identify the main hazards and
issues affecting semi-arid communities. In these multi-stakeholder exercises,
possible response strategies have been explored, from the local and regional
level. In the process, people have felt empowered and able to play a role in adaptation.
In
parallel, researchers are conducting analyses of climate trends and future projections
across a number of areas in Africa and India. They are also increasing their
understanding of the governance factors that enable or curtail adaptation
actions, and their impact on different social groups.
In
the second phase of the project, these and other findings will be used to
develop scenarios of possible futures. In these, adaptation will take a range
of different forms, from incremental to transformative. As part of this
process, participants will develop possible adaptation strategies and responses,
and will hopefully feel empowered to act.
The
aim is to develop adaptation that is more equitable, widespread and sustained.
This will be crucial to help mitigate the possibility of maladaptation
and ensure that people’s vulnerability to climate change is decreased.
Resort to heritage
Archana
Yadav Friday 15 April 2016
Bangladesh is betting big on its traditional form of farming:
floating gardens. Can it help climate-proof the country?
LAND
IS an ephemeral presence here. In the low-lying wetlands of south-central
Bangladesh surrounded by unstable rivers, vast swathes of land go under water
for over four months every year. So people have learnt to make the most of
flood water. During monsoon when their land is submerged, they gather water
weeds like hyacinth or paddy stalks and pile them up in thick strips on
stagnant water, beating them into compact shape by stamping their feet. On
these rafts called dhap or baira they grow vegetable seedlings and spices.
These floating farms are 10 times more productive than the traditional ones and
the organic beds are rich in plant nutrients. When water recedes, they break
the rafts and use them as compost to grow winter crops on land (see ‘How
floating gardens are created’).
People have been making floating gardens in this tiny region of 25 square kilometres, covering parts of Gopalganj, Barisal and Pirojpur districts, for ages, some say for 300-400 years. Much like the floating gardens in Kashmir’s Dal lake or Myanmar’s Inle lake. Then, around the turn of the last century, came the big bang moment of floating garden in Bangladesh. In the past 15 years, several non-profits have taken it to all over the country. Haseeb Md Irfan-ullah, an aquatic ecologist and development practitioner, calls it a case of mass fascination. He has been involved in promoting floating farms for a decade.
The government of Bangladesh saw in this traditional practice a way to adapt to the changing climate that is likely to result in prolonged floods and water-logging in the country. In 2013, it approved US $1.6 million to take it up on a massive scale involving 12,000 families in eight districts.
While the government’s approach is commercial, involving big and mid-level farmers, NGOs have promoted floating farms to overcome starvation and poverty. They have involved landless people and marginal farmers. Like Rajeda Khatun of Hariabari village. She lives by the Gumani river in the Chalan Beel region, a large marshy depression north-west of Dhaka. She has a husband, two children and little land. “We used to work as labourers in other people’s houses. For a day’s work I would get 120 taka (Rs 100) but work was available for only five-six days in a month,” she says, sitting inside a duck coop the size of a storeroom floating on the Gumani in Pabna district.
The coop is part of a floating garden with a twist—it combines poultry and fishery with farming. Five families take care of this farm that functions round the year. “Now I spend two hours a day here, taking care of the ducks and fish,” Khatun says, wrapping a shawl tightly around her. Ano-ther woman wades through waist-high water to tend egg plants in blue pots and country beans hugging bamboo structures. “Together we make a profit of one lakh taka (Rs 85,800) in a year from this farm,” Khatun says. With a little extra income she could for the first time lease 20 decimal (800 sq m) land.
People have been making floating gardens in this tiny region of 25 square kilometres, covering parts of Gopalganj, Barisal and Pirojpur districts, for ages, some say for 300-400 years. Much like the floating gardens in Kashmir’s Dal lake or Myanmar’s Inle lake. Then, around the turn of the last century, came the big bang moment of floating garden in Bangladesh. In the past 15 years, several non-profits have taken it to all over the country. Haseeb Md Irfan-ullah, an aquatic ecologist and development practitioner, calls it a case of mass fascination. He has been involved in promoting floating farms for a decade.
The government of Bangladesh saw in this traditional practice a way to adapt to the changing climate that is likely to result in prolonged floods and water-logging in the country. In 2013, it approved US $1.6 million to take it up on a massive scale involving 12,000 families in eight districts.
While the government’s approach is commercial, involving big and mid-level farmers, NGOs have promoted floating farms to overcome starvation and poverty. They have involved landless people and marginal farmers. Like Rajeda Khatun of Hariabari village. She lives by the Gumani river in the Chalan Beel region, a large marshy depression north-west of Dhaka. She has a husband, two children and little land. “We used to work as labourers in other people’s houses. For a day’s work I would get 120 taka (Rs 100) but work was available for only five-six days in a month,” she says, sitting inside a duck coop the size of a storeroom floating on the Gumani in Pabna district.
The coop is part of a floating garden with a twist—it combines poultry and fishery with farming. Five families take care of this farm that functions round the year. “Now I spend two hours a day here, taking care of the ducks and fish,” Khatun says, wrapping a shawl tightly around her. Ano-ther woman wades through waist-high water to tend egg plants in blue pots and country beans hugging bamboo structures. “Together we make a profit of one lakh taka (Rs 85,800) in a year from this farm,” Khatun says. With a little extra income she could for the first time lease 20 decimal (800 sq m) land.
This floating farm is part of a pilot project launched by the Natore-based non-profit Shidhulai Swanirvar Sangstha. In the past three years Shidhulai has built 45 such units on the Gumani, Atrai and Barnoi rivers. It plans to create another 400 units in the next three years.
International organisations IUCN and CARE have also trained about 2,000 families in floating farming in 10 districts since 2007. Another non-profit Practical Action has trained some 800 families displaced by river erosion and living on embankments along the Brahmaputra in the north-west of the country.
To understand the appeal of floating gardens one has to look at the topographical map of Bangladesh. It is a delta of large rivers descending from the Himalayas that are constantly shaping it like moving fingers in sand. Eighty per cent of the country is floodplains. And when the rivers swell in monsoons, they engulf large swathes of the country, at times two-thirds of it. Several parts of Bangladesh remain submerged for three to eight months, leaving millions of people with little land to grow food on.
Add to this the fact that Bangladesh is among the most densely populated countries and also among the most vulnerable to climate change as recognised by the Inter-governmental Panel on Climate Change. Scientists warn that the rising sea level will reduce the gradient of rivers, slowing down the drainage to the sea, thus, increasing the risk of floods and water-logging. They also predict that higher rainfall in the Ganga-Meghna-Brahmaputra river basins and greater glacier melt in the Himalayas may result in more devastating floods.
There is no getting away from water in this country and the pressure on land is going to be immense. Planners and development practitioners understand this very well. “In Bangladesh, 48 per cent of the people are landless and one-fifth of the country is under water. That’s why we thought floating garden is a good idea,” says Mohammed Rezwan, the founder of Shidhulai.
But introducing floating farm to a new area is easier said than done. Shidhulai went through rounds of trial and error for years to evolve a system that worked in Chalan Beel. “We tried using water hyacinth. It could not withstand heavy rains,” says Rezwan. “Then we switched to plastic pots filled with soil, ash and manure.” These floating farms are very different from the traditional ones. The entire unit floats on empty drums and a tightly knitted bamboo platform rather than an organic bed. Other NGOs have also experimented with the techniques, material and crops to adapt to new areas.
Down south where floating farming is traditionally done, raising vegetable seedlings on floating beds is a thriving business. People sell the seedlings to brokers or farmers who grow vegetables on a commercial scale for urban markets like Dhaka. In the north, there is hardly any market for seedlings as water stagnation is not that prolonged, says Irfanullah, a programme coordinator with IUCN. In newer areas farmers mostly grow vegetables for local consumption. Absence of organised agro-business probably explains why many farmers lose interest in floating gardens once the promoting agency withdraws. “I have seen in the north-west when a project is supporting the initiative people show interest but very few continue with their own money,” says Naz- mul Islam Chowdhury, head of the extreme poverty programme of Practical Action.
कृषि और किसानी
|
Maharashtra govt says mulling farmer insurance as
opposition cites TOI’s suicide reports
The government of Maharashtra seems
to think insurance can mitigate farm suicides? In the present context, it will
mean higher premiums (which will be paid for by government with public money).
And no insurance company anywhere pays out on a suicide, so the premiums will
be forfeited.
MUMBAI: A series of reports in The Times of India
on the drought in Maharashtra and the rise in farmer suicides triggered a
strong response from the opposition, which raised the issue in both the state
assembly and council.
Responding to the opposition's demands for more
immediate action in the state's drought-hit areas, state agriculture minister
Eknath Khadse said the state was thinking of providing a life insurance scheme
worth Rs 5 lakh for small farmers, with the state paying the instalments.
"We are also planning to set up village-level committees to boost the
morale of farmers and prevent suicides," Khadse told the council.
Waving copies of this newspaper in the assembly,
senior Nationalist Congress Party leader Jayant Patil demanded action from the
government. "Farmers suicides in the state are rising during the drought,
but the state government has not even mentioned a line about this in the budget
speech," Patil said.
On March 22, TOI had reported that farmers'
suicides in the state had risen by 40% during the last seven months when the
impact of the drought and unseasonal rains compounded the farm crisis.
Leader of opposition in the assembly Radhakrishna
Vikhe Patil also referred to TOI's reports. "The rise in suicides shows
the government is not being sensitive to farmers. This government discussed
suicides in its 'chai per charcha,' but what happened after that?" he
asked.
In the Upper House, leader of opposition
Dhananjay Munde raised the issue. He hails from Marathwada, which was the focus
of TOIs's reports. "The report says the sharpest rise has been in
Marathwada. Will the state announce a special package for Marathwada and
Vidarbha?" he asked.
In its budget, the state government has already
announced Rs 1,000 crore for the Jalyukta Shivar Abhiyan for water conservation
schemes in drought-prone areas. It has announced Rs 171 crore to provide debt
relief from money-lenders. The government has also disbursed relief worth Rs
4000 crore to drought-affected farmers. It has also said another package will
be declared for those impacted by unseasonal rains by the end of the assembly
session.
Khadse told the council that 17,526 farmers in
the state had committed suicide in the last 14 years, of which 8,023 were
eligible for compensation. "As of now, we cannot waive their loans but
this will be discussed in the cabinet meeting," he said.
Study: Agri-corporates, not farmers,
hog loans
The bulk of farm loans do not go to
farmers. As high a share of 44 per cent of ‘agricultural loans’ in Maharashtra
are disbursed from urban and metropolitan branches of scheduled commercial
banks than rural branches, which supply almost 30%.
MUMBAI: At the RBI's 80th anniversary recently,
PM Narendra Modi had invoked farmers' suicides to urge banks to lend more to
cultivators. "When a farmer dies, does it shake the conscience of the
banking sector? He faces death because he has taken loans from a
moneylender," Modi said. Credit to the farm sector has risen across the
country over the last decade. Yet, in Maharashtra, which reports the highest
number of farmers' suicides in the country, the bulk of farm loans, ironically,
does not go to farmers, says a new study based on the central bank's data.
Although the majority of farmers live in rural
areas, a larger portion (44%) of agricultural loans are supplied by urban and
metropolitan branches of scheduled commercial banks than rural branches, which
supply almost 30%.
The study by economists R Ramakumar and Pallavi
Chavan is based on data from the RBI's report, Basic Statistical Returns of
Scheduled Commercial Banks in India, for 2013.
In effect, loans to farmers are not driving the
rise in agricultural credit. Instead, the major beneficiaries in the revival of
farm credit in this decade are agri-businesses and corporates involved in
agriculture, the authors say. This is because the definition of agricultural
credit has been expanded to include these businesses. "The definition now
includes loans to corporate and agri-business institutions as well as storage
equipment in cities. It also includes loans for commercial and export-oriented
agriculture," says Ramakumar, an economist with the Tata Institute of
Social Sciences, Mumbai.
The growth in agricultural credit has also been
fuelled by a rise in indirect loans, the study says. Direct loans are given to
farmers while indirect loans are given to institutions indirectly involved in
agricultural production.
Significantly, the share of credit to small and
marginal farmers has dropped dramatically across the country, the study shows.
Instead, loans of Rs 1 crore and above are driving the revival of agricultural
credit, the study says.
The share of direct agricultural loans worth less
than Rs 25,000 to marginal farmers from scheduled commercial banks has fallen
sharply-from almost 23% in 2005 to just 4.3% in 2013. On the other hand, the share
of direct agricultural loans worth over Rs 1 crore has risen from 7.5% in 2005
to10% in 2013.
"The 1990s were the lost decade in rural
banking. There was large-scale closure of commercial banks in rural
areas," says Ramakumar. Since 2000, there has been a growth of
agricultural credit, but a major part of this growth is illusory, he says.
"It is driven by the expansion of funding to corporate and agri-business
institutions involved in agriculture, high-value loans and credit from urban
and metropolitan branches," he says.
Maharashtra crosses 60,000 farm
suicides
At least ten farmers have killed
themselves every day, on average, for a straight ten years in the rich state of
Maharashtra. Nation-wide the farm suicides total nears the 300,000-mark, as the
data of the National Crime Records Bureau show.
At least 3,146 farmers committed suicide in
Maharashtra in 2013, the latest data of the National Crime Records Bureau
(NCRB) show. That brings the total number of farmers taking their own lives in
the Western Indian state to 60,750 since 1995. Maharashtra’s record finds
no mention in the media. The picture in the state got a lot worse after
2004. On average, 3,685 farmers in the state took their lives every year
between 2004-13.
This means Maharashtra, barely three months away
from assembly elections, is witnessing, on average, over ten farmers’
suicides every single day these past ten years in a row. That’s a lot
worse than its already awful average of seven such deaths a day between
1995-2003. A rise of 42 per cent in fact. (The NCRB began recording farm
data in its annual Accidental Deaths & Suicides in India reports in
1995.)
A total of 2,96,438 farmers have committed suicide in India since 1995.
Meanwhile, Maharashtra’s 3,146
figure reflects a decline of 640 farm suicides as compared to the 2012. In fact
all the Big 5 states in farm suicides have recorded declines in 2013 relative
to the previous year. Andhra Pradesh claims a fall of 558, Chhattisgarh
4, Madhya Pradesh 82 and Karnataka 472.
So
are fewer Indian farmers killing themselves today? The latest ADSI report of
the NCRB would appear to suggest so. The nation-wide figure has fallen to
11,744 farm suicides, down 1,982 from 13,754 in 2012. (http://ncrb.gov.in/adsi2013/table-2.11.pdf ).
A
very welcome decline - until you look at the numbers more closely.
With a total of 7,653, the Big 5 still account for a full two-thirds of all
farmers’ suicides in the country. No changes in the pattern there. And 15 other
states recorded mostly mild increases. Of those, only Haryana records a
significant increase of 98.
This
great ‘fall’ also perpetuates a growing trend of states with otherwise
high farm suicide numbers declaring ‘zero’ or near zero suicides year
after year. Chhattisgarh has done this three years in a row now since 2011: it
has announced 0, 4 and 0 farmer suicides. West Bengal also records zero
in both 2012 and 2013. What if we take a three-year average for these
states before they started their zero-sum games? For Chhattisgarh that average
was 1,567. For West Bengal 951. That’s a total of 2,518. Add that
to the 2013 total and it goes up 14,262. That’s even higher than the 2012
figure (when too, the same fudging was on).
Even
accepting the 11,744 figure for 2013, that brings the national total since 1995
to 2,96,438 farmers’ suicides (NCRB ADSI reports 1995-2013) .
This
is not to say that states cannot or have not seen any decline at all. (Also,
one-off annual rises or falls are quite normal). Just that the nature of
that decline as recorded in the past three years is highly suspect. So Chhattisgarh,
a state that saw \over 14,000 farm- suicides from 2001-10, suddenly has none at
all in the next three years. A model worth emulating? Other states surely think
so. They’re getting in on the fraud, too.
Puducherry,
for long the worst among union territories in farm suicides, has declared a
zero figure in 2011,2012 and 2013. In 2010, it claimed a modest four. But in
2009, its figure was 154 farm suicides.
“Clearly,
the massaging of the data continues”, says Prof. K. Nagaraj. an economist at
the Asian College of Journalism, Chennai. Prof. Nagaraj’s 2008 study on
farm suicides in India remains the most important one on the subject.. “When
you want to play down very bad numbers in one column, you can’t just
erase them. You have to fit them into some other, catch-all category.
Shoving unwanted numbers into “Others” is the common route to data
massaging.”
And
that’s exactly the trend in the data the states have been submitting to the
NCRB. This year, too.
Here’s
another thing that gives away the heavy massaging the data have been subject to
at the state level.
On
the same page as the NCRB table which records the “Self-employed (farming /
agriculture)” is another column: “Self-employed (Others).” (http://ncrb.gov.in/adsi2013/table-2.11.pdf ).
As Chhattisgarh’s farm suicides
numbers have dwindled to zero, its numbers of suicides in this “Self-employed
(Others)” column has swollen. In the years when Chhattisgarh
wasn’t blanking out farm suicides numbers (e.g. 2008 and 2009), its
figures in this “Others” column were, 826 and 851. In the last two years, when
it reports zero farm suicides, these numbers soar to 1826 and 2077.
Maharashtra, which claims a decline of 640 in farm suicides, records a rise of
over 1,000 suicides under “Self-employed (Others).”Madhya Pradesh records a
decline of 82 in farm suicide numbers, but a rise of 236 in this “Others”
category.
Puducherry shows a similar trend.
West Bengal solved that problem by simply not filing any data at all in 2012.
So clearly, even if you can’t shove the numbers under the carpet, you can
dump some of them in “Others.”
Those prematurely celebrating a
decline miss another point. There were 7.7 million fewer farmers in 2011 than
there were in 2011, as the Census data show us. Millions were and are
either quitting the profession or losing full farmer status. In that period,
the country, on average, saw 2,000 fewer farmers each day. So there were surely
even fewer farmers in 2013. What do get if we view the suicide numbers against
this shrinking farmer base?
As
Prof. Nagaraj and researchers at the M.S. Swaminathan Research Foundation
(MSSRF) calculated last year from NCRB and Census data across a decade: “the
adjusted farmers’ suicide rate for 2011 is in fact slightly higher than it was
in 2001.” (http://psainath.org/farmers-suicide-rates-soar-above-the-rest/) And that’s after heavy data fudging at the State
level.
As
their calculations showed: Suicide rates among Indian farmers were a chilling
47 per cent higher than they were for the rest of the population in 2011. In
some of the States worst hit by the agrarian crisis, they were well over 100
per cent higher. In Maharashtra, farmers were killing themselves at a rate that
was 162 per cent higher than that for any other Indians excluding farmers. A a
farmer in this State is two-and-a-half times more likely to commit suicide than
anyone else in the country, other than farmers.
Are
the suicides occurring because of drought and crop failure?
Farmers
have been killing themselves in years when the crop has been
excellent. And in seasons when it has failed. They have taken their own
lives in large numbers in very different years. When it rains they lose
out, when it doesn’t, they lose out worse. There have been awful suicide
numbers in some good monsoon years. And so too, in years of drought,
which can make things more terrible.
The
suicides occurred overwhelmingly amongst cash crop farmers. Growers of cotton,
sugar cane, groundnut, vanilla, coffee, pepper and others. Far fewer suicides
occur amongst growers of paddy or wheat. Can we argue that drought kills cash
crop farmers but not those cultivating food crops?
The
monsoon does have a very real impact on agriculture. But it is by no means the
main reason for the farm suicides. And with the bulk of those suicides
occurring amongst cash crop farmers, the issues of debt,
hyper-commercialization, exploding input costs, water-use patterns, and severe
price shocks and price volatility, come much more to the fore. All factors
majorly driven by state policies.
Against
the background of these factors, you can be sure that if a drought really
unfolds this year, they’re in very big trouble. And we will know very shortly.
July is the main month of the monsoon. It normally accounts for over 50
per cent of the rains, thus equalling the importance of the other three months
of June, August and September combined. Given the situation that seems to
be building, I’d go slow on the celebrations.
State government's logic for its low
farmer suicide count: Only 3 blamed rains
The Maharashtra government defends
its “only-three-farmers” claim this way: only three of them wrote suicide notes
blaming unseasonal rains.
MUMBAI:The Maharashtra government has a curious
explanation for its bizarrely low count of 3 farmers' suicides on account of
the unseasonal rains and hailstorms which have destroyed large swathes of
crops.
While the state admits 601 farmers have killed
themselves between January and March, apparently only three of them wrote
suicide notes mentioning the rains and hailstorms as the reason.
"Only three farmers wrote suicide notes
specifically saying they were killing themselves because of the rains and
hailstorms. So when the Centre asked us for data on hailstorm-related suicides,
we were only sure about this number," state agriculture minister Eknath
Khadse said.
Mr Khadse admitted that the TOI's recent report
on 601 farmers' suicides between January and March was accurate. 'These are the
state government's figures. But we cannot say for sure if the rest of the
cases were directly linked to unseasonal rains and hailstorms," Mr Khadse said.
cases were directly linked to unseasonal rains and hailstorms," Mr Khadse said.
Union Minister Radhamohan Singh mentioned the
figure of 3 farmers suicides on account of the hailstorms in parliament on
Monday, triggering protests from the Opposition.
Now the state government's explanation has
triggered fresh outrage. "How many farmers will write suicide notes to
begin with, let alone giving the hailstorms as a reason?" asked Kishor
Tiwari from the Vidarbha Janandolan Samiti. "The unseasonal rain has led
to massive crop losses. When a farmer who has lost crops kills himself, it
should be understood that the rains and hailstorms are the reason," he
said.
The state government's data shows a rising number
of farmer's suicides after the drought began last year. The recent spells of
unseasonal rains have led to more distress. Of the 601 farmers suicides
recorded by the state between January and March, only 241 have been found to be
eligible for government compensation, the state's figures show. The state
declared 114 cases ineligible. So far 193 cases have been compensated, the
state's data shows.
‘Progressive’ farmer shows the way
to success in parched Bundelkhand
In the parched, brown landscape of
Uttar Pradesh’s Bundelkhand region, where hundreds of distressed farmers have
taken their lives in the past few decades or have been forced to migrate, Prem
Singh’s farm is an exception.
In the fabulous green farm, there is
plenty for everyone: abundance of water-bodies for animals to drink from, many
fruit-bearing trees, a steady produce of organic products, healthy cattle,
well-nourished soil and natural fertilizers and, importantly, a steady flow of
income. The 32 bighas of land that Mr. Singh shares with his three brothers
also boasts of a one-of-a-kind rural museum, the Humane Agrarian Centre. A
farmer-activist based in Banda’s Badokhar Khurd village, Mr. Singh believes
that his experiment with “sustainable and traditional farming” could be
replicated at a larger level, and could pave the way for a policy change.
“The idea is to ensure the prosperity
of the farmer’s family, ecological balance and food security of the country.”
He calls his pioneering method of
sustainable farming ‘Aavartansheel Kheti.’ Loosely translated, as per a book he
co-authored with Belgium environmentalist Johan D’hulster, it means ‘periodic
proportionate farming.’
Key elements of this approach are crop
rotation, organic farming, animal husbandry, food processing, planting and
research for improving soil fertility and seed development. The essence is to
minimise the farmers’ reliance on the market while improving their standard of
living.
The farmer would have to utilise his
farm by dividing it into three parts: one-third would be used for rearing
fruits and crops, the other for growing timber and the remaining portion for
animal husbandry. Mr. Singh’s multi-pronged technique, pioneered and
implemented by him for over a decade, is similar to the idea of farming Prime
Minister Narendra Modi has been propagating in his addresses to farmers.
The farmer, known in the area as
“pragatisheel” or progressive, advises farmers to not directly trade their
produce in the market but to sell the processed extracts. For instance, sell
paneer but not milk, and so on. “That will link the farm to the kitchen. And
also give the customers a better quality and nutritious product,” said Mr.
Singh. Some of the popular products at his farm are amla pickle and candy, cow
ghee, mustard oil, organic rice and flour (wheat, gram, and barley). Asked
whether it was practical for small farmers, Mr. Singh said, “yes,” with certain
adaptations and adjustments.
Born in 1964 into a farming
background, Mr. Singh studied philosophy in Allahabad University but soon
turned to his ancestral vocation. In 1995, he adopted a traditional method of
farming, triggered by his dismay at the “negative impact” of the Green
Revolution.
He says the Green Revolution and other
policies played a big role in dismantling the traditional structure of farming
and pushed the farmer to the mercy of unsustainable methods, which also harmed
environment. Mr. Singh links it to the present crisis, where three consecutive
droughts, with bouts of unseasonal rains and hailstorm, have devastated the
morale of the Bundelkhand farmer.
“The outside knowhow of some experts
was forced upon farmers. Till 1980, not a single bag of urea was purchased in
Bundelkhand. But due to the government’s policies, farmers were forced to abort
traditional and more sustainable methods, eventually leading them into
debt-traps,” Mr. Singh said. “Every time a farmer commits suicide, the
government says he was burdened by debt. What is the key reason for the debt?
The farmers are dying because they follow the schemes of the government. This
is the real injustice.”
Droughts are not new to Bundelkhand.
As per records, in the last century it witnessed 17 major droughts, 10 of them
caused by deficient rainfall. But the traditional water-recharging methods,
numerous ponds, and natural harvesting techniques of people then mitigated the
scarcity. The steps taken by the government in the last three decades have
nullified the work of the ancestors, Mr. Singh said.
“The crops grown then did not require
much water. With the Green Revolution, underground water began to be extracted
heavily to sustain the thirst of the seeds. The local seeds were tested and
adapted to fight drought. But the seeds introduced by the government needed
excess water and urea to grow. Tractors further increased the costs,” Mr. Singh
said.
At the centre of it all, said Mr.
Singh, was the ruling class’ apathy towards farmers, manifested in their lack
of representation in policy formation. The farming sector was bearing the brunt
of their mistakes and excesses of the industrial and service sectors.
Parched earth, broken promises
May 2, 2016 The Hindu
Photo shows the people of Ukhanda
village in Beed district waiting for a water tanker. Photo: Vivek Bendre, THE
HINDU
Ground reports from Marathwada give the lie to the
government’s claims that it is doing everything it can to address the drought
situation
How
would Janabai Korde or Prabhakar Bhumre have responded to the government’s
claims made in the Rajya Sabha that the Centre was doing everything it could to
address the grave drought situation in 257 districts across India? The two are
residents of Beed and Jalna in Marathwada, the region comprising the eight
districts worst hit by a three-year drought, and which has now reached epic
proportions.
Janabai
Korde is the sarpanch of a village in Beed. Our team met her when, as part of
the Kisan Sabha campaign in the Marathwada region, we were interacting with
workers at Mahatma Gandhi National Rural Employment Guarantee Act (MGNREGA)
worksites. With agricultural work at a standstill, the only lifeline here is
MGNREGA. The Central government had declared that the provision of work under
MGNREGA would be extended from 100 to 150 days in all drought-affected areas.
But this has not happened. In 2015-2016, according to the Ministry website, in
five of the districts — Aurangabad, Jalna, Nanded, Osmanabad and Hingoli — the
average days of work in each of the districts was just 47 days or lower. In
Latur it was 72 days, and in Beed, 81.
MGNREGA
and a fund trickle
Even though lakhs of landless agricultural workers, cane cutters and marginal farmers are desperately looking for work, the number of individuals who actually got work under MGNREGA last year was just 70,000 people or fewer in each district. The only exception was in Beed, where 1.19 lakh individual workers got work. This month, when demand is at its peak, the average figure in each district is just 4,000. Officials tell you, off the record, that the main reason is the Central government’s refusal to release adequate funds. For the State as a whole, the funds from the Centre in 2015-2016 have been less, by Rs.212 crore, than what was spent in the pre-drought year of 2012-2013.
Even though lakhs of landless agricultural workers, cane cutters and marginal farmers are desperately looking for work, the number of individuals who actually got work under MGNREGA last year was just 70,000 people or fewer in each district. The only exception was in Beed, where 1.19 lakh individual workers got work. This month, when demand is at its peak, the average figure in each district is just 4,000. Officials tell you, off the record, that the main reason is the Central government’s refusal to release adequate funds. For the State as a whole, the funds from the Centre in 2015-2016 have been less, by Rs.212 crore, than what was spent in the pre-drought year of 2012-2013.
What
is equally appalling is that even those who got work did not get wages. Beed
district, with a comparatively better record of providing work, was the worst
in terms of the disbursal of wages. Last year, the government owed workers
Rs.5.58 crore in terms of wages in this district. At a worksite where we met
Ms. Korde in her village of Takarwan, 150 workers had not been paid even a
paisa since the project began a month-and-a-half ago. In the searing heat, with
scarce drinking water, the women are expected to dig and carry 5,000 kg of mud
in a single workday of eight hours. Can there be a more inhuman work norm than
this? It is an impossible task. Officials admit that because of the drought,
the soil has become hard and stony. But the schedule of rates — that is the
work norms which determine the piece-rated wages — has not been changed. As a
result, workers will get around 30 per cent less than the minimum wage, unless
they extend the workday to 11 or 12 hours. Ms. Korde has been fighting on
behalf of the workers. She has also raised the crucial issue of food security.
Emergency measures to provide food grains through the Public Distribution
System are urgently required, she says, but who is listening?
Landless
and agricultural workers, the vast majority of whom are Dalit, are obviously
the worst hit but the plight of farmers is no better.
Farmers
in distress
Prabhakar Bhumre is a farmer from Jalna district. Like many others here, he was a fruit grower with 400 orange trees. He had taken a loan of Rs.2 lakh over two years. But in spite of the large amounts he paid to private companies for water to be supplied, he could not save his trees from drying up. Ultimately, he had to cut them down. His is not an isolated case. In the district, orange trees which were planted over 9,000 hectares — which is more than a third of the land where these trees have been planted — have had to be cut down. But there is little government help. Nor have the majority of fruit growers in the region received any compensation. On the contrary, banks are sending notices to farmers like Mr. Bhumre across Marathwada demanding repayment. The despair is palpable and 325 farmers have committed suicide in this region since January this year.
We
had met Mr. Bhumre at a cattle sale in Pachod in Aurangabad district where he
had sold two pairs of bullocks. Sitting in a group of distraught farmers, he
was dejected and close to tears. He had sold the animals, bought for Rs.1 lakh
a year or so ago, for just Rs.20,000. Another farmer, Salar Khan, had a
similiar story. He had sold a pair of bullocks for half the price he had paid
for them. In debt, for Rs.90,000, his daughters have had to drop out of school.
After the ban on cow slaughter imposed by the Bharatiya Janata Party-led
government, the price of these animals has plummeted throughout the State. In
the Marathwada region, the situation is further accentuated by the high cost of
maintenance. There were around 3,000 heads of cattle brought for sale to this
fair — a distress sale is a last-ditch survival strategy. They had no
alternative.
Short
changed
The cattle shelters set up under a government scheme could have provided some relief. But the government outsourced them to a variety of registered cooperatives. In Beed district, where the late BJP leader Gopinath Munde’s two daughters fought and won the election, there are 137 such cow shelters, the highest in the region. One of the bigger shelters, in Kej, with 1,400 animals, is run by the Jai Bajrang Bali society which has not received funds since it started in March. According to the supervisor, the running cost is close to Rs.1 lakh a day.
How
do they manage, we asked. Through more loans, he said. However, others said
that many of these registered societies do not give out the actual amount of
fodder that a farmer is entitled to. The government subsidy to be provided in
kind, and fodder and water for the animals is set at the rate of Rs.70 for a
large animal and Rs.31 for a small one. But, in a bizarre policy decision, the
government cuts Rs.8 of the subsidy per animal against the price for the manure
that the owner is presumed to get, from the sale of the manure. This has
infuriated cattle owners. One asked, “Did a government officer measure the
manure of my cow before he cut eight rupees?”
In
most districts, the scheme for cattle shelters has not taken off. Clearly, it
is the government that should run these shelters in greater numbers for a
specified period and the Central government needs to provide assistance for
this. No assurances were made in the parliamentary debate.
Water
politics
While the flagging off of a water train to Latur has had a blaze of publicity, the reality is that the 3,000 tankers provided in the region are woefully inadequate. There is no regulation of the price of water being charged by private companies. It is Rs.1,000 for a 3,000-litre tanker, double the amount it costs in Delhi. It is an open secret that many of these private water companies have close contacts with different political leaders of the area, which is the reason why no one dares touch them.
The
priorities of the BJP-led State government lie elsewhere. On April 26, the
Aurangabad bench of the Bombay High Court heard a petition asking for a reduction of water
supply to breweries and distilleries.
Aurangabad is an important centre for beer production and these units require
more than five million litres of water a day. When the matter was raised in the
Assembly, the Minister for Rural Development in the State, Pankaja Munde, refused
the demand for cuts to these units. She was later accused of putting the
interests of the company, of which she is a director and which runs a
distillery, before those of the people. The court though directed the
government to give priority to ensuring drinking water to the region.
The
absence of any sense of urgency by government agencies is glaring. During the
Lok Sabha and later the Assembly elections, Prime Minister Narendra Modi made a
slew of promises to farmers and residents of Marathwada — from writing off
loans, to ensuring crop compensation, to guaranteeing the supply of water and
24-hour supply of electricity. His party won six of the eight Lok Sabha seats
and increased its tally of Assembly seats from two to 15 (out of 46) in a
region known to be a Congress-Nationalist Congress Party base. But today, every
one of those promises remains unfulfilled. Mr. Modi should spare a few days
from his busy schedule of foreign tours to visit and study the situation here.
That would help him understand why Janabai and Bhumre may consider his
government’s claims, at least as far as short-term measures are concerned, to
be a straight lie.
Brinda
Karat is a member of the CPI(M) Polit Bureau and a former Rajya Sabha MP.
New water purification system could help slake the
world’s thirst
Cheap aluminum foil dramatically
boosts the ability of sunlight to desalinate water.
Lin Zhou et al, Nature
Photonics
More
than 1 billion people around the world lack access to fresh water, and the
problem is growing: By 2025 a whopping two-thirds of the world’s population may
face water shortages. To slake that thirst, some wealthy communities have
invested in water desalination plants that turn salt water into clean drinking
water. But these plants are too expensive for most communities to afford. Now,
researchers have come up with a solar-powered technique that could make
small-scale desalination systems affordable, even for individual households.
The
approach is a new take on an old technology known as a solar still. These
stills—large containers covered by clear plastic tarps or glass
enclosures—direct sunlight onto a basin of salty water. Water evaporates,
leaving salts behind, and then condenses on the plastic or glass, where it is
captured. The trouble is throughput. The sun evaporates water so slowly that
very little fresh water is produced—too little for most people to even bother.
To
fix the throughput problem, researchers have tried topping the salt water with
floating films dotted with nano-sized metal particles, typically made from
gold. Gold is a good absorber of sunlight, and the nanoparticles funnel the
sun’s energy into tiny hotspots that then efficiently evaporate water. But
gold, and other noble metals that work just as well, are expensive.
Now,
researchers led by electrical engineer Jia Zhu at Nanjing University
in China have fashioned a solar absorber to work with aluminum, one of the most
abundant and cheapest metals on the planet. Normally, aluminum is good at
absorbing only ultraviolet light, a small sliver of the solar spectrum. But
Zhu’s team broadened this absorption in two steps. First, they perforated the
foil with a regular array of holes, each 300 nanometers across. The array
prevents light from reflecting off the surface and scatters it through the
film, increasing the odds it will be absorbed. The researchers also misted the
aluminum oxide foil with an extra dose of vaporized aluminum. The additional
aluminum formed a thin layer on top. But in the pores, the aluminum atoms
bunched up into tiny “islands” that increased the foil’s odds of absorbing
sunlight.
The
aluminum islands worked like gold particles, creating energy-funneling hotspots
that boosted water evaporation at those sites. The approach worked so well that
the researchers were able to purify salt water up to three times faster than without the foil, they report this week in Nature
Photonics. Just one square meter of foil generated 2 to 8 liters of water
per hour, depending on the amount of light hitting the still. Tests showed that
the purified water contained only trace amounts of salt—orders of magnitude
less than the World Health Organization and the U.S. Environmental Protection
Agency deem safe for drinking water.
The
new setup isn’t likely to replace industrial filtration techniques any time
soon. Those are already efficient on a large scale, generating up to 65 liters
of water per hour for every square meter of membrane, says Benny Freeman, a
chemical engineer and water desalination expert at the University of Texas at
Austin. However, desalination plants currently require massive inputs of
energy, usually from fossil fuels. That makes them unaffordable for many
developing countries and households. So the new technique could offer a way for
individuals to purify water for their own needs on the cheap. “There certainly
is a lot of need for that,” Freeman says. “If you can provide clean water even
at a small scale, it could be a game changer.”
That
said, Freeman adds that the new approach to desalination still has a ways to go
before proving itself in the real world. In their current experiment, the setup
worked for 25 cycles of 1 hour each with little drop in performance. But to be
useful in the real world, it will have to last for months or years. Researchers
will also have to find ways to dispose of the extra salty brine that the
evaporating water leaves. But with so many people in desperate need of fresh
water, a new cheap source of purification is bright prospect.
Reply
·
Co-operative
farming
From the
Archives — dated May 2, 1966 May 2, 2016 The Hindu
Mr. C.
Subramaniam, Food Minister, to-day [May 1, New Delhi] strongly defended
co-operative farming and said that it could “be an element in the strategy of
modernisation” of Indian agriculture. Inaugurating the Food and Agriculture
Organisation’s seminar on co-operative farming for Asia and the Far East, the
Food Minister said that co-operative farming recognised and protected the
ownership rights of land-contributing members. He referred to fears expressed
in some quarters that co-operative farming was a threat to peasant farming, or
individual cultivation and said, “I would like to make it unmistakably clear
that we lay the greatest emphasis on the principle that co-operative farming is
a voluntary movement. There is, therefore, no question of compelling any
cultivator to join a co-operative farming society.” Quoting Mr. Nehru, Mr.
Subramaniam said the rationale of our co-operative farming was that “through
co-operatives alone can the individual keep his individuality intact, his
freedom intact and yet function in a big way and take advantage of science and
technology.
Mr.
Subramaniam said that the deliberations of the 15-day seminar, in which
delegates from eight countries take part could be an extremely useful medium in
pooling experience so that “if I have stumbled, others need not.” He said in
the pioneering effort of co-operative farming India had tried to benefit from
the experience of a number of countries which had tried co-operative farming as
a tool for refashioning agriculture. Briefly touching upon various measures
taken by India to step up agricultural production, the Food Minister said that
no real break-through in economic development was possible without a sound
agricultural base, for which an average linear rate of growth of at least 5 to
6 per cent a year seemed to be essential. In India, during 1949-50 to 1964-65
agricultural production had shown an average linear rate of growth of only 3.92
per cent a year with the average for the period 1949-50 to 1951-52 as the base.
Farmers reap a bountiful supply of tank-bed soil
Bidar, May 2, 2016
Farmers in some villages in Bidar have
a reason to smile in these days of gloom. They are getting a bountiful supply
of tank-bed soil as the government has taken up tank cleaning and dredging
work.
The district administration and the
zilla panchayat are working over time to complete the work to clean and dredge
around 650 waterbodies, including tanks and lakes, wells and temple kalyanis.
Work on half of these waterbodies has started and the others have been cleaned.
Officers say that around 4 lakh cubic
metres of soil have been removed from the tank-beds.
“Dredging will continue till the
monsoon starts by the second week of June. The amount of soil removed till then
will be twice this amount,” a senior officer said. “We allowed farmers to take
this soil for free to their fields to be used as top soil. They are happy about
it,” Anurag Tewari, Deputy Commissioner, said.
Hundreds of farmers have taken away
soil from the work sites and carried it to nearby fields.
Flower growers with small land
holdings have taken soil in carry bags and baskets in Sultanpur village. It
shows how much they value this soil, he said. “In a sense, the drought has given
us an opportunity to clean the waterbodies. This will benefit the district in
the long run when more water can be impounded, and by providing rich soil to
farmers reducing the need for nutritional inputs,” he said. “The soil deposited
on tank-beds helps farming as it is rich in nutrients,” says soil scientist
from the College of Horticulture Praveen Kumar Naikodi.
The first 25 centimetres of soil so
extracted is the richest part of the soil profile. It is washed away after rain
and gets collected on the tank bed. Impounding water for decades makes the soil
rich in nutrients as it has decaying organic matter such as dead fish and
aquatic plants.
“As many as three of the five taluks
in Bidar have red laterite soil, which is less fertile compared with tank-bed
soil, and covering red soil fields with it will help farmers considerably. It
will also help improve the water holding capacity of the waterbodies,” he said.
The district administration is working
through the Nirmiti Kendra, and the district urban development cell.
Bidar-based non-governmental organisation, Team Yuva, is monitoring the work.
NGOs, including Reliance Foundation,
and the corporate social responsibility arm of the construction company, Larsen
and Toubro, are also excavating and cleaning some waterbodies in some villages.
The government has taken up tank cleaning and dredging works in Bidar
Farming
for a Small Planet: Agroecology Now
Frances
Moore Lappé
April
2016
The
primary obstacle to sustainable food security is an economic model and thought
system, embodied in industrial agriculture, that views life in disassociated
parts, obscuring the destructive impact this approach has on humans, natural
resources, and the environment. Industrial agriculture is characterized by
waste, pollution, and inefficiency, and is a significant contributor to climate
change. Within so-called free market economics, enterprise is driven by the
central goal of bringing the highest return to existing wealth. This logic
leads inexorably to the concentration of wealth and power, making hunger and
ecosystem disruption inevitable. The industrial system does not and cannot meet
our food needs. An alternative, relational approach—agroecology—is emerging and
has already shown promising success on the ground. By dispersing power and
building on farmers’ own knowledge, it offers a viable path to healthy,
accessible food; environmental protection; and enhanced human dignity.
People
yearn for alternatives to industrial agriculture, but they are worried. They
see large-scale operations relying on corporate-supplied chemical inputs as the
only high-productivity farming model. Another approach might be kinder to the
environment and less risky for consumers, but, they assume, it would not be up
to the task of providing all the food needed by our still-growing global
population.
Contrary
to such assumptions, there is ample evidence that an alternative
approach—organic agriculture, or more broadly “agroecology”—is actually the only
way to ensure that all people have access to sufficient, healthful food.
Inefficiency and ecological destruction are built into the industrial model.
But, beyond that, our ability to meet the world’s needs is only partially
determined by what quantities are produced in fields, pastures, and waterways.
Wider societal rules and norms ultimately shape whether any given quantity of
food produced is actually used to meet humanity’s needs. In many ways, how we
grow food determines who can eat and who cannot—no matter how much we produce.
Solving our multiple food crises thus requires a systems approach in which
citizens around the world remake our understanding and practice of democracy.
Today,
the world produces—mostly from low-input, smallholder farms—more than enough
food: 2,900 calories, amounting to three to four pounds of food, per person per
day. Per capita food availability has continued to expand despite ongoing
population growth. This ample supply of food, moreover, comprises only what is
left over after about half of all grain is either fed to livestock or used for
industrial purposes, such as agrofuels.
Despite
this abundance, 800 million people worldwide suffer from long-term caloric
deficiencies. One in four children under five is deemed stunted—a condition,
often bringing lifelong health challenges, that results from poor nutrition and
an inability to absorb nutrients. Two billion people are deficient in at least
one nutrient essential for health, with iron deficiency alone implicated in one
in five maternal deaths.
The
total supply of food alone actually says little about whether the
world’s people are able to meet their nutritional needs. We need to ask why the
industrial model leaves so many behind, and then determine what questions we should
be asking to lead us toward solutions to the global food crisis.
The
industrial model of agriculture—defined here by its capital intensity and
dependence on purchased inputs of seeds, fertilizer, and pesticides—creates
multiple unappreciated sources of inefficiency. Economic forces are a major
contributor here: the industrial model operates within what are commonly called
“free market economies,” in which enterprise is driven by one central goal,
namely, securing the highest immediate return to existing wealth. This leads
inevitably to a greater concentration of wealth and, in turn, to greater
concentration of the capacity to control market demand within the food system.
The result? Demand by the better-off minority shifts production toward
grain-fed animal foods, greatly diminishing the overall food supply because of
the poor conversion rate of feed to food. The most extreme example is the
feeding of grain to cattle. Of the calories in the feed that cattle consume,
humans receive just 3 percent through beef. US agriculture, in large part
because of its livestock focus, actually feeds fewer people per acre than that
of India or China.
This
imbalance is exacerbated by other systemic inefficiencies within the industrial
model. Of the synthetic nitrogen fertilizer added to the soil globally, at
least half is never taken up by plants, but is instead washed or blown away.
Moreover, economically and geographically concentrated production, requiring lengthy
supply chains and involving the corporate culling of cosmetically blemished
foods, leads to massive outright waste: more than 40 percent of food grown for
human consumption in the United States never makes it into the mouths of its
population.
The underlying reason industrial
agriculture cannot meet humanity’s food needs is that its system logic is one
of disassociated parts, not interacting elements. It is thus unable to register
its own self-destructive impacts on nature’s regenerative processes. Industrial
agriculture, therefore, is a dead end.
Consider
the current use of water in agriculture. About 40 percent of the world’s food
depends on irrigation, which draws largely from stores of underground water,
called aquifers, which make up 30 percent of the world’s freshwater.
Unfortunately, groundwater is being rapidly depleted worldwide. In the United
States, the Ogallala Aquifer—one of the world’s largest underground bodies of
water—spans eight states in the High Plains and supplies almost one third of
the groundwater used for irrigation in the entire country. Scientists warn that
within the next thirty years, over one-third of the southern High Plains region
will be unable to support irrigation. If today’s trends continue, about 70
percent of the Ogallala groundwater in the state of Kansas could be depleted by
the year 2060.
Large
amounts of groundwater and river flows are also drawn into highly inefficient
livestock production. More than half of the water use in the Colorado River
basin, spanning six states, is devoted to feeding cattle and horses. In
drought-stricken California, nearly a fifth of irrigation water goes to one
feed crop: alfalfa. Every year, 100 billion gallons of California water in the
form of alfalfa go to China for meat production.
Beyond
water waste and rapid depletion of groundwater—which recharges slowly and thus,
in practical terms, is nonrenewable—nutrient application via synthetic
fertilizer in the industrial model is not only inefficient, but also highly
destructive. Nitrogen runoff ends up in waterways, where it is destroying
marine life, creating over 400 aquatic “dead zones” worldwide. Some scientists
are now warning that we have disrupted the nitrogen cycle even more radically
than the carbon cycle.7
Industrial
agriculture also depends on massive phosphorus fertilizer application—another
dead end on the horizon. Almost 75 percent of the world’s reserve of phosphate
rock, mined to supply industrial agriculture, is in a politically unstable area
of northern Africa centered in Morocco and Western Sahara. Since the
mid-twentieth century, humanity has extracted this “fossil” resource, processed
it using climate-harming fossil fuels, spread four times more of it on the soil
than occurs naturally, and then failed to recycle the excess. As with nitrogen,
much of this phosphate escapes from farm fields, ending up in ocean sediment
where it remains unavailable to humans. Within this century, the industrial
trajectory will lead to “peak phosphorus”—the point at which extraction costs
are so high, and prices out of reach for so many farmers, that global
phosphorus production begins to decline.
Beyond
depletion of specific nutrients, the loss of soil itself is another looming
crisis for agriculture. Worldwide, soil is eroding at a rate ten to forty times
faster than it is being formed. To put this in visual terms, each year, enough
soil is washed and blown from fields globally to fill roughly four pickup
trucks for every human being on earth.
The industrial model of farming is
not a viable path to meeting humanity’s food needs for yet another reason: it
contributes nearly 20 percent of all anthropogenic greenhouse gas emissions, even
more than the transportation sector. The most significant emissions from
agriculture are carbon dioxide, methane, and nitrous oxide. Carbon dioxide is
released in deforestation and subsequent burning, mostly in order to grow feed,
as well as from decaying plants. Methane is released by ruminant livestock,
mainly via their flatulence and belching, as well as by manure and in rice
paddy cultivation. Nitrous oxide is released largely by manure and manufactured
fertilizers. Although carbon dioxide receives most of the attention, methane
and nitrous oxide are also serious. Over a hundred-year period, methane is,
molecule for molecule, 34 times more potent as a heat-trapping gas, and nitrous
oxide about 300 times, than carbon dioxide.
Our
food system also increasingly involves transportation, processing, packaging,
refrigeration, storage, wholesale and retail operations, and waste
management—all of which emit greenhouses gases. Accounting for these impacts,
the total food system’s contribution to global greenhouse gas emissions, from
land to landfill, could be as high as 29 percent. Most startlingly, emissions
from food and agriculture are growing so fast that, if they continue to
increase at the current rate, they alone could use up the safe budget for all greenhouse
gas emissions by 2050.
Livestock
production is the primary contributor to climate change from the food system.
It is not possible to pin down precisely how much of agriculture’s contribution
to the climate crisis stems from industrial versus traditional farming;
however, because livestock lie at the heart of the industrial model, and the
manufacture and distribution of synthetic inputs require fossil fuels, it is
clear that industrial agriculture dominates the sector’s contribution to
climate change. Driven by the narrowly focused pressure to bring the highest
return to ever-larger farm operations, corporate suppliers, and food
processors, the industrial system disrupts nature’s regenerative capacities,
leading to the rapid depletion and destabilization of the complex systems that
we need in order to grow food.
These dire drawbacks are mere
symptoms. They flow from the internal logic of the model itself. The reason
that industrial agriculture cannot meet the world’s needs is that the
structural forces driving it are misaligned with nature, including human
nature.
Social
history offers clear evidence that concentrated power tends to elicit the worst
in human behavior. Whether for bullies in the playground, autocrats in
government, or human subjects in psychological studies such as the famous
Stanford Prison Experiment, concentrated power is associated with callousness
and even brutality not in a few of us, but in most of us. The system
logic of industrial agriculture, which concentrates social power, is thus
itself a huge risk for human well-being. At every stage, the big become bigger,
and farmers become ever-more dependent on ever-fewer suppliers, losing power
and the ability to direct their own lives.
The
seed market, for example, has moved from a competitive arena of small,
family-owned firms to an oligopoly in which just three companies—Monsanto,
DuPont, and Syngenta—control over half of the global proprietary seed market.
Worldwide, from 1996 to 2008, a handful of corporations absorbed more than two
hundred smaller independent companies, driving the price of seeds and other
inputs higher to the point where their costs for poor farmers in southern India
now make up almost half of production costs. And the cost in real terms per
acre for users of bio-engineered crops dominated by one corporation, Monsanto,
tripled between 1996 and 2013.
Not
only does the industrial model direct resources into inefficient and
destructive uses, but it also feeds the very root of hunger itself: the
concentration of social power. This results in the sad irony that small-scale
farmers—those with fewer than five acres—control 84 percent of the world’s farms
and produce most of the food by value, yet control just 12 percent of the
farmland and make up the majority of the world’s hungry.
With
its assumption of disassociated parts, the industrial model also fails to
address the relationship between food production and human nutrition. Driven to
seek the highest possible immediate financial returns, farmers and agricultural
companies are increasingly moving toward monocultures of low-nutrition crops
such as corn—the dominant US crop—that are often processed into empty-calorie
“food products.” As a result, from 1990 to 2010, growth in unhealthy eating
patterns outpaced dietary improvements in most parts of the world, including
the poorer regions. Most of the key causes of non-communicable diseases are now
diet-related, and by 2020, such diseases are predicted to account for nearly 75
percent of all deaths worldwide.
What model of farming can end nutritional
deprivation while restoring and conserving food-growing resources for our
progeny? The answer lies in the emergent model of agroecology, often called
“organic” or ecological agriculture. Hearing these terms, many people imagine
simply a set of farming practices that forgo purchased inputs, relying instead
on beneficial biological interactions among plants, microbes, and other
organisms. However, agroecology is much more than that. The term as it is used
here suggests a model of farming based on the assumption that within any
dimension of life, the organization of relationships within the whole system
determines the outcomes. The model reflects a shift from a disassociated to a
relational way of thinking arising across many fields within both the physical
and social sciences. This approach to farming is coming to life in the
ever-growing numbers of farmers and agricultural scientists worldwide who
reject the narrow productivist view embodied in the industrial model as they
create highly effective relational approaches.
Recent
studies have dispelled the fear that an ecological alternative to the
industrial model would fail to produce the volume of food for which the
industrial model is prized. In 2006, a seminal study in the Global South
compared yields in 198 projects in 55 countries and found that ecologically
attuned farming increased crop yields by an average of almost 80 percent. A
2007 University of Michigan global study concluded that organic farming could
support the current human population, and expected increases without expanding
farmed land. Then, in 2009, came a striking endorsement of ecological farming
by fifty-nine governments and agencies, including the World Bank, in a report
painstakingly prepared over four years by four hundred scientists urging
support for “biological substitutes for industrial chemicals or fossil fuels.”
Such findings should ease concerns that ecologically aligned farming cannot
produce sufficient food, especially given its potential productivity in the
Global South, where such farming practices are most common.
Ecological agriculture, unlike the
industrial model, does not inherently concentrate power. Instead, as an
evolving practice of growing food within communities, it disperses and creates
power, and can enhance the dignity, knowledge, and the capacities of all
involved. Agroecology can thereby address the powerlessness that lies at the
root of hunger.
Applying
such a systems approach to farming unites ecological science with time-tested
traditional wisdom rooted in farmers’ ongoing experiences. Agroecology also
includes a social and politically engaged movement of farmers, growing from and
rooted in distinct cultures worldwide. As such, it cannot be reduced to a
specific formula, but rather represents a range of integrated practices,
adapted and developed in response to each farm’s specific ecological niche. It
weaves together traditional knowledge and ongoing scientific breakthroughs
based on the integrative science of ecology. By progressively eliminating all
or most chemical fertilizers and pesticides, agroecological farmers free
themselves—and, therefore, all of us—from reliance on climate-disrupting,
finite fossil fuels, as well as from other purchased inputs that pose
environmental and health hazards.
Organic
farming, commonly understood as farming with no synthetic pesticides and
fertilizers, is a key dimension of agroecology. Globally, organically farmed
land more than doubled in the decade before 2011, and in India, it grew almost
eightfold. Two million farmers—most of whom are small farmers in the Global
South—are now certified organic, while many more use organic practices.
Worldwide, officially recognized organic farmland still makes up only about 1
percent of the total; however, it is widely appreciated that many farmers using
organic practices are too poor to afford the certification process.
In
another positive social ripple, agroecology is especially beneficial to women
farmers. In many areas, particularly in Africa, nearly half or more of farmers
are women, but too often they lack access to credit. Agroecology—which
eliminates the need for credit to buy synthetic inputs—can make a significant
difference for them.
Agroecological
practices also enhance local economies as profits on farmers’ purchases no
longer seep away to corporate centers elsewhere. After switching to practices
that do not rely on purchased chemical inputs, farmers in the Global South
commonly make natural pesticides using local ingredients—mixtures of neem tree
extract, chili, and garlic in southern India, for example. Local farmers
purchase women’s homemade alternatives and keep the money circulating within
their community, benefiting all.
Besides
these quantifiable gains, farmers’ confidence and dignity are also enhanced
through agroecology. Its practices rely on farmers’ judgments based on their
expanding knowledge of their land and its potential. Success depends on farmers’
solving their own problems, not on following instructions from commercial
fertilizer, pesticide, and seed companies. Developing better farming methods
via continual learning, farmers also discover the value of collaborative
working relationships. Freed from dependency on purchased inputs, they are more
apt to turn to neighbors—sharing seed varieties and experiences of what works
and what does not for practices like composting or natural pest control. These
relationships encourage further experimentation for ongoing improvement.
Sometimes, they foster collaboration beyond the fields as well—such as in
launching marketing and processing cooperatives that keep more of the financial
returns in the hands of farmers.
Going
beyond such localized collaboration, agroecological farmers are also building a
global movement. La Via Campesina, whose member organizations represent 200
million farmers, fights for “food sovereignty,” which its participants define
as the “right of peoples to healthy and culturally appropriate food produced
through ecologically sound and sustainable methods.” This approach puts those
who produce, distribute, and consume food—rather than markets and
corporations—at the heart of food systems and policies, and defends the
interests and inclusion of the next generation.
Case studies in some of the world’s
hungriest regions can illuminate the potential of agroecology to meet global
needs. The experience of Tigray, Ethiopia, an extremely cash-poor region of
almost five million people with degraded soils and poor crop yields, offers one
promising example. In part because of the region’s low rainfall, the “hunger
season” for the poorest farmers has typically lasted more than half the year,
and climate change has intensified such hardships. In 1996, national and
regional agencies took action. Working with the Institute for Sustainable
Development, they launched a transformational strategy with the goal of
restoring soil fertility as well as developing community-environmental
governance.
The
Tigray Project worked with farmers to infuse a few basic agroecological
practices, like composting, into their work. Unlike chemical fertilizers, which
require application every year, good compost can increase and maintain soil
fertility for up to four years. Thanks to healthier soil, farmers began
achieving higher yields, with fewer challenging weeds, and their crops became
more resistant to disease and pests. Stopping the uncontrolled grazing of
livestock allowed for the revegetation of degraded lands, including steep
slopes and gullies not suitable for agricultural production. This previously
“useless” land now provides biomass for livestock feed or compost, thereby
returning nutrients to the soil. In just five years, from 2000 to 2005, farmers
doubled yields of cereals grown on compost-treated soil. The project
incorporated other innovations as well, such as the creation of small trenches along
the bunds (low earthen ridges) between fields to catch rain and soil runoff,
and tree planting and the nurturing of tree regrowth.
The
project clarifies the social dimension of addressing hunger. From its
beginning, villagers have assumed leadership via local associations with
elected representatives. The associations create and enforce community by-laws,
and, through these associations, villagers make a series of public commitments
on issues like water conservation. Some commitments are very specific, such as
how many acres of land a person commits to plant with trees and the number of
days of service he or she will contribute labor to soil and water conservation
projects that benefit everyone.
Using
these practices, Tigray farmers now produce enough food to maintain a full
year’s reserve, and their farms’ greater crop diversity enhances resiliency. By
2008, 86 percent of the nearly seven hundred thousand farmers in the region
were using natural fertilizer on nearly half a million acres. Chemical fertilizer
use fell 40 percent by weight between 1998 and 2005, while grain production
climbed more than 80 percent. Some farmers even produce a surplus that they can
sell, raising their incomes more than tenfold, to roughly $700 a year. The
ripples from this project have continued, as the Ethiopian government is
spreading many of the Tigray-tested ecological practices, which have reached
about a quarter of the country’s rural districts so far. Tigray’s positive
experience is reflected in the results of many similar initiatives throughout
the world.
Despite the many strengths of the
ecological farming model, objections still arise. Many who discount agroecology
as a scalable solution note that in the Global North, it now contributes a very
small share of total production. Moreover, in the Global South, small farms
lack the knowledge and decision-making power to convert to successful
ecological methods. Of course, these concerns refer not to shortcomings of the
model itself, but instead raise questions about whether humanity can make the political
choices necessary for the shift of direction essential to embrace it. The
answer will depend largely on how widely and deeply people appreciate the
failure of the industrial model and the availability of a viable alternative.
Disseminating information such as that reported here is therefore vital to
fostering broad-based understanding and popular mobilization for change.
Once
citizens come to appreciate that the industrial agriculture model is a dead
end, the challenge becomes strengthening democratic accountability in order to
shift public resources away from it. Today, those subsidies are huge: by one
estimate, almost half a trillion tax dollars in OECD countries, plus Brazil,
China, Indonesia, Kazakhstan, Russia, South Africa, and Ukraine. Imagine the
transformative impact if a significant share of those subsidies began helping
farmers’ transition to agroecological farming.
Making Nutrient Cycling Practical
Even those aware of the evidence of
agroecology’s already proven yields, as well as projections about its
potential, suggest that the soil nutrient cycling required to replace synthetic
fertilizers on a grand scale is impractical in an increasingly urbanized world.
But agroecology’s core principle of aligning with nature’s regenerative
processes is the direction all human systems must take if humanity is to
thrive, or even survive. As resources are shifted toward regenerative farming
practices, we will no doubt learn ever-better ways to cycle soil nutrients.
The
shift is already beginning. In 2012, the European Union called on members to
reuse virtually 100 percent of phosphorus by 2020, and Sweden already requires
40 percent of phosphorus in sewage to be recycled back into the soil. However,
in the United States, cycling nutrients through what are called “biosolids”—fertilizers
produced from treated solid waste separated from municipal sewage—has attracted
many critics who note the difficulty of removing heavy metals and other
contaminants from sewage sludge, which includes waste from industrial sources,
and safely applying it to fields.
Solutions,
however, are emerging. One promising example is a process called “nutrient
recovery.” Since most of the nitrogen and phosphorus is in wastewater, this
technique focuses there, extracting only these nutrients, not the toxics. In a
process called “struvite precipitation,” phosphorus crystallizes with other
elements and is withdrawn from the wastewater to become fertilizer. In this
crystalline form, the phosphorus is virtually insoluble in water and therefore
does not leach into waterways. Plants can activate the phosphorus as they grow,
but only when they need it, helping to reduce the current vast waste of
phosphorus.
The
part of the human waste stream richest in both nitrogen and phosphorus is, in
fact, urine. Urine is essentially sterile, and for centuries, humans have found
simple ways to return it, with these key nutrients, to the soil. Today, it
remains a largely untapped source of plant nutrition, although deriving
fertilizer from urine is catching on in countries like the Netherlands. In
2014, Amsterdam’s public water utility invited male residents to use urinals
specially designed to collect urine to fertilize rooftop gardens, playfully
calling it “peecycling.” In West Africa, seven hundred families in eight Niger
villages are cycling all the nutrients in their own waste back to their fields
using waterless toilets and simple urinals—low-energy and low-cost—and enjoying
yields equal to or better than those obtained with chemical fertilizers.
A
big factor in making nutrient cycling practical is reducing the distance
between where food is grown and where it is consumed. Because three-quarters of
food is still eaten in the country in which it is grown, and because most
countries are not as vast as the United States, this reconnection may be less
daunting than it seems. Many governments in Latin America and the Caribbean
have specific policies to promote urban and periurban farming. In Cuba, 40
percent of households grow some of their own food; in Guatemala and Saint Lucia,
20 percent do. Cuba also helps farmers move soil nutrient sources, such as
compost, to where they are needed. Agroecological urban farming in Cuba, in
turn, helped to lift the country’s average caloric availability from less than
2,000 calories per capita per day in the 1990s to more than 3,000 by 2005
If
humanity can master space travel and decode the genome, surely we can grasp the
laws of biology and tackle the logistical challenges of nutrient cycling.
Worldwide, less than 1 percent of agricultural research focuses on advancing
the knowledge and practice of organic farming. If we shifted course, the
potential for agroecological farming could be realized on a global scale.
Reversing the Pressure to Leave Farming
Skeptics of agroecology doubt that sufficient
human labor could be mobilized to supply what would be required to take it to
scale. Even if they had the opportunity, these skeptics say, too few people
would actually choose to remain in such arduous work in rural environments with
fewer amenities than cities offer.
Evidence,
however, suggests otherwise. True, urban centers are swelling, and half of us
now live in cities. But is the force behind this shift a pull to attractive
urban life or largely a push by unfair returns to farmers, as well as by land
hoarders and grabbers who are effectively evicting agrarian populations?
Today,
more than a third of humanity depends directly on agriculture for their
livelihood, and many want to remain where they are because of deep cultural and
family roots—as long as they can also enjoy the rewards. In fact, many
rural people want to stay on their farms so much that they risk their lives
resisting land grabs by foreign interests. The colonial seizures of land in the
nineteenth century continued into the twentieth. And today, China, Saudi
Arabia, Kuwait, Qatar, and South Korea, among others, are buying up or leasing
vast tracts to provide food—not for local people, but for their own
consumers—and produce crops for fuel. Land grabs in Africa since 2000 alone total
an area as large as Kenya.
Such
pressure is, of course, only one reason for migration to cities. More
widespread is simply the inability to earn enough from farming, along with such
hardships as lack of public investment in rural market roads, schools, clinics,
and agricultural extension. The disadvantages of rural life result from choices
made by elite-controlled governments, unrelated to the inherent potential
appeal of rural life. Relatively small investments and improvements, however,
may be able to turn the tide. In the central plateau of Burkina Faso in West
Africa, outmigration stopped when life in the villages was improved through
water and soil conservation practices along with the integration of trees and
crops. One village, which had lost a quarter of its population in the ten years
before the new practices began, did not lose a single family once ecological
farming increased crop yields and led to improved food security.
Finally,
any accurate appraisal of the viability of a more ecologically attuned
agriculture must also let go of the idea that the food system is already so
globalized and corporate-dominated that it is too late to scale up a
relational, power-dispersing model of farming. As noted earlier, more than
three-quarters of all food grown does not cross borders. Instead, in the Global
South, the number of small farms is growing, and small farmers produce 80
percent of what is consumed in Asia and Sub-Saharan Africa.
When we address the question of how
to feed the world, we need to think relationally—linking current modes of
production with our future capacities to produce, and linking farm output with
the ability of all people to meet their need to have nutritious food and to
live in dignity. Agroecology, understood as a set of farming practices aligned
with nature and embedded in more balanced power relationships, from the village
level upward, is thus superior to the industrial model. This emergent
relational model offers the promise of an ample supply of nutritious food
needed now and in the future, and more equitable access to it.
Reframing
concerns about inadequate supply is only the first step toward necessary
change. The essential questions about whether humanity can feed itself well are
social—or, more precisely, political. Can we remake our understanding and
practice of democracy so that citizens realize and assume their capacity for
self-governance, beginning with the removal of the influence of concentrated
wealth on our political systems?
Democratic
governance—accountable to citizens, not to private wealth—makes possible the
necessary public debate and rule-making to re-embed market mechanisms within
democratic values and sound science. Only with this foundation can societies
explore how best to protect food-producing resources—soil, nutrients,
water—that the industrial model is now destroying. Only then can societies
decide how nutritious food, distributed largely as a market commodity, can also
be protected as a basic human right.
Commentary
on Farming for a Small
Planet: Agroecology Now
Ashish
Kothari ; April 2016
Lappé’s
essay is lucid, timely, and exciting for its attempt at connecting so many dots
rather than being only a “technical” paper which proponents of “organic
farming” can at times restrict themselves to. The stress on the social and
political is especially welcome. The important question then becomes “how,” and
I would like to share what I think will be vital steps:
(a)
Advocacy for women’s rights to farming land and other resources. In many parts
of the world, these are not well-established, and the male domination of
agriculture (especially in its links to the state and the market) is part of
the problem. More generally, recognizing the crucial role of women in
agriculture is part of the struggle.
(b)
Advocacy for community tenure, not only to agricultural lands, but also to
other resources that agriculture is intimately connected to, including
non-agricultural commons (grazing lands, forests, wetlands, etc).
Sustainability of farming, as well as economic/social security for farmers, is
crucially dependent on long-term tenure.
(c)
Connected to the above, taking a more holistic view of agriculture by linking
(or, where it existed in the past, relinking) with fisheries, animal husbandry,
forestry, and crafts/agro-based manufacturing. This is crucial not only because
of the ecological connections amongst ecosystems and nature, and the nutrients
and other inputs that non-farming ecosystems provide to farming, but also
because of the fact that agriculture alone will not be able to provide a full
livelihood and employment security. An integrated approach with all these built
in, however, could. Several villages in India, similar to the example that
Lappé provides, have stopped or reversed outmigration using such an approach.
Besides, capitalism and state-dominated systems have excelled at creating
divisions between farmers, fishers, pastoralists, indigenous people,
craftspersons, and other “ecosystem people,” so a successful transition
requires their reconnection and mutual strengthening, albeit in different
circumstances than the past.
(d)
Localization of agricultural cycles. This could also be successful if
government or civil society programs linked to procurement and redistribution
of food, such as India’s Public Distribution System (PDS), are localized. An
example from southern India (Deccan Development Society) has shown the
potential for this by starting a parallel PDS using locally grown, organic
millets. The same could be for public programs on food for work, free food for
schools in poor communities, etc.
(e)
Linking not only producers and consumers (which Lappé mentions) but also
investors (as far as possible local), with the latter also receiving their
“interest” back in the form of agricultural produce (thereby also building a
bit more of a non-monetized exchange process). The initiative Just Change in southern
India is attempting this; some CSA models in Europe or North America offer a
similar approach.
The
focus on self-governance (or what I could call “radical democracy”) that Lappé
points to towards the end of the essay is the crux of not only a sane agricultural
future, but also of a sane future in general—linked, of course, to economic
democracy, social justice, cultural diversity, and ecological wisdom and
resilience. Applying these fundamental pillars or principles would also help
us, I think, to sift the “green economy” kind of tinkering around within a
capitalist or state-dominated system (in which “organic farming” is being
pushed by big corporates) from a truly
revolutionary transformation.
Lappé's vision is certainly an important part of this.
Source: http://www.greattransition.org/commentary/ashish-kothari-farming-small-planet-frances-moore-lappe
His
farm has plenty of water, many trees bearing fruit and a steady produce of
organic products
Source:
The Hindu; April 27, 2016
जल दर्शन
|
Conservation: Lessons from ancient
India
May 7, 2016 ; The
Hindu
As drought-like conditions have gripped many parts of India
this year, the pressure to drill borewells in search of increasingly scarce
groundwater has escalated. Many regions are in the grip of a vicious cycle of
drilling causing the water table to sink further. There is an urgent need to
explore what benefits water conservation can bring, whether through modern or
ancient water storage structures. As the report below, the concluding part of
the six-part series, explains, ecologically safe engineering marvels of water
conservation have existed in India for nearly 1,500 years, including
traditional systems of water harvesting, such as the bawari, jhalara, nadi,
tanka, and khadin. Even today these systems remain viable and cost-effective
alternatives to rejuvenate depleted groundwater aquifers, according to experts.
With government support, these structures could be upgraded and productively
combined with modern rainwater-saving techniques such as anicuts, percolation
tanks, injection wells and subsurface barriers. This may be a far more
sustainable approach to alleviating the water scarcity crisis across India.
Ultimately, water conservation has to be a key element of any strategy to bring
an end to India’s perennial swings between drought and flood.
HARVESTING
HISTORY: Agrasen ki Baoli in Delhi, built-in pre-Lodhi era (14th century) by
Raja Agrasen, to collect rainwater during the monsoon. File photo: V.V.Krishnan
It’s half past four on a sweltering
afternoon in Jodhpur. At the end of a narrow lane in the walled city a metal
gate seems to close off a dilapidated monument. Walk through it though, and a
series of steps leads you into a well the size of a large swimming pool. There
are arches above the well at regular intervals and it’s easy to sense, from the
surrounding air, that the water runs cold. A group of young men are splashing
about inside, occasionally emerging with handfuls of dirt or stray pieces of
garbage that they place at the top of the steps. They have been working for
days and through their efforts, the water inside seems clean, almost
luminescent.
Satayanarayanji ka bawari, the small
stepwell named after the temple next to it, is one of hundreds of similar
structures, all part of an ancient network of water storage that the city of
Jodhpur was once famous for, but now lie neglected. On this afternoon, the
young men from the colony around the stepwell are participating in an
initiative started by a local environmental activist, Rajesh Joshi, to clean
and revive some of them.
“The old city of Jodhpur has over 200
stepwells and they were built from around the 6th century onward as part of an
incredibly sophisticated water architecture,” he explains. During the little
rain that the region receives between June and September water is diverted from
canals built on the hilly outskirts of the city to man-made tanks or talabs.
It then seeps into the ground, raising
the water table and recharging an intricate network of aquifers that were built
deep, with steps narrowing down to the well to minimise the water that could
evaporate.
All that changed after 1996, when the
Indira Gandhi canal brought water from the Sutlej River in Punjab and the
government started supplying piped water to households. “Earlier people had to
collect water from the stepwells with buckets but once piped water came there
was suddenly a surfeit and then people no longer cared. They started using the
stepwells to just dump garbage,” says Dhananjaya Singh, whose family owns a
hotel in Jodhpur and is involved in the restoration of the Toor ji ka jhalra,
another stepwell in the old city.
The surfeit, however, didn’t last. Mr.
Singh says that over the past few years water from the canal only supplies some
households once in two or three days. That, and the constant possibility that
Punjab could one day decide to terminate the water supply, made Mr. Singh and
others think seriously about making the walled city at least, self-sufficient
for water consumption. Cleaning and recharging the stepwells, he says, is the
first step toward that.
Since most of them have fallen into disuse, stepwells are often
seen as archaic structures that are not factored into modern town planning.
In an upscale housing colony called
Umaid Heritage on the outskirts of the city, a Jodhpur-based architect, Anu
Mridul, is attempting an experiment to change that by creating a modern
interpretation of a bawari.
A 900-foot-long structure with endless
panels of interlocking beams and pillars, it is the first new stepwell created
in over a century and Mr. Mridul says it can hold up to 17.5 million litres of
water. Once operational, it will be used primarily for rainwater harvesting.
Mr. Mridul says the idea of building a
stepwell rather than relying solely on tanks was motivated by the recognition
that the State had a falling water table and the government was struggling to
supply water through the canal.
The model, he says, can be emulated in
other parts of the country even if it is not built on the same scale as the
Umaid project. “All you need is a natural slope to build a stepwell or
otherwise, water can be lifted from different parts. Like the way in which the
ancient system in Jodhpur connected all parts of the water architecture, city
planners can look at incorporating stepwells into the existing networks,” he
says.
Implementing rainwater harvesting
Beyond Jodhpur, districts of western Rajasthan suffer from acute drinking water shortages as they receive only about 200 mm of rainfall per year. Water-restoring structures such as the rainwater tanks and talabs have fallen into disuse given the over-reliance on the government.
Beyond Jodhpur, districts of western Rajasthan suffer from acute drinking water shortages as they receive only about 200 mm of rainfall per year. Water-restoring structures such as the rainwater tanks and talabs have fallen into disuse given the over-reliance on the government.
“Successive governments promise
pipelines and other things because politics in this region is played out
through water. So what we are trying to do is teach people to be more self-sufficient,”
says Kanupriya Harish, head of the Jal Bhagirati Foundation, an NGO that works
to optimise management of scarce water resources.
She adds that despite the
acknowledgment by the State government that rainwater harvesting is vital —
Chief Minister Vasundhara Raje in January this year launched the Jal Swavlamban
Yojna to promote the use of rainwater accumulated through traditional methods —
implementation on the ground remains slow.
देशज ज्ञान
और स्वस्थ
|
भारत में गोमूत्र से विकसित कीटनाशक
को अमेरिकी पेटेंट
2 May, 2015 ; http://kisanhelp.in/news
अनुसंधान केंद्र के मुख्य समन्वयक सुनील मनसिंघका ने बताया कि इस नवविकसित दवा से फसलों के विकास में चार गुना तक की वृद्धि संभव है। यह विषाणु एवं फंफूद से फसलों की रक्षा करने के अलावा पौधों की प्रतिरोधक क्षमता और मिट्टी की गुणवत्ता को बढ़ाने में सहायक है। उनके मुताबिक कामधेनु कीटनियंत्रक का निर्माण गोमूत्र, नीम और लहसुन को मिलाकर किया गया है। इसके अलावा तीनों अवयवों को अलग-अलग या एक-दूसरे में मिलाकर भी कीटनाशक दवाओं का विकास किया गया है। सुनील का दावा है कि इस कीटनाशक के इस्तेमाल से रासायनिक दवाओं पर आने वाले खर्च को 50 हजार करोड़ रुपये मूल्य तक कम किया जा सकेगा।
1996 में स्थापित जीवीएके ने कामधेनु कीट नियंत्रक दवा का विकास राष्ट्रीय वनस्पति अनुसंधान संस्थान और सीएसआइआर [लखनऊ] के साथ मिलकर किया है। इससे पूर्व जीवीएके द्वारा विकसित कामधेनु अर्क को एंटीबायोटिक्स और कैंसर प्रतिरोधी दवा के रूप में अमेरिकी पेटेंट हासिल हो चुका है।
साभार जागरण
विविध
|
When communalists turns on environmentalists
Wildlife conservationist Neha
Sinha writes: In the past, environmentalists have often been blamed as
obstructionist and anti-development. Legal environmental clearance processes
have been described as green terrorism because questions of sustainable
development and conservation do not always go hand in hand with polluting
industrial expansion. But many environmentalists feel being called
anti-cultural and anti-Hindu is something new.
The overarching sense is that it is
religious practice and use, rather than ecology, science or animal cognition,
that is the shining light for subliminal but broad changes in our environmental
policies.
Earlier
this year, the central government issued a notification that lifted a ban on jallikattu, an ancient bull-taming sport that’s
been embroiled in controversy over animal cruelty charges. As a practising wildlife conservationist, I appealed for a
rethink on this feudal practice, arguing that baiting a peaceable animal
was cruel. I was promptly hectored on social media with a barrage of
questions. Twitter users, many of whom had no names or no profile
pictures, declared I was against “Hindu religion and custom”. I was also asked
what my views on Bakr Id were. Then, I was asked if I supported the beef ban.
My
idea was to reflect on the jallikattu sport as cruel in and of itself,
divorced from whichever community it originated from. The purpose was
not to shame a community but to etch out the non-political, non-human animal as
being helpless. The unwitting animal in this case was the very anathema to
politics, class, culture or the galvanisation of an organised event. But a
green animal-rights issue suddenly seemed to have become painted saffron.
Eating
beef and what one feels about Muslim festivals is not analogous to what one
feels about jallikattu. When I said I would only focus on the issue at
hand, I was accused of practicing ‘selective outrage’ and being ‘sickular’. I
could speak about animals only if I would say that I would protect cows and
denigrate beef-eating. As a Hindu, I was repeatedly asked if I practise
vegetarianism, depicted as akin to holding a conservation science degree – my final
qualifier for speaking for animals.
This
is simply one in many episodes in the construction of what is Hindu
and what is not, when faced by questions to do with animals, environment and
wildlife. Conservation biology teaches us to focus only on issues that are
researched and known but the ‘bhakts’ will have us know that it’s all
about cows.
There
is an interesting ‘adarsh liberal’ poster doing the rounds. I haven’t been able
to find its origins but I don’t think it’s a satire either; it mirrors much of what
environmentalists hear as criticism today.
Two
things are happening here. First, when environmentalists critique the
religious or cultural agenda, they are descried as unworthy, foreign-funded or
anti-Hindu – even should they be dealing with agnostic subjects such as
ecology or animal behaviour, concerning a dying river, a hissing cobra or
a placid bull. While religion has contributed to conservation, it does not
follow that each animal or environment-related issue is a question of religious
or communal identity.
Second,
the distinction between culture and religion has collapsed. Criticisms of the
World Culture Festival held on Delhi’s flood plains earlier this
month were buoyed with the mass respectability religion and spirituality bring.
Criticism on social media around jallikattu focused on activists being
anti-Hindu, even though jallikattu is a community-led event rather than
a flagship for Hindu customs.
A
lot has been uncovered about trolls loving abuse and hating debate. It is
established that they revel in group bullying, showing signs of psychopathy. But to what extent will this mentality inform conservation
planning and future choices?The Art of living sponsored World Culture Festival
is an interesting case in point. The Art of Living was the principal host
of the World Culture Festival. Per court orders, construction on the flood
plains is not permitted. The festival, which brought in lakhs of visitors,
flattened the plains, concretised it in places, removed reed beds and set up a
huge complex. The National Green Tribunal
found that the permissions for this event
were illegal.
With
the existence of an NGT order barring constructions on the floodplain,
this was akin to throwing a bash on the Moon, in precisely those areas
which are no-go. On social media and other campaign platforms, Art of Living
volunteers buried their heads in metaphoric river-sand, denying the very
photographs that proved the rampage, and hectoring all those who said
otherwise. Others inverted all criticism into an anti-Hindu activity. If
secularism is the separation of the state and religion, then this was the Art
of Living event appeared to have the blessing of both the state and soft Hindutva, backed by Delhi and the central government.
“I’ve
worked for the Yamuna for years. We were simply saying that Yamuna is a dying
river and does not need this sort of blow to the floodplain, which recharges
the river and Delhi’s water table,” says Vimlendu Jha, an activist who was
lobbying for the festival to be shifted away from the floodplains. “The
festival bulldozed the flood plain and was actually against the sanctity of the
river.” Instead, he and other activists were threatened. “Never before has my
environmental activism been viewed as a bad thing. But now, not only do I have
trolls coming after me, but also middle class gentry. I was threatened with my
life, and people came to my office to intimidate us. On TV shows, I was called
anti-national by a BJP spokesperson. It seems if you argue, you are bad.
Supporting the river over a music festival is anti-national,” he says.
Interestingly,
while AOL did not once accept the damage they caused, they inverted the
incident to claim they wouldrestore the floodplain. The sanctimonious spirituality on display involved
usurping the area and then declaring it would be saved – the classic, pay,
pollute, repeat that has been the fate of the Yamuna’s banks since
the time of the Commonwealth Games. Only, this time, it came backed with state
silence and the gleaming badge of religious colonisation and respectability,
according to activists.
In
the past, environmentalists have been blamed as obstructionist and
anti-development. Legal environmental clearance processes have been described
as green terrorism because questions of sustainable development and
conservation do not always go hand in hand with polluting industrial expansion.
But many environmentalists feel being called anti-cultural and anti-Hindu is
new. “I appealed to people not to use glass-coated manja (kite-string)
on Makar Sankranti as this leads to the death and injury of thousands of
birds,” says wildlife conservationist Prerna Singh Bindra. “Immediately I was
told that I was against Hindu culture. Then, I was told that I raise objections
to anything that is Hindu. The environment is important to all of us. Giving
this a religious spin is bizarre – and bad for the cause,” she says. It doesn’t
end there. “I am asked next what I have done for cows.”
Another
environmental activist adds, “If anything critical of the ruling government is
said, you are immediately classed as anti-Hindu, anti-national and a
‘Congressi’. There is a mob constantly on the watch, on every possible
platform, waiting to attack you. What is most disturbing is that this sort
of extreme right nationalism seems to have affected even that class of people
who were once believed to be well educated, well-travelled, broad minded,
forward thinking and above religion.”
Social
media, of course, is not the real world. But there are indications that the
government is interested in colonising secular animals as religious
subjects, or as cogs in customs which have loud lobbyists. For instance,
the Ministry of Environment, Forests and Climate Change is mulling changing the Wildlife
Protection Act and wildlife policy
to allow the hunting of animals for “religion and culture”. At the forefront of
this wishlist are customs such
as Nag Panchami, in which
cobras and other snakes are illegally caught to be worshipped. The practice
almost always leads to complete mortality as snakes are averse to human
handling; their mouths are usually stitched with needle thread and on capture.
Interestingly, allowing for the capture of cobras and snakes for Nag
Panchami, a longstanding demand from Hindu groups, also found its way
in the recommendations of the T.S.R. Subramaniam committee report, which was tasked with suggesting amendments to five Indian
environmental laws.
That
cobras and religious hunting found mention along with far-reaching, big-picture
recommendations, such as environmental clearances and penalties for environment
damage, gave an insight into favoured policy aspirations. The overarching sense
is that it is religious practice and use, rather than ecology, science or
animal cognition, that is the shining light for these subliminal but broad
changes.
Revised Solid Waste Management Rules
Mandate Inclusion of Wastepickers!
Source: https://wastenarratives.com/2016/04/23/revised-solid-waste-management-rules-mandate-inclusion-of-wastepickers/
The
recently released Solid Waste Management Rules, 2016 are a matter of celebration. They acknowledge the
contribution of wastepickers in keeping our cities clean. Prescriptions are
made for the inclusion of waste pickers and informal waste workers (identified
as informal waste collectors) in waste management services. There are few flaws
in the given document, those need to be rectified while making policies and
plans for solid waste management at the state and city level as mandated by the
rules.
Clear mandate for inclusion of
wastepickers in door to door collection and other waste management services
The rules define wastepickers and
other informal waste collectors, respectively as follows:
“waste
picker” means a person or groups of persons informally engaged in collection
and recovery of reusable and recyclable solid waste from the source of waste
generation the streets, bins, material recovery facilities, processing and
waste disposal facilities for sale to recyclers directly or through
intermediaries to earn their livelihood.
“informal
waste collector” includes
individuals, associations or waste traders who are involved in sorting, sale
and purchase of recyclable materials.
As
per our understanding of the waste economy hierarchy i.e. apart from
wastepickers; itinerant (kabadiwallas) buyers, scrap dealers etc. have
all been clubbed together in the definition of ‘informal waste collector’. Such
a measure is welcome as it is inclusive of all relevant vocations in informal
waste economy. Further, the rules propose issuance of occupational identity cards
to wastepickers and informal waste collectors and their integration in door to
collection as responsibility and duty of local authorities and village
panchayats, rules also command setting up of material recovery facilities which
enables wastepickers and waste collectors to separate recyclables from the
waste, and state that incentives need to be provided to recycling initiatives
by informal waste recycling sector. Local bodies have been asked to do capacity
building of wastepickers and waste collectors through training. For the
strengthened implementation of rules, department in charge of local bodies of
all state governments have been asked to constitute state level advisory
committees, which will have representative of waste pickers and informal waste
recyclers.
It
is worth mentioning that the representative of wastepickers: General Secretary
of Kagad Kach Patra Kashtakari Panchayat- Harshad Barde was included in the
committee to finalize these rules. We are grateful to all committee members
including Harshad Barde for such a commendable job.
Coming to the measures which need to
be rectified are:
- Source segregation: The rules prescribe source segregation in 3 categories: Dry, Wet & Hazardous Waste. Instead of streamlining sanitary waste separately, they suggest that waste generators ‘wrap securely the used sanitary waste like diapers, sanitary pads etc., in the pouches provided by the manufacturers or brand owners of these products or in a suitable wrapping material as instructed by the local authorities and shall place the same in the bin meant for dry waste or non- bio-degradable waste.’ This is unacceptable, sanitary waste should be considered a separate stream and should not be mixed up with dry waste. As we know dry waste will be sorted by wastepickers in secondary collection center or material recovery facility, in case of Bengaluru- those are termed as Kartvavya/ neighbourhood dry waste collection centers. If sanitary waste is mixed with dry waste, while sorting wastepickers will be forced to touch the human excreta and other biological waste, which is a violation of prohibition of manual scavenging act. Therefore, while framing state and city plans collection of sanitary waste should be separately streamlined as is done in Bengaluru through the enforcement of 2 bin 1 bag. 2 bins for organic waste and sanitary/reject waste respectively and bag for dry waste. Karnataka High in its order given on 16th December, 2015 has also directed the implementation of 2 bin 1 bag concept at household level. For reference- definitions of dry, biodegradable and hazardous waste have been provided here: “dry waste” means waste other than bio-degradable waste and inert street sweepings and includes recyclable and non-recyclable waste, combustible waste and sanitary napkin and diapers, etc; “biodegradable waste ” means any organic material that can be degraded by micro-organisms into simpler stable compounds; “domestic hazardous waste” means discarded paint drums, pesticide cans, CFL bulbs, tube lights, expired medicines, broken mercury thermometers, used batteries, used needles and syringes and contaminated gauge, etc., generated at the household level.
- Removal of quantity from definition of Bulk Generator: “bulk waste generator” means and includes buildings occupied by the Central government departments or undertakings, State government departments or undertakings, local bodies, public sector undertakings or private companies, hospitals, nursing homes, schools, colleges, universities, other educational institutions, hostels, hotels, commercial establishments, markets, places of worship, stadia and sports complexes having an average waste generation rate exceeding 100kg per day. The mention of quantity makes it cumbersome to identify bulk generators as most of these institutions don’t generate uniform amount of waste every day. For example, on a day of festival a temple must be generating around 500 kilograms of waste and on a regular day it’s waste generation doesn’t exceed 50 kilograms. In such cases monitoring of average waste generated will be next to impossible. It is suggested that the definition should exclude mention of quantity of waste generation i.e. average waste generation rate exceeding 100kg per day.
- Rules command manufacturers or brand owners of sanitary napkins and diapers to ‘explore the possibility of using all recyclable materials in their products or they shall provide a pouch or wrapper for disposal of each napkin or diapers along with the packet of their sanitary products. All such manufacturers, brand owners or marketing companies shall educate the masses for wrapping and disposal of their products.’ As per the principle of Extended Producers’ Responsibility the duty of manufactures and brand owners should not be limited to providing packets for their products but also taking the charge of creating disposal facility for sanitary waste with the support of municipal authority.
While
getting in the implementation mode, we will have to do course correction time
to time and the list of suggestions for strengthening waste management will not
be exhaustive. There are visible improvements in the standards for scientific
landfill, leachate, compost and incineration/co-processing facilities. It needs
a separate analysis and therefore, has not been mentioned in this post. There
are many features which this post has not touched upon but we will be doing so
in the coming days and weeks. To conclude, I would like to state that out of 10
demands made to the union ministry by Alliance of Indian Wastepickers, a
network of wastepickers organisations from all over India, 7 have been fully or
partially satisfied in the framing of rules. A lot has been stated, a lot needs
to be done. It is time for some rectification and rest implementation.
implementation and implementation.
For reference demands are given
below:
- Waste-pickers and informal waste recyclers should be identified, registered, authorised and integrated into the solid waste management system by local governments. Thereby, should be recognized and identified as green collar workers.
- Occupational Identity cards should be issued to waste-pickers by the local/Municipal governments with the involvement of waste-pickers’ collective.
- Sorting (secondary segregation/ fine segregation) should be recognized as a crucial activity in SWM. Space for sorting and temporary storage of recyclables should be made available for waste-pickers in a decentralized manner.
- Waste-pickers should be afforded free and easy access to recyclables at source of generation as well as at secondary storage, material recovery, transfer, processing and disposal facilities.
- Introduce a comprehensive EPR policy under both Municipal Solid Waste and Plastic Waste Management rules to tackle difficult streams of waste such as sanitary waste, multi-layered packaging etc. and providing support to waste-pickers in collecting and diverting low value recyclables.
- Manufacturers of sanitary products like diapers, sanitary napkins etc. should be required to provide uniquely marked leak proof bags for the safe disposal of each individual product.
- Waste-pickers should be allowed to retain the waste collected by them.
- State and local governments should promote integration of waste-pickers into solid waste management systems by:
- Incentivizing formation of membership based organisations of waste-pickers including self- help groups, cooperatives, unions and companies.
- Preference for integration into door-to-door collection and processing facilities
- Authorize waste pickers to collect user fee from the beneficiaries of their services
- Handing over management of material recovery and other waste processing facilities to collectives of waste-pickers.
- Training and capacity building of waste-pickers in fine sorting, composting, bio-methanation and scrap shops management
- Provision of safety equipment, social security and health benefits to waste-pickers, including inclusion in housing schemes, food and security measures (for their children) as priority.
- National, State and Local policies/ strategies/ plans should be made in consultation with waste-pickers and their organisations.
- Waste-pickers should be involved in monitoring and advisory committees.
- Viability gap funding, tax concessions, credit at low rate of interest etc. should be made available to participants in the informal waste recycling sector.
Source:http://epaper.jagran.com/homepage.aspx#
Dainik jagran dated 6 May 2016
dainik jagaran dated 6 May 2016
source: http://epaper.jagran.com/ePaperArticle/06-may-2016-edition-Delhi-City-page_21-276-6424-4.html
Dainik jagaran dated 6 may 2016
Dainak jagaran 6 May 2016
Drinking water, sipping poison
The Hindu; 5 May 2016
Girs
from Gettur fetch water from a neighbouring Panchayat. Gettur has not received
Hogenakkal water in three months. Photo: N. Bhaskaran
Fluoride
contamination has severely affected residents in drought hit areas in
Dharmapuri and Krishnagiri. A mitigation project has suffered from distribution
issues.
India’s
water quality problem is reaching crisis proportions, and today at least 1.95
crore habitations are affected by poor water quality. Over 3.6 crore people are
exposed to health hazards owing to drinking water containing excess arsenic,
fluoride, iron, salinity or nitrate. 66 million Indians are at risk due to
excess fluoride and more than six million have already been crippled by high
fluoride content in drinking water. In some cases such contamination occurs due
to the overexploitation of groundwater. Besides metal poisoning, bacterial
contamination affects at least 37.7 million Indians annually, with 1.5 million
child fatalities due to diarrhoea. Urgent investments are needed to stave off
the crisis of water quality focusing on water treatment solutions such as
reverse osmosis, and also on improving water storage infrastructure so that the
water table is recharged . The third of a six-part series is on the effects of
poor water quality in drought-prone Dharmapuri and Krishnagiri districts in
Tamil Nadu.
Tears plop down Ammasi’s sunken
cheeks that get bruised every time she gets one of her epileptic seizures.
Married off at 18 years, Ammasi was abandoned by her husband a month later,
after one such seizure. Today this 26-year-old finds her single status
debilitating. “Is it the water?” asks her brother Karthik, who too suffers
epilepsy.
The lab report of Sivakumar (36)
shows his serum creatinine count as 12.56 mg against the normal 1.4 mg, and his
urea count is 127 mg against the permissible 45 mg. Both his kidneys failed,
requiring him to travel every fortnight to Salem for dialysis. ‘The hospital
said it was the water. They suggested a transplant that I can’t afford,” says
this father of three children, out of work for the last two years.
Susceptible to Fluorosis
In the same street 58-year-old
Govindammal died ten days ago from renal failure. And across the lane,
35-year-old Kanagaraj has been diagnosed with early stage renal dysfunction.
His eight-year-old daughter born with mental retardation, died a week ago. “She
had fever,” he says.
Here in Oddanur in Nagamarai
Panchayat in Pennagaram, renal failure is quoted with the nonchalance reserved
for common cold.
Until recently, people of Oddanur
drank from a fluoride-contaminated groundwater hand pump. On the Panchayat’s
request water quality was tested by the Tamil Nadu Water Supply and Drainage
Board and the hand pump was red-marked as highly contaminated.
The 150 households of Oddanur now
depend on the second and only hand pump remaining in the village, although it
produces saline water. “Look at our vessels, this is the water we drink, we
cook with,” says Paapathi, a ward member, waving the corrosively stained
stainless-steel vessels.
This is a young population cut off
from the workforce owing to rickets, epilepsy, and renal failure within a
radius of few lanes. “We know fluorosis causes renal ailments, but we are not
sure about others,” says an official.
Forty
kilometres down at Hogenakkal in Pennagaram, the headworks of the multi-billion
dollar Hogenakkal Drinking Water and Fluorosis Mitigation project stands tall,
with its mammoth booster station, master balance reservoir and state-of-art
water treatment facility.
Here
water is tapped at source, from the Cauvery gushing into Tamil Nadu, and is
carried for around 700 metres to one kilometre to the mainland for habitations
in the two districts of Dharmapuri and Krishnagiri. Since it is tapped at
source, the water is seen as dependable even under drought conditions.
Distribution
lags
The
project was commissioned to supply water treated at a cost of Rs.42.21 per
kilolitre for habitations like Oddanur, but this state-of-art supply-side
infrastructure is bogged down by distribution lags.
Oddanur
receives Hogenakkal water once a week. “The 60,000 litre Overhead Tank (OHT)
takes two days and half to fill due to low voltage and a pipeline flaw,” says
Kandavel, OHT operator. In neighbouring Odayaankadu, a new OHT still awaits
connection.
In
Paaparapatty town Panchayat, 30 kilometers from Pennagaram, a household gets 25
cans every three days. “We use this for bathing, when it gets closer to the
next supply” says a woman.
Technically,
this Japan-funded multi-billion dollar Hogenakkal Drinking Water and Fluorosis
Mitigation project established at a cost of Rs.1928.80 crore has fulfilled its
mandate, “covering” its targeted 7,716 habitations, 17 town Panchayats and
three municipalities in the two districts.
But
the numbers fail to capture the whole picture. Fed by power from different
feeders from different stations, the project design assumes a 12-hour power
supply in rural habitations, and hinges on partial pumping and partial gradient
flow. In elevated terrains, multiple boosting is required and power supply
should be available at all pumping stations for synchronised pumping.
“In
many places, there is not enough power even at the substations. A 33 KV
substation receives just about 23 KV supply,” says an official source. There is
also tampering of pipelines and pilferage at places.
Several
habitations have now threatened a poll boycott on the Hogenakkal water issue.
On the campaign turf, the opposition has contested the AIADMK’s claims to the
project’s success. The project component itself appears to recognise only
dental fluorosis leaving in the lurch people like Sivakumar, and Ammasi, who
need diagnostic intervention.
Remote sensing and ‘divining’ in a
desperate quest for water
Source:http://www.thehindu.com/todays-paper/tp-national/remote-sensing-and-divining-in-a-desperate-quest-for-water/article8557959.ece
The hindu dated 5 May 2016
In the quest for groundwater this
summer, people seem to be relying on both cutting edge satellite images and
traditional beliefs like ‘water divining’.
Over a month back, the State
Government decided to use the Indian Space Research Organisation’s satellite
images to locate borewells in four taluks of three districts of North
Karnataka: Indi in Vijayapura; Afzalpur and Aland in Kalaburagi; and Kundagol
in Dharwad. The ploy worked. Tadaalaga and Aland have now become tanker-free in
recent weeks, thanks to borewells sunk in the spots located by satellite
images. Both taluks had been dependent on water supply through tankers, since
November 2015.
Private land problem
However, in Dharwad’s drought hit
taluk of Kundagol, the government's remote sensing -based borewell action plan
has hit a block. Although eight underground water points in Kundagol were
identified from satellite maps, officials in the zilla panchayat engineering
department said they could not drill the wells as all points are in private
properties.
Kundagol's tahsildar has been tasked with two options: negotiate
compensation with land owners or acquiring lands.
Meanwhile, in places where the
government did not seek satellite images, it’s the practice of ‘water divining’
that people have resorted to as a desperate search is on for trustworthy “water
diviners”. They are in huge demand even in the country’s IT capital.
A gated community on the Kanakapura
Main Road wanted to sink another borewell as a standby, after the first one was
almost dry, and they took the help of Bora Linga, who claims have powers to
detect groundwater with the throbbing of his veins. He walked around the
12-acre campus and identified a spot, and when the borewell was dug there was
water, said a resident.
There are nearly two dozen water
diviners from Karnataka actively involved in the practice of locating
underground water. Their fees range from anywhere between Rs 5,000 and Rs 7,000
for every successful find.
'Dubious practice'
This is despite scientists questioning
the practice and arguing it is not based on concrete evidence. “Science does
not believe in divining. There is no meaning attached to this coinage, 'water
diviners',” said hydro-geologist K.C. Subhash Chandra.
Several residents argue that the reliance on the practice of
“divining” is cheaper and less time consuming than more scientifically proven
methods.
Scarcity in Mettur's vicinity
The Hindu, 6 May 2016
Water gushing out of
from the 16-vent surplus channel of the Stanley Reservoir durng April-end.
Photo: E. Lakshmi Narayanan
Even as water levels in the Mettur dam have dropped
precipitously, farmers complain about the lack of diversion of surplus flows
from the dam into nearby water bodies.
India
is facing a dire need for greater and more efficient water storage, without
which the country’s grossly insufficient storage capacity amplifies the effect
of rainfall deficits, and exacerbates drought conditions. On the one hand, per
capita availability of fresh water has declined sharply from 3,000 cubic metres
to 1,123 cubic metres over the past 50 years, while the global average hovers
at around 6,000 cubic metres. Simultaneously, each year India is estimated to
lose the approximately two-thirds of the new water storage capacity to
excessive siltation and improperly managed runoff. Between 1992 and 2004, for
example, 200 large and medium-sized irrigation works were constructed yet the
area irrigated by such schemes shrank by 3.2mn hectares. Unless sizeable
investments are undertaken to de-silt reservoirs and repair damaged canals,
dams and irrigation works some estimate that by 2050 India may well run short
of water. The fourth installment of a six-part series examines the problems of
water storage and surplus management in the Mettur Dam catchment area in Tamil
Nadu.
Anbu, a businessman, from
Govindappadi village near the majestic Mettur dam, is one of many residents
caught in what seems to be an unusual predicament. “Our villages, despite
proximity to the Cauvery, face acute drinking water scarcity,” he says, adding,
“It is no better than the drought prone areas of Krishnagiri and Dharmapuri
districts.”
His
story is not uncommon to this area. The Mettur dam may be the lifeline of the
Cauvery delta supplying drinking water to almost one-third of the population of
the state, but for villages surrounding the structure water scarcity is an
everyday reality. Irrigation has also been compromised in the proximity of what
should in theory be a water- zone, and after fighting for over four decades to
divert the dam’s water to water bodies in the district farmers in delta are
ready to throw in the towel.
N.
Perumal, State General Secretary of the Tamil Maanila Congress Vivasaya Sangam
is cynical. He says that despite receiving excess rainfall during the months of
November-December, the rural areas of Salem district are bracing for an acute
water crisis with Mettur Dam and other water bodies drying up fast. “The farm
activities in about 45,000 acres in Salem, Namakkal and Erode districts under
the Mettur dam’s East-West Canal scheme is undertaken with much difficulty
every year,” he says, with a resigned air.
Frustrated
by the constant wastage of surplus water released through 16-vent Ellis Saddle
surplus channel, office-bearers of the Cauvery Surplus Water Action Committee
complain, “It is painful to see surplus water flowing into the sea without
benefiting anyone.”
If
supply is this erratic during times of relative comfort, then how severe would
water scarcity be when drought-like conditions grip the region?
Wasting
precious water
Even
though parts of Tamil Nadu have escaped the burning heat and dry conditions of
North India, such as what the Marathwada region in Maharashtra is witnessing,
the efficiency of water storage here inspires neither confidence nor hope.
The Mettur dam has
"surplussed" more than 40 times in its 82 years of existence.
Surplussing occurs during the southwest monsoon when five to 80 thousand
million cubic feet (tmcft) of water drains in to the sea, while 70 per cent of
lakes in Salem remain dry.
Despite
such surplussing, on Thursday the water level in the Mettur dam had dropped to
an alarming 50.10 feet against its total capacity of 120 feet. While the inflow
was only 44 cubic feet per second (cusec) 2,000 cusecs had to be discharged to
supply drinking water to the delta districts. Even worse, it would appear that
the discharge is not being taken up efficiently, either for drinking water or
for irrigation. Instead it ends up as run-off, which is water that is wasted
rather than channelled for any useful purpose.
On
multiple occasions the farming community here demanded that the government harvest
surplus water released from Mettur dam to fill water bodies in Salem, Namakkal
and Erode. If the authorities had complied, the water-laden tanks, ponds and
reservoirs in the area would have recharged the groundwater. They have not.
Silt
accumulation
Besides
poor water management owing to ineffective systems for tapping the run-off of
surplus water, the accumulation of silt has been a serious obstacle to
attaining full storage potential at the Stanley reservoir in Mettur. The
Reservoir was constructed in 1934. Yet it has not been desilted even once. Such
negligence has resulted in a situation where the Mettur dam has been losing on
an average 0.4 per cent of its holding capacity due to silt and sand every
year, according to A. Mohanakrishnan, former Advisor to State Government on
Water Resources.
Today the dam’s actual capacity
stands at only about 65 tmcft, down from its total capacity of 93.47 tm, with
silt accumulation accounting for 20 per cent of the storage capacity of the
dam.
Unless there is a major intervention
in the water storage ecosystem of this region, residents such as Anbu and
Perumal will continue to be water-poor in potentially one of the most
water-rich regions of the state.
Water level in dams dips to a new low
Source:http://www.thehindu.com/news/national/water-level-in-dams-dips-to-a-new-low/article8562523.ece
The Hindu; dated 6May 2016
The storage in major
reservoirs across the country has fallen to 19% of their total capacity.
Water storage in major Indian reservoirs has dipped to 19%
of their total capacity, according to a weekly update by the Central Water
Commission.
Water
storage in major Indian reservoirs has dipped to 19% of their total capacity,
according to a weekly update by the Central Water Commission on Thursday.
On
the back of consecutive droughts in 2014 and 2015, several parts of India have
faced searing droughts. This has contributed to water in these 91 dams steadily
falling to touch decadal lows since April but a top official said water levels
had not ever dipped below 20%.
‘Situation not critical’
“I
don’t immediately remember whether it has ever dipped below 20%,” G.S. Jha ,
CWC Chairman, told The Hindu “but not in the last 4-5 years at least.”
Mr.
Jha, however, emphasised that the situation “wasn’t critical” because there was
enough drinking water and several dams were drained out of extra water during
May in anticipation of a good monsoon. “The monsoons are expected in Kerala by
the end of this month so I think the latest figures shouldn’t cause alarm.”
Droughts in Maharashtra had forced the government to send water in trains to
Latur to provide for drinking water.
He said there was also reduced water
demand for agricultural purposes during the summer months and in anticipation
of the monsoon, beginning June.
The
CWC sends out a weekly update of the water levels in 91 of India’s major dams.
Though these are less than 2% of India’s approximately 4,500 dams, they store
nearly two-thirds of India’s reservoir water. Out of these reservoirs, 37 reservoirs
have hydropower benefit with installed capacity of more than 60 MW.
Significant declines
According
to the Thursday update, the current year’s storage is nearly 64 per cent of
last year’s storage and 77 per cent of the average of last 10 years.
The
most significant declines have registered in the Indus, Tapi and Mahi basins
which are 35%, 39% and 42% less than their decadal normals.
A good monsoon is critical to
replenishing these reservoirs. Last month, the India Meteorological Department
has forecast the monsoon rains during June-September to be 106% of the normal.
Later this month it is expected to announce a date for the monsoon onset over
Kerala.
Politics over an empty water-train
in Bundelkhand
6 may 2016; the hindu
Source:http://www.thehindu.com/todays-paper/tp-national/politics-over-an-empty-watertrain-in-bundelkhand/article8563089.ece
Running on empty:A
water train sent by the Centre at the railway yard in Jhansi on Thursday.—
photo: pti
Confusion and politics over drought
prevailed in Uttar Pradesh on Thursday as the Samajwadi Party government
refused outright the Centre’s offer of a “water-train” for the parched region
of Bundelkhand, even as a 10-wagon train destined for Mahoba lay stranded at a
rail yard in Jhansi, with officials clueless about what to do next.
The train, with a capacity of more
than 5 lakh litres, is, however, empty. “The wagons do not contain any water or
oil,” NCR Jhansi Division spokesperson Girish Kanchan told The Hindu .
The disposal of the wagons is yet to
be decided as the Mahoba district administration had neither “refused nor
demanded” them, Mr. Kanchan said. “We are awaiting instructions from our
headquarters in Allahabad,” he said.
Chitrakoot Divisional Commissioner
Venkateshwarlu said the Mahoba district had not made any such demand.
The rejection of the Centre’s aid by
the SP government, which claimed that Bundelkhand had sufficient water,
triggered a war of words with parties accusing each other of playing politics
over water.
‘A drama’
SP Cabinet Minister Rajendra Chaudhary
said the Centre’s proposal to provide a water-train was a “drama,” while Union
Water Resources Minister and Jhansi MP Uma Bharti, in a letter to U.P. Chief
Minister Akhilesh Yadav, described his decision to refuse Centre aid as
“ridiculous” and cited the grave water scarcity in Bundelkhand.
Mr. Yadav, who is expected to meet
Prime Minister Narendra Modi on May 7 to discuss the drought situation, shot
off a reply to Ms. Bharti requesting 10,000 tankers for the region. Since
Bundelkhand’s reservoirs still had adequate water, the region’s urgent
requirement was that of tankers, he said.
A new plan to clean up Yamuna
May
6, 2016; the hindu
Sorry sight: Last year,
the Centre and Delhi government had set up a special purpose vehicle to execute
projects to clean the Yamuna. Experts, however, say there has been no progress
on the ground. (File photo)
new plan to clean Yamuna, including removal of solid waste and
preventing sewage from flowing into the river, is likely to be announced by the
Union and Delhi governments soon.
According to sources in the Delhi government, several measures to
improve water quality and an overall plan to combat pollution in the Yamuna are
likely to be revealed on Saturday. Union Water Resources Minister Uma Bharti
and Delhi Water Minister and chairperson of the Delhi Jal Board Kapil Mishra
have had several meetings, and are expected to announce a plan soon.
Mr. Mishra told The Hindu : “Things have been moving in a
positive direction. Very soon you would see positive steps.”
The measures are likely to include a Rs.700-crore fund from the
Centre for sewage treatment plants at Kondli and Rithala. A new ghat for Chhat
prayers is likely to be developed at ITO, while a steamer to collect solid
waste from the river is also expected to be announced. Apart from these, Ms.
Bharti and Mr. Mishra could issue a joint statement on the plans for cleaning
the river.
This isn’t the first time that the two governments have come
together for the cause. Last year, the Centre and Delhi government had set up a
special purpose vehicle (SPV) to execute projects to clean the Yamuna. Experts,
however, say there has been no progress on the ground.
“No work has been done after the announcement of the SPV. Instead
of announcing plans, the government should follow the National Green Tribunal’s
judgment of last year that lays out a detailed blueprint,” said Manoj Misra,
convenor of the Yamuna Jiye Abhiyaan.
Mr. Misra was referring to the NGT’s order titled ‘Maily se
Nirmal Yamuna Revitalisation Project, 2017’, which issued strict measures for
curbing pollution in the river. Among them was a total ban on construction on
the floodplains, and the setting up of 15 mini-sewage treatment plants.
Over the years, both the Centre and Delhi government have spent
thousands of crores on cleaning the river. Despite this, Delhi’s 18 major
drains drop 3,500 million litres of water into the river every day.
Food in India untested for
diabetes-linked chemical
5 May 2016; The Hindu
Alloxan
is used in laboratories to induce diabetes in rats
Alloxan, a chemical allegedly used in
the manufacture of refined flour, faced the prospect of limitations on its use
after a litigant approached the Madras High Court to request a ban on the
mixing of alloxan in white flour. Alloxan is used in laboratories to induce
diabetes in rats and to test the efficacy of anti-diabetic medicines but no
tests have been scientifically done to detect its presence in India.
Increased risk
Global health literature suggests that
its presence in flour implies that consumers of popular Indian food such as
parathas and puris are at increased risk of diabetes as well as heart disease.
In a 2013 report The Hindu
quoted several Madurai-based cardiologists who suggested that alloxan and other
agents in flour may be associated with heart disease.
Alloxan has been banned by the Food
Safety and Standards Authority of India (FSSAI), the Delhi-based central body
that has the final say on what additives are permissible in food.
Independent food testing labs in Delhi
say that they have yet to detect the presence of the substance. “So far we
haven’t noted alloxan in our tests,” said Sunil S., a food chemist at the
Shriram Institute of Industrial Research.
Alloxan’s chemical existence has been
known since the 19th century, when it was discovered in human excretions,
indicating that it could be synthesised in the body.
Alloxan’s structure mimics that of
glucose, which allows it to be absorbed by the pancreas and once inside the
organ, it destroys insulin-producing beta cells.
However, according to the American
Chemical Society, it cannot be taken up by the human pancreas, though it has
been shown to be associated with liver and kidney toxicity.
No known studies have yet specifically
discovered alloxan in Indian foods. However other bleaching agents that are
used to make flour white, such as benzoyl peroxide and chlorine oxide — and
also named in the petition before the Madras High Court — are permitted by the
FSSAI provided they appear below specified limits, according to a notification
on the agency’s website.
There have been no studies that
examine the issue of alloxan in street food, said an official with Delhi’s Food
Safety department, who did not want to be identified. The United States Food
and Drugs Administration has also not issued specific notifications on alloxan.
Water shortage likely in the Capital
Source: http://www.thehindu.com/news/cities/Delhi/water-shortage-likely-in-the-capital/article8564081.ece
6 May 2016; The Hindu
Wazirabad
and Chandrawal water treatment plants
functioned at 50 per cent capacity
Large parts of the city are likely
to face water shortage on Friday morning as untreated water supply to Delhi
from Haryana fell on Thursday.
However,
a more severe crisis has been averted for now with Uttar Pradesh agreeing to
continue water supply from the Tehri lake in Uttarakhand, where the water level
has dropped sharply.
The
Delhi Jal Board’s Wazirabad and Chandrawal water treatment plants functioned at
50 per cent of their capacity on Thursday because of inadequate raw water
supply.
Both
the Munak Canal and the regular course of the Yamuna had less water, which
forced the DJB to curtail production at the two plants. On Friday, Delhi will
get 50 million gallons less water than the usual 900 million gallons per day
(MGD).
The
DJB said in a statement that the “acute drop” in the level of the Wazirabad
pond and the “reduced supply” in the carrier-lined channel would hit supply in
the whole city, except East Delhi. The affected areas would include Lutyens’
Delhi, North Delhi, Northwest Delhi, Central Delhi, and parts of South and West
Delhi.
According
to DJB officials, Haryana was releasing 200 cusecs of water through the Yamuna,
but most of it is evaporating before reaching Delhi.
According
to a Supreme Court order, Haryana is supposed to maintain the level of the
Wazirabad pond, which is fed by the river. The DJB will write to the Haryana
government to raise the issue soon, said a senior official.
DJB
chairperson Kapil Mishra said Uttar Pradesh had agreed to continue water supply
through the Upper Ganga Canal, which feeds the Sonia Vihar and Bhagirathi
plants.
These
two plants account for about 25 per cent of the DJB’s treated water supply.
Coupled with the decrease in water from Haryana, any dip in supply from UP
could have been disastrous for Delhiites.
*****
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