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For R & D to be sustainable and effective it must become a part and
parcel of the regular agriculture activities involving farmers
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The
rising population has kept the necessity of producing more food
ever growing. In 1998, Dr. Edger J. DaSilva, Director, Life Sciences
Section, UNESCO, had said that the world population, then approximately
5.8 billion, is expected to double by the year 2050 and that the
challenge for the future lies in global food security that necessitates
a doubling of food production in the next 50 years to meet the needs
of the population.
Can
we be content with maintaining the present levels of food production?
Even if we add to richness/wealth in all other terms, the population
will be confronted with options of either to keep stomach half empty
every day, assuming we achieve equitable distribution by 2050, or
to wage food wars.
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Green
Revolution - Past, Present And Future
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The Green Revolution has itself declined. In almost all crops,
yields have been stagnating over the last decade. The same
yield response to irrigation and fertilizers is not being
achieved by the same improved genotypes in the same fields.
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There is no possibility of better hybrids through further
breeding. The natural gene pool has been almost fully utilized
and yield improvement by new hybrids over already existing
is only marginal at best.
- This
marginal improvement obtained in research stations is not
reproducing itself in farmers’ fields. Although average yields
did improve to some extent, major increase in food production
is through increase in area under cultivation rather than
by increase in per acre yields.
- The
achieved average yields are far less from the maximum yield
potential. There is hardly any potential for further increase
in area under irrigation/cultivation.
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On the contrary, due to faulty irrigation and fertilizer use,
the fertility of irrigated and intensively cultivated lands
has declined sharply and these areas are likely to go out
of cultivation in the near future. In some areas in Maharashtra,
for example, thousands of hectares of once highly fertile
agricultural lands, with plenty of river water for irrigation,
have turned into vast tracts of saline and water logged soils.
Finding their reclamation unfeasible, some farmers have already
turned their farms, once under sugarcane, to freshwater fish
farming.
- The
Green Revolution has brought a whole range of pests and diseases
and the need for heavy dependence on agrochemicals. Weeds
are also perceived as an equally intractable problem. The
need for agrochemicals has risen sharply, pushing up capital
requirements and the cost of production, which has eaten into
the net profit margin, making farming financially unattractive.
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Genetically Modified crops are technology’s answer to these
problems as well as the problems of salinity resistance, drought
resistance and resistance to may diseases. However, many environmental
issues are being raised in the cultivation of these crops.
There are reports that in USA, where farmers have adopted
GM crops during the last few years on a very large scale,
while there has been success in combating insects and weeds,
they are failing to achieve satisfactory yields.
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In non-GM crops, heavy use of agrochemicals has resulted in
toxic or carcinogenic residues in food, raising a scare about
their consumption.
- On
a whole, the farmers are dissatisfied. This has led to farmers’
agitations. Many farmers have turned their back on the use
of fertilizers and chemicals in agriculture, basically to
the concept of intensive agriculture, under various banners
such as natural farming, organic farming etc. Some claim success,
but most end up accepting sharp yield reductions per acre,
with the only solace that they did not incur any capital expenditure.
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On the GM crops front too, assuming that they turn out to
be environmentally safe, the question of the limitations of
this technology, remain. Most of the genes controlling yield
are polygenic, and a technology for such a change is not in
sight at present. Resistance to insects, pests and diseases
per se are not guaranteed to boost per acre yield. Further,
licensing their production after a whole range of tests and
the job of convincing customer to accepting products from
it is going to be a long drawn out one.
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The
situation can be averted only through R&D by people’s participation,
not for low input agriculture alone, but for all types of agriculture.
Basically, R&D as a concept and activity should not remain separated
from agriculture per se but become synonymous with it.
Given
the complexity of agriculture and the increasingly specialized ways
of farming under biotechnology, achieving practically possible maximum
yield is no more within the scope of single individuals. It is possible
only if the small farmer retains the ownership and his farming becomes
a team effort involving practical and fair partnership with financier,
corporates and a team of expert scientists helping him in adaptive
R&D to assimilate the formal R&D product chosen by him. The government,
on its part should pass facilitating legislations wherever imparting
legal validity to the underlying relationships in above team effort
is required.
To
understand the importance of R&D by people’s participation, it is
necessary to first understand where we stand today in terms of productivity
and the effects of the Green Revolution. This is highlighted in
the box: Green Revolution - Past, present and future.
It
is high time researchers woke up to the fact that due to the application
of formal research results of the Green Revolution, without intervention
of adaptive R&D to the soil conditions, integrated nutrition and
disease and pest management, etc., a host of problems have emerged.
Farmers at the centre stage of the Green Revolution, far from having
benefited, are in fact irreversibly saddled with several disadvantages,
a legacy of the era of Green Revolution. However, the technology
is not at fault, but its implementation without caring for locally
adaptive R&D.
The
Genesis
The
concept of R&D through people’s participation in agricultural technology
development emerged in the late 1980s. It gathered momentum due
to the growing resentment amongst that large proportion of farmers
engaged in “low input agriculture” whose susceptibilities and requirements
were totally ignored by the initial boom of agricultural technology
developments, which was perceived to have immensely benefited only
the “high external input” Green Revolution.
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Dr
V A Savangikar
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