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II. Application of Biotechnology in Agriculture
1. Agriculture comprising crop and animal husbandry, fisheries, agro-forestry and agro-processing is the backbone of our national food security and rural livelihood security systems. There are about 110 million operational holdings in the country. The smaller the farm, the greater is the need for higher productivity and marketable surplus, so that the family can derive some cash income. Also, our human population is predominantly young. Youth can be attracted and retained in farming only if farming becomes intellectually satisfying and economically rewarding. This will call for a technological upgrading of our agriculture.
1.1 India is a mega-biodiversity area. Biodiversity constitutes the feedstock of the biotechnology industry. India is also endowed with a rich institutional infrastructure in the form of National and State research institutes, Agricultural, Veterinary, Rural, Women’s and general Universities and a network of Krishi Vigyan Kendras (KVKs). Private sector research, particularly in the area of breeding and seed production, is fast expanding. India has already attained a position of leadership in information and communication technology, space technology and medical biotechnology.
1.2 Biotechnology provides an opportunity to convert bioresources into economic wealth. This has to be done in a manner that there is no adverse impact either on the environment or on human and animal health. The bottom line of our national agricultural biotechnology policy should be the economic well being of farm families, food security of the nation, health security of the consumer, protection of the environment and the security of our national and international trade in farm commodities. Recommendations of the Task Force are based on these considerations.
1.3 Infusion of new technology is necessary to maintain our agricultural enterprise competitive and remunerative. Modern science of biotechnology is relevant to various areas of agriculture including crops, animals, fisheries and agro-forestry and agro-processing. There are myriad applications of biotechnology in agriculture such as:
Generation of transgenic crops/animals/agro-forestry plants/
microbes with improved traits
Use of molecular markers to (i) tag genes of interest, (ii)
accelerate breeding through marker assisted selection, and (iii)
undertake fingerprinting of cultivars, landraces, germplasm stocks
DNA-based diagnostics to monitor/control /manage/ eradicate pests
and pathogens of crops, farm animals and fish
Biotech-derived drugs/antibiotics/vaccines for animal husbandry
and fisheries
Assessment and monitoring of bio-resource diversity
Plant tissue culture for large-scale multiplication of
elite/disease-free planting material
Embryo culture/transfer/cloning technology for animal breeding
Feed biotechnology for efficient use of crop residues and oil
cakes
Food biotechnology
Bioremediation of pollution in ground water and other effluents.
Functional Genomics, Proteomics and Bioinformatics
In additional the Science of Nano-biotechnology is making rapid progress.
1.4 A long-term policy on Biotechnology Applications in Agriculture should therefore aim at:
Providing
direction to research and development in relation to priorities, based on
social, economic, ecological, ethical and equity issues.
Devising
a system for commercialization of transgenics/GM products, and
Developing
a clear policy on GM food and feed in the country
1.5
The long-term policy should also take into account the need and relevance
of the technology to agriculture and should be in tune with and derived from the
National Policy on Agriculture, the overall goals of which are:
Increasing
productivity, profitability, quality and total agricultural output
Promoting
environmental sustainability through natural resource conservation and
enhancement
Improving
factor productivity in order to reduce the cost of production and enhance
net earning from marginal and small holdings
Ensuring
food and nutrition security
Generating
employment, reducing gender and social inequality and regional imbalances in
agricultural growth
Enhancing
agricultural competitiveness in relation to global standards
Strengthening
national capability in facing the potential adverse impact of climate change
and sea level rise.
1.6 Since there is public, political and professional concern about transgenics with reference to their short and long term impacts on human health and the environment, their testing, evaluation and approval have to be stringent, elaborate and science-based. The general approach in this respect, therefore, should be that:
Biotech
applications, which do not involve transgenics such as biopesticides,
biofertilizers and bio-remediation agents, should be accorded high priority.
They will help to enforce productivity in organic farming areas
Transgenic
approach should be considered as complimentary and resorted to when other
options to achieve the desired objectives are either not available or not
feasible
High
priority should be accorded in transgenic approach to the incorporation of
resistance to insect-pests and diseases including viruses and to drought and
salinity (i.e. biotic and abiotic stresses)
Transgenic
research should not be undertaken in crops/commodities where our
international trade may be affected, e.g., Basmati rice, soybean or
Darjeeling Tea. Wheat exporting countries like Canada and USA are abandoning
their programmes for breeding transgenic wheat varieties hybrids.
The
international guidelines being set up by the FAO-WHO Codex Commission for
assessing and managing the health risks posed by GM foods should be closely
followed. These risk analysis guidelines call for safety assessments to be
conducted for all GM foods prior to market approval.
1.7
In addition, core information about gene exchange taking place among
modern cultivars, traditional varieties and wild relatives should be gathered to
assess concerns of transgene escape and establishment. Data should also be
gathered on the impact of transgenics on biodiversity in crop fields, as has
been done on an extensive scale in the United Kingdom.
1.8 Information emerging from genomics especially genome sequencing of model plants and other organisms should be used for allele mining from other related species.
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[Documents] Last Updated On - 01 April, 2005 |