eChapters

Allard (1960) defines germplasm as “the sum total of the hereditary  materials in  species” The word germplasm in context of plants is now referred to as plant genetic resources i.e. PGR.PGR is a component of the world’s biological diversity. The term biological diversity is a vast and often undervalued resource. Biological diversity includes every form of life, from the smallest microbe to the largest beast. Biodiversity is the variety and variability of all plants, animals and microorganisms and the ecological complexes of which they are part. The earth’s biodiversity – its ecosystems, species and genes – are the product of over 3000 million years of evolution. Throughout this time, small changes have accumulated in populations, resulting in a multitude of living forms closely adapted to the physical conditions they face and to each other. They supply all our food, much of our raw materials and energy and many of our medicines. Intact eco-systems also play a central role in the functioning of biosphere. Plants are of crucial importance in stabilizing climate, protecting watersheds on soils and maintaining the chemical balance of the earth. When key species are lost, vital ecological services are disrupted (Zedan, 1995).

The National Bureau of Plant Genetic Resources, commonly known as NBPGR was established by the Indian Council of Agricultural Research (ICAR) in 1976 with its main campus at New Delhi. Being the nodal organization in India it has been given the national mandate to plan, conduct, promote and coordinate all activities concerning plant exploration and collection and also for safe conservation and distribution of both indigenous and introduced genetic variability in crop plants and their wild relatives. The Bureau is also vested with the authority to issue Import Permit and Phytosanitary Certificate and conduct quarantine checks on all seed materials and plant propagules (including transgenic material) introduced from abroad or exported for research purposes.

Plants are vital part of the world’s biological diversity and essential resource for human well being. Besides meeting our basic food and fibre requirement, many thousands of wild plants have immense economical and cultural importance and potential for providing food, medicine, fuel, clothing and shelter for vast number of people at the global  level. Traditional Chinese medicines use around 5000 plant species and about 7000 different plants are used in traditional medicines in India. Plants play an important role in maintaining basic ecosystem functions essential for survival of animal life. Thus, it is of vital importance to collect and conserve the plant genetic resources on a global basis. It is all the more important as several cases of genetic vulnerability of plants that are grown for food and other uses have been recorded (National Research Council, 1972, Granett et al., 1991). Genetic diversity in the germplasm of crop plants is an effective defense against genetic vulnerability. The genetic diversity is strategically used as modern plant breeding intervention to help increase stability and sustainability of food production using modern cultivars.

Historically, Indian scientists have recognized the importance of conserving plant biodiversity with particular reference to indigenous     and naturalized crops and their wild relatives. Indian scientists have recognized the importance of conserving plant biodiversity as early as 1935 by the ‘Crops and Soil Wing’ of the then Board of Agriculture and Animal Husbandry. Late Dr. B. P. Pal, in his classic paper ‘Search for New genes’ published in 1937 emphasized the importance of germplasm augmentation and utilization in crop improvement programmes. The need was reiterated in a meeting of the Indian Society of Genetics and Plant Breeding in 1941, which inter alia discussed the subject of economic crops. Dr. B. P. Pal, working at the then Imperial (now Indian) Agricultural Research Institute approached the then Imperial (now Indian) Council of Agricultural Research (ICAR) to set-up a unit for assembly of global germplasm under phytosanitary conditions in India. The ICAR scheme for plant introduction started functioning in 1946 under the leadership of late Dr. Harbhajan Singh as the first ‘Operational Scientist’. The scheme was further expanded and strengthened as ‘Plant Introduction and Exploration Organization’ in the Botany Division in 1956 and later established as a separate Division of Plant Introduction in IARI in 1961 headed by Dr. Harbhajan Singh.

IPGRI founded in 1974 is the world’s largest international institute dedicated solely to the conservation and use of plant genetic resources. It is located at Rome in Italy. The institute is funded by the Consultative Group on International Agricultural Research (CGIR) which is an informal association of 45 public and private sector donors. CGIAR supports a network of 16 International Agricultural Research Centres. The Group was established in 1971. It is cosponsored by the Food and Agriculture Organization (FAO), the World Bank, United Nations Development Programme (UNDP), and the United Nations Environment Programme (UNEP).

The place of origin of the crop plant can be found out on the basis of genetic affinities. This would mean to find out the geographical distribution of the wild progenitors of the cultivated plants. If one can locate the distribution of a given progenitor, one can delimit the area in which domestication could have occurred. Vavilov based his judgment on variation patterns in cultivated plants. Information on wild plants in those days was much more fragmentary than what it is today. Even today, genetic and ecological information on wild relatives of several cultivated plants is incomplete and in such cases assessment of a place of origin is difficult to make. However, in most cases required information is available on genetic affinities between wild and tame, on distribution areas and on ecological affinities of the wild progenitors. On this basis it is possible to determine the initial place of origin.

Biodiversity is the foundation stone of human survival on the earth. Very appropriately, the theme of the World Food Day celebration, 16 October, 2004 was “Biodiversity for Food Security” Biological diversity is fundamental to agriculture and food production. Scientists have identified so far about 1.4 million of the plant and animal species that exist on earth. A rich variety of cultivated plants and animals serves as the foundation for agricultural biodiversity. Yet people depend on just 14 mammal and bird species for 90 % of their food supply from animals. Just four plant species, namely, wheat, maize, rice and potato provide half of our energy from plants (FAO, 2004).

India is located between 8^°- 38^° N and 68^°- 97^ºE and exhibits extreme variation in altitude — from sea level to heights above vegetational limits in the Himalayas (ca 4500 m), and climate — from monsoon- tropical in south to temperate and alpine in the north-western Himalayas and extremely arid to semi-arid in the north-western plains. It is floristically extremely rich with about 33 percent of its botanical wealth (over 15,000 species of higher plants) being endemic. There are about 141 endemic genera distributed over 47 families. Further, of the 4,900 endemic species, larger percentage is localised in the Himalayas (about 2,532 species) than in other regions, namely, the peninsular tract (1,788 species), and the Andaman and Nicobar Islands (185 species). It is also estimated that floristic richness is maximum in the north-eastern region, which holds about 50 percent of India’s total species diversity, i.e., more than 7,000 species, and is considered as the cradle of flowering plants. Of 990 species of orchids, 700 species occur in this region (Nayar, 1989). This, thus, makes the Indian region botanically unique and interesting (Arora, 1991).

Marshall and Brown (1975) have considered the subject of optimal sampling strategies for use in the genetic conservation of crop plants. The theme of this paper has been relatively narrow. These authors have defined a strategy for populations under imminent threat of extinction applicable to particularly the traditional landraces of some major crops such as wheat, rice and barley on account of danger of replacement of the landraces on a very broad scale due to the spread of modern cultivars. According to Brown and Marshall (1995) the emphasis in collecting of crop genetic resources has  changed radically over the years. Instead of crisis-driven broad scale crop specific programmes, the collection of plant genetic resources now involves 3 important elements as given below :

The diversity collection and making it available for future use is one of the most important activities related to management to plant germplasm resources. The collection of plant germplasm from their natural habitat is broadly known as plant germplasm exploration. The main reasons for collecting germplasm of given gene pool in a given geographical location are as follows (Engels et al., 1995)

Active plant breeding programmes call for continuous search for new genes to be incorporated into advanced breeding lines to face the new problems and the challenges. The rapid technological developments in gene transfer technology in recent years have opened new avenues for introducing useful genes from wild and weedy relatives of crop plants. It is also a fact that due to genetic erosion, wild species, are getting lost. Therefore, systematic collection of germplasm of wild and weedy species have become more relevant today then ever before for the following reasons (Bothmer and Seberg, 1995).

The most important root and tuber crops cultivated on a worldwide scale are potato (Solanum tuberosum), cassava (Manihot esculenta), sweet potato (Ipomoea batatas), yams (Dioscorea spp.) and taro (Colocasia esculenta), but there are many others that are of regional, national or local importance, in a total of over a dozen dicot and monocot families. Most of these originated in tropical or subtropical areas and are mainly used as sources of carbohydrates. Many minor root and tuber crops, such as turmeric (Curcuma longa) and arrowroot (Maranta arundinacea, Tacca leontopedaloides), are also used in folk medicine and as spices (Sastrapradja et al., 1981). All these crops are vegetatively propagated. There are also vegetatively (or clonally) propagated crops that are not roots or tubers, e.g. bananas and sugarcane. A selection of the more important crops is given in Table 13.1 (Huaman et al., 1995).

Molecular characterization involves the use of techniques that are available to analyze variation in plants and animals at the DNA level. Differences in gene sequences can be directly observed and described with a precision previously impossible to achieve. Many of the techniques that have been developed have already been used in evolutionary and taxonomic studies. They have immense value in studies of accessions identity and for the detection of novel useful variation in the plant germplasm. Molecular markers provide genetic information of direct value in key areas of conservation both ex situ and in situ. For ex situ conservation the key issues are:

Aplant collector and conservationist faces many problems. These include adverse weather, limited availability of personnel, insufficient material because of poor growing season, general scarcity of the plant in the target region, grazing of the plant by animals, damage by pests or diseases or immaturity of the material. These problems are common to both seeds and vegetative propagules. The vegetatively propagated plant material face another unique problem related to excessive weight and bulk. The cost and inconvenience of transporting large amounts of material can be a limitation on the scope of a plant exploration mission. There is additional need to maintain selected clones in a disease-free condition for distribution to national programmes.

The methods of plant germplasm preservation or conservation depend  upon type of germplasm i.e. seed or non-seed clonal materials. 

Storage of Seeds

According to the storage tolerance of seeds to low temperature and dry environments seeds are further divided into storable (orthodox) and non-storable (recalcitrant) types. The orthodox seeds are those seeds which are fully desiccation tolerant. These basically include small seeded grain crops and vegetables. They can be stored for a long time under low temperature and low humidity environment and are separately stored in long, medium and short term storage conditions in accordance with the purpose of storage.

International Board for Plant Genetic Resources (IBPGR) now known as International Plant Genetic Resources Institute (IPGRI) uses the following items in genetic resources documentation. 
    i)    Passport (accession identifiers and information recorded by collectors) 
    ii)    Characterization (consists of recording those characters which are highly heritable, can be easily seen by the eye and are expressed in all environments) 
    iii)    Preliminary evaluation (consists of recording a limited number of additional traits thought to be desirable by a consensus) of users of the particular crop
Characterization and preliminary evaluation will be the responsibility of the curators while further characterization and evaluation should be carried out by the plant breeders. The data from further evaluation should be fed to the curators who will maintain a data file.

Plant quarantine is a government endeavor enforced through legislative measures to regulate the introduction of planting materials, plant products, soil, living organisms, etc., in order to prevent inadvertent introduction of insect-pests, pathogens and weeds harmful for the agriculture of a country/state/region, and if introduced, prevent their establishment and further spread. Various methods of pest disease control are: exclusion, eradication, protection, therapy, resistance, and biological control. Exclusion or ‘keeping out’ is fundamental to the concept of plant quarantine while eradication methods are employed to eliminate a newly established pest/pathogen. Plant quarantine may, therefore, be defined as ‘Rules and regulations promulgated by governments to regulate the introduction of plants, planting materials, plant products, soil living organisms, etc. with a view to prevent inadvertent introduction of exotic pests, weeds and pathogens harmful to the agriculture or the environment of a country/region, and if introduced, to prevent their establishment and further spread’. Plant quarantine is designed as a safeguard against harmful pests/pathogens exotic to a country or a region (Ram Nath, 1991, Khetrapal et al., 2004).

No country is self-sufficient in plant genetic resources, and until recently this was thought to be sufficient to ensure the free flow of germplasm among nations. However, the concepts of ownership, sovereignty and intellectual property rights (IPR) have increasingly been invoked of late in discussions of how best to conserve and use plant genetic resources. This has resulted from the growing realization that germplasm has real economic value. At the same time, awareness has grown that the repercussions of overexploitation of natural resources, of the extinction of species and the disappearance of crop landraces, of environmental damage and of habitat destruction can be global, transcending national boundaries and short-term financial considerations (Anon. 1995). Therefore important international agreements/legislations on plant genetic resources management have been enacted from time to time. The important ones are as follows :

Seed is the most important component for productive agriculture. Significant advances have been made in production of food crops in India during the last four decades. The quantum jump in the food production primarily accounted for by increased productivity and production in rice and wheat was the result of introduction of improved varieties and their seeds often nicknamed as Green Revolution. The food production which was nearly 50 million tones during 1950 – 51 reached to a level of 210 million tones during 2003 – 04. During the same period the productivity increased about 3 folds (Table 20.1).

Issue

2004-2005 saw an upsurge in seed industry takeovers and a shake-up in rankings. Today, the top 10 companies control half of the world’s commercial seed sales. With a total worldwide market of approximately US$21,000 million [$21 billion] per annum, the commercial seed industry is relatively small compared to the global pesticide market ($35,400 million), and it is positively puny compared to pharmaceutical sales ($466,000 million). But corporate control and ownership of seeds – the first link in the food chain – has far-reaching implications for global food security. This chapter examines seed industry consolidation and other recent trends in the commercial seed industry.

Indian seed market is one of the largest in the world and entire supply is through almost locally produced seed. The value of currently marketed seed (excluding the major share of seed saved and used by the farmers) is about USD1 billion (Rs.4500/crore). Of this, roughly a third includes the traded seed making the seed business worth about Rs. 1500 crore. This figure is likely to touch Rs. 4500 crore (USD 1 billion) crore mark by 2010. In comparison to about USD 1 billion seed business in India, the worldwide market of seed is worth about USD 21 billion. The global pesticide market is worth USD 35 billion. These values, however, are much smaller in comparison to global sale of pharmaceuticals worth USD 466 billion.

Minimum field standards for seed production have been prescribed  for each crop. The major components to be looked into for meeting the field standards are: 
   Preceding crops 
   Isolation distance 
   Number of field inspections 

The minimum proceding crop requirement has been specified to minimize genetic contamination on account of volunteer plants germinating from the left over seeds in the previous season. The disease contamination is also possible from soil borne disease organisms if the previous crop was not certified. The preceding crop requirement would mean that for a prescribed minimum period the same crop or any other contaminating crop should not have been grown on the same field where seed production is to be taken up unless the preceding crop was a seed crop and had met the field/the seed standards.

Certified seed must meet certain seed standards in order to ensure an adequate level of seed purity along with the reasonable level of seed germination so that the farmer gets a good stand of the crop conforming to the varietal description. The components of the seed standard are as follows :
     The minimum percentage of pure seed 
     The maximum permissible limit for inert matter 
     Other crops seeds  
     Weed seeds 
     The maximum permissible limit for objectionable weeds 
     The maximum permissible limits of seeds of other distinguishable varieties (ODV) 
     Maximum permissible limits of seeds infected by seed bone diseases 
These standards are ensured in the seed crop by strictly adhering to field standards and careful harvesting, threshing, seed drying and then brining the same to the seed processing /seed conditioning plants. The Indian minimum seed standards for different crops are given in Tables 24.1-24.3 (Agarwal, 1995).

Seed certification is a legal programme to maintain and make available to the public high quality seeds and planting material of genetically distinct crop varieties. Under seed production programme, quality seed is produced by govt. farms research stations, progressive farmers and seed producers using careful quality control, pedigreed plant stock, field inspections during the growing season and seed inspections after the harvest. Certification is an officially recognized method for maintaining varietal identity of the seed. In India certification is carried out by State Seed Certification Agencies.

Seed quality is a multiple criterion that encompasses several important attributes. A seed scientist may be concerned with each quality characteristic of an individual seed while the seed trader normally considers the quality components of a seed lot. Any individual seed may possess certain measurable seed quality components which include:

After harvesting and threshing, the seed usually arrives at the cleaning plant with trash, green leaves, weeds, other crop seeds and insects, etc. If the seed contains leaves, etc. and other high moisture materials, it cannot be accurately cleaned and safely stored until most of the foreign material has been removed. The process of removing the unwanted materials from a seed lot is known as seed conditioning. Seed conditioning is an essential component of seed technology to ensure that the farmers get the seed of high quality.

Seed enhancement is the process or technology to further improve seed performances under very specific regimes and with certain planting equipment. Three major seed enhancement technologies are as follows (Copeland and McDonald, 1995). 
        Seed hydration 
        Biological seed treatments 
        Seed coatings

The purpose of seed storage is to preserve planting seed from one season  to the next. Further, the objective of seed storage is to maintain seed quality for the longest duration possible. 

Relative Humidity and Temperature Influence Seed Storability

The two most important factors that influence the storability of seed are relative humidity and temperature. The effects of relative humidity and its subsequent effect on seed moisture and the temperature of the storage environment are highly inter- dependent. Harrington (1963) gave two useful thumb rules for relative humidity and temperature in reference to storage life of the seed. These rules are as follows :

Hybrid technology is one of the options to boost crop productivity. Hybrids give more yield than improved varieties under optimum crop production conditions. Further, uniform size, earliness, better adaptability to adverse environments, better transportability due to better keeping quality and resistance to stresses are certain additional advantages of growing hybrids with better monetary return to the growers. Hence in coming years, hybrid technology has to go a long way in our country to meet the future challenges (Kalloo et al., 2000). Thus, it is pertinent to have an overview of the methods of the hybrid seed production technology. Various methods are as follows:

Hybrid Rice

People’s Republic of China announced the successful development and use of F1 rice hybrids in the late 1970s. The first hybrid rice combinations were put into commercial production in China in 1976. Since then commercial exploitation of hybrid rice attracted the attention of researchers around the world. It is accepted that about 20% yield advantage of hybrid rice would be usually required to meet the extra cost of seed production and the future rice demands of a growing world population. Realizing the prospects of hybrid rice, IRRI intensified research on this and organized an ‘International Symposium on Hybrid Rice’ on 6-10 October 1986 at the Hunan Hybrid Rice Research Centre, Changsha, China where Prof. Yuan Longping and his co-workers had made their names in development of hybrid rice. The proceedings were brought out in form of a book entitled ‘Hybrid Rice’ in 1988 by International Rice Research Institute, Philippines. This book documents the information exchanged, and presents for the first time, in English, much of the Chinese literature on hybrid rice.

Floral Biology and Crossing

Pearl millet spikelets bear 2 types of florets, one being bisexual and the other staminate. A singIe pistil with 2 feathery and 3  anthers is enclosed between the lemma and palea. The unisexual staminate florets are sessile and borne below the bisexual flowers. These have 3 anthers and lack the female organs. Pearl millet is a highly protogynous species and thus  highly cross pollinated.
 
The time of panicle exertion from boot leaf varies in inbreds and hybrids. Bhatnagar and Kumar (1960) observed that spike takes 6 days to emerge from the sheath with the maximum emergence on the fourth or fifth day. The stylar branches protrude first from the florets at the tip of the head and gradually proceed downwards. Most of the stylar branches on the earheads emerge by the third day. There exists a great variation in the time taken for the complete emergence of the styles in the hybrids than in the inbred lines (Tewari et al.,1971). Anthesis in pearl millet is completed in two phases. The first involves the bisexual florets while the second involves staminate florets. It has been generally observed that the anthers in the sessile male florets emerge 2-3 days after the anthers have emerged in the bisexual florets. Thus most heads continue to shed pollen for 4-6 days.The largest number of anthers emerged between 8 PM and 2 AM. Environmental factors like temperature and humidity have significant role in the anther emergence.

The information under this section is primarily based on Yordanov (1983). It is almost unanimously accepted that heterosis manifestation in tomato is in the form of the greater vigour, faster growth and development, greater earliness, and productivity, higher resistance to disease and adaptability unfavourable environmental conditions. The first step towards a large scale extension of hybrid tomato cultivars in the practice and proper organization of hybrid seed production took place in Bulgaria. After the second world war tomato heterosis breeding developed quickly in the Netherlands, England France, USA, Japan and other countries. In India, tomato hybrid cultivar on commercial scale was introduced in 1973 by Indo American Hybrid Seed Company.

Hybrid vigour in plants has long been noted, and the first suggestion that it be exploited in vegetables was by Hayes and Jones in 1916. F1 hybrid eggplants were used on commercial scale in Japan before 1925. Demonstration of the value of hybrids in corn in the early 1920’s gave impetus to a few exploratory studies in other crops. Methods of its application to large scale field production of hybrids in vegetable crops were first proposed in 1932 using the self incompatibility system in cabbage and in 1943 using the cytoplasmic genetic male sterility system in onion. Today hybrid varieties are common in several vegetable crops viz., sweet corn, onion, tomato, summer squash, ordinary cabbage, cucumber, watermelon, muskmelon, asparagus, sweet pepper, chilli pepper, spinach, broccoli, Chinese cabbage, eggplant, Brussels sprout, Chinese radish, red beet, celery, bottle gourd, bitter gourd, okra, etc. India figures prominently in commercial exploitation of heterosis in vegetable crops like cabbage, tomato, okra, watermelon, muskmelon, eggplant, bottle gourd, bitter gourd and cucumber.

Squashes and pumpkins are vegetable crops of the genus Cucurbita. They are grown in temperate, subtropical and tropical regions of the world. These crops are common elements in home gardening and subsistence agro-ecosystems in most countries and are produced on commercial scale in some countries. The economic botany, genetics and evolutionary history of Cucurbita has been reviewed by Whitaker and Davis (1962) and Whitaker (1974).

Many developing countries, for example India, China, Thailand, Brazil, Mexico, Egypt and South Africa, utilise the so-called modern biotechnology, based on genetic engineering and genomics. Agricultural biotechnology is the most widespread biotechnology in developing countries, but only a few of them are able to carry out all of the research and development activities leading to the commercialization of genetically modified seeds. These include basic research in molecular and cell biology and genetics, greenhouse and field trials according to  internationally agreed biosafety standards, risk assessment and management, respect for intellectual property rights relating to the transferred genes and to the creation of new crop varieties, production of genetically modified (GM) seeds by private corporations or working in cooperation with the public agricultural research sector, extension activities aiming at delivering the new seeds to the farmers and biovigilance in the fields of GM crops so as to detect any abnormalities or any hazards caused to the environment and to conventional crops (Sasson and Elliot, 2004).

The genetically engineered (GE) seeds developed using recombinant DNA technology often referred to as transgenics or genetically modified organism (GMOs) provide an usually adaptable, scale neutral technology for the farmers. Even small farmers can benefit from such seeds provided the seeds are made available at reasonable cost. While growing such seeds the existing crop management practices are usually sufficient. The transgenics or GMOs are also defined as those organisms with a gene or gene construct of interest that has been introduced by molecular or recombinant DNA techniques. These exclude organisms produced by conventional breeding as well as organism produced by rearrangement of genetic materials by physical methods or by chemical means. Thus, GMO’s carry trangene(s) which when integrated and expressed stably and properly, confer either a new trait to the organism which was hitherto not present (such as insect resistance), or enhance an already existing trait such as nutritional quality (Prasana 2001).

Ministry of Environment & Forests Notification

New Delhi, the 5th December, 1989

Rules for The Manufacture, Use, Import, Export and Storage of Hazardous Micro Organisms Genetically Engineered Organisms or Cells
(To be notified under the EP Act, 1986)
G.S.R. 1037(E) : In exercise of the powers conferred by sections 6, 8 and 25 of the Environment (Protection) Act, 1986 (29 of 1986) and with a view to protecting the environment, nature and health, in connection with the application of gene technology and micro-organisms, the Central Government hereby makes the following rules, namely:-

Cotton is a major crop of India grown in about 9.0 million hectares.This is the largest cotton area in the world. Thus, India ranks Ist among cotton growing countries in the world in terms of area. However, average cotton yields in India have been 320 kg/ha as compared to world cotton yield average of 580 kg/ha. Thus, cotton production in India represents only about 13% of the total world production whereas India accounts for approximately 20% of the world’s total cotton area. Obviously, yield levels in India are low compared to world average. The low yield levels in India are partly due to heavy losses from insect pests, particularly cotton bollworm complex.

BE it enacted by Parliament in the Seventeenth Year of the Republic of India as follows:

Short Title, Extent and Commencement
    1.    (1) This Act may be called the Seeds Act, 1966.
        (2) It extends to the whole of India. 
        (3) It shall come into force on such date as the Central Government may, by   notification in the Official Gazette, appoint, and different dates may be appointed for different provisions of this Act, and for different States or for different areas thereof.

Part I - Preliminary

    1.    Short title. – These rules may be called the Seeds Rules, 1968. 
    2.    Definitions. – In these rules, unless the context otherwise requires,- 
        (a) “Act” means the Seeds Act, 1966 (54 of 1966); 
        (b) “advertisement” means all representations other than those on the label, disseminated in any manner or by any means relating to seed for the purposes of the Act; 
        (c)  “certification sample” means a sample of seed drawn by a certification agency or by a duly authorised representative of a certification agency established under section 8 or recognized under section 18 of the Act; 
        (d) “certification tag” means a tag or label of certain design to be specified by the certification agency and shall constitute the certificate granted by the certification agency; 

S.O.867 (E) – In exercise of the powers conferred by sub-section (1) of section 3 of the Destructive Insects and Pests Act, 1914 (2 of 1914), and in suppression  of Plants, Fruits and Seeds (Regulation of import into India) Order 1984, except as respects things done or omitted to be done before such suppression, the Central Government hereby makes the following order for the purpose of prohibiting and regulating the import into India of agricultural articles mentioned herein, namely: -

Introduction

Indian Agriculture has made enormous strides in the past 50 years, raising foodgrains production from 50 million tonnes to over 200 million tonnes.  In the process, the country has progressed from a situation of food shortages and imports to one of surpluses and exports.  Having achieved food sufficiency, the aim now is to achieve food and nutritional security at the household level.

The increase in agricultural production, however, has brought in its wake, uneven development, across regions, crops, and also across different sections of farming community.  In the decade of the ‘nineties’, a marked slackening in the pace of growth has occurred, pointing to the need for infusing a new vitality in the agricultural sector.

THE SEEDS BILL, 2004
A
BILL
 to provide for regulating the quality of seeds for sale, import and  export and to facilitate production and supply of seeds of quality and for matters connected therewith or incidental thereto.

Intellectual Property Right, IPR is a general term covering patents, registered design, trademarks, copyrights, layout design of integrated circuits, trade secrets, geographical indicators and competitive practices in contractual license.

Chapter I: Preliminary

1. Short title, extent and commencement
 
    (1)    This Act may be called the Patents Act, 1970. 
    (2)    It extends to the whole of India. 
    (3)    It shall come into force on such date as the Central Government may, by notification in the Official Gazette, appoint: 
PROVIDED that different dates may be appointed for different provisions of this Act, and any reference in any such provision to the commencement of this Act shall be construed as a reference to the coming into force of that provision.

BE it enacted by Parliament in the Fifty-sixth Year of the Republic of India as Follows :
 
    1.    (1) This Act may be called the Patents (Amendment) Act, 2005. 
        (2) Sub-clause (ii) of clause (a), and clause (b), of section 37, sections 41,42,47,59 to 63 (both inclusive) and 74 shall come into force on such date as the Central Government may, by notification in the Official Gazette, appoint; and the remaining provisions of this Act shall be deemed to have come into force on the 1st day of January, 2005.

Introduction

In order to provide for the establishment of an effective system for protection of plant varieties, the rights of farmers and plant breeders and to encourage the development of new varieties of plants it has been considered necessary to recognize and protect the rights of the farmers in respect of their contribution made at any time in conserving, improving and making available plant genetic resources for the development of the new plant varieties. Moreover to accelerate agricultural development, it is necessary to protect plant breeders’ rights to stimulate investment for research and development for the development of new plant varieties.

Chapter I
Preliminary 
1. Short Title and Commencement 
    (1)    These rules may be called the Protection of Plant Varieties and Farmers’ Rights Rules, 2003.   
    (2)    They shall come into force on the date on which the Act shall come into force.   

2. Definitions 
        In these rules, unless the context otherwise requires, -   
    (a)    “Act” means the Protection of Plant Varieties and Farmers’ Rights Act, 2001(53 of 2001);

Introduction

On 29 January 2000, the Conference of the Parties to the Convention on Biological Diversity adopted a supplementary agreement to the Convention known as the Cartagena Protocol on Biosafety. The Protocol seeks to protect biological diversity from the potential risks posed by living modified organisms resulting from modern biotechnology. It establishes an advance informed agreement (AIA) procedure for ensuring that countries are provided with the information necessary to make informed decisions before agreeing to the import of such organisms into their territory. The Protocol contains reference to a precautionary approach and reaffirms the precaution language in Principle 15 of the Rio Declaration on Environment and Development. The Protocol also establishes a Biosafety Clearing-House to facilitate the exchange of information on living modified organisms and to assist countries in the implementation of the Protocol.

The Indian agriculture is characterized by agro-ecological diversities in soil, rainfall, temperature and cropping system. Besides favorable solar energy, the country receives about three trillion cubic meter of water from rainfall. Of the total geographical area of 329 million hectares the net sown area has remained at about 140-142 million hectares during the last 40 years. The gross cropped area however has increased to about 200 million hectare in 2011-2012 (Anonymous, 2013). The total operational holding is estimated at 105 million with average size of the holdings of 1.6 ha. The Indian agriculture is not only characterized by small fragmented land, but also hill farming and shifting cultivation are also practiced. Out of an estimated 142 m ha net cultivated area around 40% is irrigated and rest is rain fed. About 65% of the population depend upon agriculture for their livelihood.