eChapters

A hybrid is the first generation progeny of a cross between two genetically different identical inbred lines. The individual lines are known as inbreds.  Ineffective cross-pollination is a major constraint in a commercial production of hybrid seeds in many crop species. In such crops manual pollination is the way to produce hybrid seeds. Eg. Cotton. In the case of rice it is highly self-pollinated crop and cross-pollination is a big problem. The increased vigour, uniformity and yield of F1 hybrid have been exploited in most crops where the pollination system allows for convenient and economic cross hybridization.  This system is called breeding tool in exploiting the hybrid vigour.

The term heterosis from Greek means hetero different, osis-condition was coined by skull (1914).

Heterosis or hybrid vigour, refers to the increase or decrease in vigour of off spring (hybrid) over parents. Usually, theses two terms are used synonymous.   But hybrid vigour refers to increased vigour; Heterosis both increased and decreased vigour.

Superiority of the hybrid as hybrid vigour and the mechanism by which this superiority is developed is heterosis (Rangaswamy, 1998).

Hybrid Seed Production Technology At a Glance

Heterosis

The superiority of F₁ hybrid over both its parents in terms of yield or some other characters or heterosis is increased vigours, growth, yield or function of a hybrid over the parents, resulting from crossing of genetically diverse organisms. The term heterosis was first coined by Shull in 1914. Generally heterosis manifested as an increase in vigour, size, growth, yield or some other characteristics. But in some cases, hybrid may be inferior to the weaker parent this is also regarded as heterosis.

1. TECHNIQUES OF HYBRID SEED PRODUCTION

1.1. Field crops

Table 1: Techniques of hybrid seed production in field crops

INTRODUCTION

Genetic engineering (GE) and genetically modified organisms (GMOs) provide powerful tools for sustainable development in agriculture, healthcare and many other industries. GMOs are those which were genetically engineered in a laboratory by incorporating a small foreign DNA fragment carrying a gene of interest into the native DNA of the organism. The foreign gene is attached with the necessary regulatory elements to help its expression in the new genetic environment. Genetically modified (GM) crops currently account for some 16 percent of the world’s land planted with soybean, maize, cotton and canola. The global demand for food is increasing because of the growing world population and decreasing arable land. At the same time food and agricultural systems have to respond to several changes such as increasing international competition, globalization and rising consumer demands for improved food quality, safety, health enhancement and convenience. Modern biotechnology involving the use of rDNA technology/genetic engineering has emerged as a powerful tool with many potential application for improving the quantity and quality of food supply. Foods derived from genetically modified crops, commonly referred to as genetically modified food and food ingredients have already become available worldwide with aim of enhancing productivity, decreasing the use of certain agricultural chemicals, modifying the inherent properties of crops, improving the nutritional value or even increasing shelf life. Results of DNA modification may not be limited only to the particular characteristics of the replaced gene. It is therefore important to ensure that when these organisms are released into nature they do not harm the environment or human health [EFSA, 2006]. Such concerns have led to broader interests in the theme of risk assessment in the release of GMOs. A cautious approach is necessary to assess environmental risks which may occur due to introduction of recombinant organisms in the natural environment [Johnson et al., 2007].

Vegetable crops, known as protective foods, are important for the healthy diet providing vitamins, minerals, fibre, amino acids and other bioactive compounds. Improvement in vegetable crops is inevitable for better yield, pest or disease resistance, morphological characters, nutritive quality, to adapt with environmental stress, climate change, offseason production, satisfying varying consumer preference etc. Vegetable crops comprise of a large number of species and are rich in diversity. Diverse genetic resources are pre-requisite for any crop improvement programme and vegetable improvement is carried out using exotic introductions, indigenous collection and hybrids/varieties by different breeding systems. Characterisation of genotypes is the description of germplasm giving information on heritable characters so that promising one can be utilised in breeding programme which is the best option for higher yield and other qualities. The morphological, physiological and molecular (biochemical and DNA) traits are called qualitative descriptor and yield, pest/disease resistance, stress tolerance etc are quantitative descriptors that are easily influenced by the environment factors. Apart from the higher production and resistance to biotic and abiotic factors, nutritional traits, flavour, processing qualities that increase the food value is also important in improvement programme of fruits as well as vegetables.

Genetic resources of vegetables available at international and national levels are characterised, evaluated and conserved. With the high diversity of vegetable crops, characterisation and evaluation of genetic resources become a stupendous responsibility requiring extensive infrastructure facilities and varying methods of evaluation (Srivastva, 2012). Genetic resources are characterised on highly heritable traits expressed across the environment. Apart from morphological characterisation, biochemical and molecular characterisation is also conducted that are useful for the identification of biotic and abiotic stress parameters, nutritional and processing quality. Genotype characterisation can be done efficiently using potential of biochemical and molecular markers that help to set up the breeding programme.

The use of seed processing equipments helps in improving the seed quality by inducing uniformity of physical properties of seeds. This help in achieving optimum plant population and desired economic yield. In certain crops like soya bean, standard seed processing may not give desired seed quality because of sensitivity towards moisture. As general practice seed need to be dried to its safe moisture content of 9 before processing. But in case of soya bean lower seed moisture may result higher mechanical damage after standard seed processing. Drier seed are more vulnerable for mechanical damage. In this practical w try to explore the importance of moisture in seed processing and also need of alternative processing equipments like spiral graders to minimize mechanical damage.

1. Seed is the key ingredient in establishment and expansion, diversification and improvement of crops/and crop husbandry.

2. Seed is the most effective and efficient means of crop propagation.

The importance of vegetables in human nutrition is now well known all over the world. Vegetables are rich and comparatively cheaper source of minerals and vitamins. Their consumption in sufficient quantities provides taste and palatability, increases appetite and provides fair amount of fibre. Besides, they provide many specific chemical substances, which are essential for growth, reproduction and for the maintenance of good health and also beneficial in protecting against some degenerative diseases (Prior and Cao, 2000; David, 2005; Elison and Levin, 2006).

Apart from their nutritive value, vegetables probably do more than any other groups of food to add colour, texture and flavour to our daily diet. Majority of the population in India is vegetarian, and thus, vegetables form an essential item of food for both the rich and the poor people. National Nutrition Monitoring Bureau (1997) surveys indicated that the daily intake of most foodstuffs in Indian households, except for cereals and millets, is much below the recommended dietary allowances (RDA). The diets provided negligible amount of protective foods. It was found that consumption of green leafy vegetables (< 10 g) and other vegetables (70-80 g) per day, which are rich source of micronutrients, are woefully inadequate. However, as per the RDA, an adult man should consume 200 g roots and tubers, 100 g green leafy vegetables and 100 g other vegetables (Table 1) in a day. In addition, fresh fruits (100 g) as available in different seasons should be consumed regularly for the prevention of chronic diseases (NIN, 1998).

In vitro cloning is a vegetative propagation performed in the Plant Tissue Culture system. In vitro micropropagation cloning propagation is mostly applied to the vegetatively propagated plants and in particular in ornamental, fruit and in a few orchard crops and in vegetable crops besides in many forest tree species.

Micrografting is a method to produce virus free, viroid free and disease free grafts that are clonally propagated. This method is an aid to mass multiplication. In vitro grafting is applied to difficult to root clones. Micrografting is performed to understand incompatibility prediction between the two grafting partners, virus indexing, deduction of latent virus, safe germplasm exchange and to do grafting functions throughout the year. It is not season specific. Protocols for micrografting are available for almond, pistachia, olive, prunus, grape, mulberry, cashew, citrus, peach, pear, avocado, hazlenut, walnut, chestnut and grape fruit (Hussein et al., 2014).

Incentives are a powerful stimulus to transfer of technology. They can encourage researchers to get their results to market, a new career path for many of them. They can create a culture that attracts and retains entrepreneurial staff, scientists, students and technology transfer professionals (TTPs) that view the university as a career path and a vehicle for making a contribution to society. Working in a pro-entrepreneurship team of colleagues can also lead to getting people to think in terms of making a connection between their work and its application. Incentives can be short-term or long-term in nature, and can be tailored to individual or collective requirements. As it is likely to be challenging for universities to design incentives that cater to every researcher’s or TTP’s desire, they can design incentive programs to cater to various aspects of human. Nature.
12.1 Why incentives matter in this ecosystem
Incentives can be either financial and non-financial. These are needed to ensure that researchers and TTPs remain motivated, aligned with institutional goals, and committed to the long-term process of technology transfer and commercialization. Incentive programs serve several important purposes:
• Motivation: Incentives energize individuals to pursue innovation and commercialization, often over long- and uncertain-time horizons.
• Retention: By offering recognition, rewards, and career advancement opportunities, institutions can retain high-performing researchers and skilled TTPs.
• Alignment: Well-designed incentives ensure that the personal goals of stakeholders align with institutional and societal objectives.

Introduction

The seed industry has witnessed a substantial change in the 20th century, with farmers relying on purchasing seeds from market with better traits rather than relying on seeds from previous season’s harvest. Developments in seed technology have increased the momentum of the industry’s growth, and the introduction of genetically modified crops has further boosted the seed market. The value of global seed market has tripled since 2000 and reached US$ 54 billion in 2014 (Indian Seed Market (pdf), www.icfa.org.in).

Abstract

Insect pests, fungi, bacteria and other injuries are found in all types of environment and affect the growth, production and survival of both plants and animal species in one way or other. Similarly a large number of insects belonging to different orders, families and genera feed on pods and seeds in natural/ during storage and cause injuries. Regeneration failure in several broad leaved and conifers in India and other countries by heavy insect attack in the natural stands at the time of inflorescence and seed formation and on the ground after seed shedding causes heavy loss to number of afforestation programmes. Several methods like chemical, cultural, natural and biological are available for reduction in loss caused to seeds by insects. Generally, earlier the control measure, the smaller the destruction. Forest seeds can be stored safely by taking some precautions before their final storage, viz. inspection of the seeds for their moisture content, visual examination of cleaning method, scanning through soft X-ray technique, thermotherapy or treatments with chemicals, etc. The present chapter has covered review regarding damage caused to seeds by different insect pests and their management options.

Onion production is constrained by insect pests and diseases that damage seedlings, foliage, roots and bulbs and reduce both yield and market quality. Important pests include onion thrips, leaf miners, cutworms, armyworms and onion maggots. Major diseases include damping-off, basal rot, downy mildew, purple blotch, white rot and pink-root rot. Some insects also transmit damaging viral diseases. This chapter presents integrated cultural, biological, botanical, behavioural and chemical strategies for managing these threats. Crop rotation, sanitation, healthy planting material, proper spacing, resistant varieties, traps, barrier crops, beneficial microorganisms, natural enemies and need-based pesticides are discussed as components of sustainable crop protection and resistance management.

India is contributing about 10% of the world’s vegetables, and in terms of production, the country stands second after China. The existing area under vegetable cultivation in India is around 6.89 million hectare with a production of about 96.54 million tonnes. There will be a demand of 151-193 million tonnes of vegetables in India by 2030 (Dhaliwal et al., 2006). There are extensive crop losses in vegetable crops due to increased insect infestations. Since vegetables are grown round the year, there is carry over of insect-pests across the seasons and also from sowing until harvesting. Vegetables also invite more pest problems because of their cultivation under high fertility conditions leading to high plant succulence. High yielding varieties and hybrids are further more prone to the attack of insect-pests. Insect infestation affects the quality and market value of vegetables adversely and it is estimated that 30-40% of the total production is lost due to the attack of pests (Lal et al., 2004). A large number of pesticides are being used repeatedly to manage the insect-pests in India. Indiscriminate use of pesticides has led to many problems like toxic residues in edible parts of the vegetables, adverse effects on non-target organisms and beneficial insects, resurgence of secondary pests and development of resistance in major pests to pesticides and also environmental pollution. Therefore, latest approach has been to minimize the use of highly toxic insecticides by integrating different strategies of pest control like use of biological control agents, pesticides of plant origin, insect resistant varieties and other cultural practices. In this chapter, efforts have been made to highlight the distribution, host range, identifying characters, biology and nature of damage of important insect-pests of vegetables and also the methods of their management crop or pest wise.

Intellectual property: It can be defined as creations of intellectual brain which has value, utility/application in the society and can be traded in commerce for economic benefits.

Significance of Intellectual Property: The significance of protection of Intellectual Property has been realized for wealth and value creation in a knowledge-based economy. The agricultural scientists are comparatively little aware of IPR issues because their primary mandate has always been the free delivery of technology to the end users particularly the farmers. After the implementation of TRIPS Agreement during 1995, the worldwide focus of scientists and planners was shifted on the development of time appropriate technologies, protection of inventions/ technologies and real time technology transfer through licensing for industrial and agricultural growth leading to overall economic development. Under the changing scenario of global trade, where national governments are entering into bilateral agreements for tackling IPR issues to promote trade, agricultural scientists must also look for managing their intellectual properties in tune with the existing IP legislation of the country.

Previous Year Questions

1. Intellectual property rights (IPR) are the rights given to persons over the creations of their minds: inventions, literary and artistic works, and symbols, names and images used in commerce. They usually give the creator an exclusive right over the use of his/her creation for a certain period of time?

2. Plant varietal protection?

• The importance of intellectual property was first recognized in the Paris Convention for the Protection of Industrial Property (1883) and the Berne Convention for the Protection of Literary and Artistic Works (1886). Both treaties are administered by the World Intellectual Property Organization (WIPO).

Abstract

Intellectual property has increasingly assumed a vital role that we are witnessing today with the rapid pace of technological, scientific and medical innovation. Moreover, changes in the global economic environment have influenced the development of business models where intellectual property is a central element establishing value and potential growth. In India several new legislations for the protection of intellectual property rights (IPRs) have been passed to meet the international obligations under the WTO Agreement on Trade-Related Aspects of Intellectual Property Rights (TRIPS). Forest seed of economic importance and the non-timber forest products (NTFPs) play a very important role in the country’s economy.

12.1. Common Term Used • GATT (General Agreements on Tariffs & Trade) • WTO (World Trade Organization) • TRIPS (Trade Related Intellectual Property Right)/IPR/Pateni/Copy right/ Trademark /G.l./Sui generis system etc. • UPOV/PVP/PBR/Farmer’s Right • CBD (Convention on Biodiversity) What is GATT? • Established in 1948 (after 2nd World War) • For the smooth conduct of trade by 22 countries (India was the party) • Several negotiations • Usually trades related to industries • Eight round at Uruguay in 1986 • First time issues on agricultural trade, textile, investment, IPR were discussed • (moral victory for the developing world especially county like IndiaWhat is WTO? • WTO is the only international organization dealing with global rule of trade (through revised GATT agreement; also called as GATT Rule Book) • On 15th April 1994 (1986-194) in Mexico, 125 countries signed the agreement • On 1 January 1995, came in force as WTO • HQ: Geneva; —140 members; wwwAvto.org Function of WTO • Administrating trade agreements. • Providing forum for trade negotiations. / • Settling trade disputes (DSC). • Reviewing national trade policies. • Technical assistance (training). • Cooperating with other institions organizations

I. FILL UPS

1. ISTA was founded in _____.
2. ISTA secretariat is located at _____.
3. _____ was founded with the aim to develop and publish standard procedures in the field of seed testing.
4. _____ is one of the leading international journals featuring papers and articles on seed quality and physiology published by ISTA.
5. The technical committees are made up of _____ number of members.

Founded in 1924, with the aim to develop and publish standard procedures in the field of seed testing, with member laboratories in over 70 countries world wide. ISTA membership is truly a global network. ISTA secretariat is located at Zurich, Switzerland.

1. VISION AND MISSION

ISTA members work together to achieve their vision of ‘Uniformity in seed quality evaluation worldwide’. The association produces Internationally agreed rules for seed sampling and testing, accredits laboratories, promotes research, provides International seed analysis certificates and training and disseminates knowledge in Seed Science and Technology. This facilitates seed trading Nationally and Internationally and also contributes to food security.

Seed

• In broad sense, seed is a material which is used for planting or regeneration purpose. However, scientifically, seed is a fertilized matured ovule together covered with seed coat is called seed or it is a propagating material i.e., part of agriculture, sericulture, silviculture and horticultural plants used for sowing or planting purpose.
• Seed is a mature integumented megasporangium or mature ovule consisting of embryonic plants together with store food material covered by a protective coat.
• Seeds are fertilised, mature ovules, the result of sexual reproduction in plants. Not all plants produce seed (some produce spores or reproduce vegetatively) but most of the higher plants produce seed.
• It is the product of the ripened ovule of gymnosperm and angiosperm plants which occurs after fertilization and some growth within the mother plant.
• The formation of the seed completes the process of reproduction in plants (started with the development of flowers and pollination), with the embryo developed from the zygote and the seed coat from the integuments of the ovule.

India is famous as the ‘Land of Spices’ world over. Spices are nature’s gift to humankind for flavoring our food. They are also used as preservative and in pharmaceuticals. India is the largest producer, consumer and exporter of seed spices and their value added products. About 63 different spice crops are cultivated in the country. Among them, seed spices are annual herbs, whose dried seeds or fruits are used as spices. These crops share 21.87% in terms of quantity and 7.42 % in terms of value to total spices export in the country. The country grows a wide variety of seed spices like coriander, cumin, fenugreek and fennel as major crop, while, dill, nigella, ajwain, anise, celery, caraway, parsley, black cumin and few other are categories as the minor seed spices.

Seed technology is defined as “that discipline of study having to do with seed production, maintenance quality and preservation (Cowan, 1973).

Feistritzer (1975) has defined seed technology as the method through which the genetic and physical characteristic of seeds could be improved. It involves such activities as variety development, evaluation and release, seed production, seed processing, seed storage, seed testing, seed certification, seed quality control and seed marketing etc.

So seed technology in widest sense, includes development of superior crop plant varieties, their evaluation and release, seed production, seed processing, seed storage, seed testing, seed certification, seed quality control, seed marketing, seed distribution and the related research on these aspects,

The major goal of seed technology is to increase agricultural production through the spread of good quality seeds of high yielding varieties. To achieve this goal, the quality seeds must be rapidly multiplied and supplied to the farmers at proper time with the reasonable price.

Horticultural crops include the fruit crops, vegetables, spices, plantation crops, medicinal plants, aromatic plants, commercial flower crops and ornamental plants.

Knowledge on the methods by which these reproduce is of primary importance from the standpoint of plant breeding. Besides, their annual or perennial nature also decides the methods of breeding to be adopted to get desired improvement.

Two divisions of methods of reproduction commonly recognized are:

1. Asexual i.e. vegetative parts of the plants are utilized to produce new individuals.

2. Sexual i.e. gametic fusion, the resultant zygote develops into seed which is utilized to produce new individual.

This group can be further placed in several sub divisions according to the mode of pollination. They are

a. Naturally self pollinated crop - (e.g. tomato, pepper, brinjal) wherein cross pollination occurs less than 4 % only.

b. Often cross pollinated crop- (e.g. chillies, bhendi) wherein though self pollination is more frequent, cross- pollination may occur so frequently that some methods of preventing cross pollination between varieties and strains of different genotypic constitution must be followed throughout the breeding programme.
Common breeding methods can be applied to the above two groups, however, the parents chosen for breeding under often cross pollinated crop need to be selfed for few generations to select desirable, homozygous lines.

Plant breeding is described as an art and science of changing the genetic architecture of plants with a goal towards betterment of mankind. Apart from this generalized concept, plant breeding is accomplished through inter-disciplinary mode assorted from simple selection in a variable plant-population having some desirable traits to the application of biotechnology and more. Worldwide, cultivars of different crops are routinely manufactured by Multinational and National level Industries, Government Institutions, Universities, Crop specific Organizations, professional plant breeders and even by the individuals such as gardeners and farmers.

Plant breeding is basically operated by the principles of Genetics where selections are practiced from a variable population and the selected variation needs to be inherited. Three categorized broad goals of plant breeding are 1) high yield 2) uplift in quality and 3) resistance against biotic and abiotic stress.

Spice crops are known to add nutritive value and increase the palatability as well as quality of food. Therapeutic uses of spices are also well recognised. The spice industry in India and trade has shown stunning progress over the last 5 years with 120% increase in revenue which is very close to touch $ 3 billion. East Asia is the major market for spices, followed by America and the European Union and the world spice trade has almost touched $ 17 billion by 2020. So, increased production is of paramount importance across the world and the potential is increasing. On the other hand, quality improvement is one of the primary objectives of spice crop breeding apart from achieving high yield. Cultivar and species diversity are the principal components of diversity of spices (Sasikumar et al. 1999; Krishnamoorthy et al., 1997; Prasath and Venugopal, 2004). A good amount of variability is found in many important Indian spices like black pepper, cardamom, cinnamon, curry leaf, ginger, garcinia, tamarind and turmeric. A number of cultivars have been released followed by intra-germplasm evaluation and selection in spices. Contribution of recombination breeding is less in spice crops with regard to other field crops and a number of valuable varieties have been bred by clonal and seedling selection (Peter, 2008). Deployment of high yielding, water use efficient, climate resilient genotypes and technologies are also necessary.

India had fourfold increase in population from 0.3 billion to 1.34 billion and registered a fivefold increase in food grain production from 50 million tons to
285 million tons in 2018 (Paroda, 2020). 

Seed is the primary and most critical input in any crop production programme. A quality seed alone contributes around 15-20% towards total production. The efficacy of all other inputs to increase production will be in vain if the quality of the seed is poor. Hence, use of quality seed is crucial as it appreciably increase the productivity of the crop without depending much on other inputs. This adds to the old saying in Manu Smriti good seed in good field yield abundantly .A quality seed can be defined as genetically and physically pure seeds with high germination percentage, free from seed borne pathogens and safe moisture content. This guarantees good germination, vigorous growth, and good establishment of crop in the field.

History of Seed Industry in India

Farmers dependent mostly on traditional indigenous varieties earlier and its seed requirements were met through their own farm saved seeds or through local sources. But the quality of these seed stocks was not assured, and this resulted in drastic reduction in production as well as productivity of the crops. As a result of various crop improvement programmes, improved varieties possessing high yield potential along with additional characters of biotic and abiotic resistance came into the scenario. But the availability of the seeds of these improved varieties among the farmers remained as a problem and it limited the cultivation of these varieties. This led to the development of a well-planned systemized seed production system. Government of India had framed and brought out different legislations for regulating systemized seed production. These laws are framed to make available quality seeds and planting materials to a common farmer and equip him to approach authority for justice. Seed legislations were initiated in the country by establishment of National Seed Corporation (NSC) during 1963 under Ministry of Agriculture and the seed industry was restructured through the nationals seed projects phase I (1977-78), Phase II (1978-79) and Phase III (1990-1991). These initiatives strengthened the seed industry through formulation of seed regulations, establishment of state seed corporations and seed certification agencies thereby assured the supply of quality seeds to farmers

In today’s innovation driven economies, turning a great idea or new technology into something investors want to fund takes careful planning. This process is called investor readiness. which means making sure the idea works, has a market, and is presented in a way that makes investors feel confident. Therefore, Investor readiness means the preparedness of an innovation to attract and secure investment from potential investors. It has all the essential parameters in place that an investor would evaluate before deciding to invest. For inventors, this means showcasing innovation’s business potential, potential for growth, and the capability to provide a return on investment. Understanding investor readiness is important because it directly influences scalability and growth of invention. Even the most innovative ideas can struggle to find the financial benefits without showcasing business potential.
Why it is important to discuss investor readiness
Investor readiness is the state in which a technology, its value proposition, and its founding team are significantly prepared to engage with securing funding from potential investors. Without investor readiness, even high-potential innovations may fail to reach the market due to gaps in business clarity, legal assurance, or team maturity. TTOs play an important role in this process by acting as intermediaries between inventor and investors. Modern day TTOs are more inclined to prepare technologies and associated teams to attract investment. This expanded mandate of TTOs and brought in investor readiness. It requires a wellstructured approach focused on aligning academic innovations with investor expectations. TTOs help in creating this readiness by guiding researchers through commercial pathways, derisking technologies, and translating technical advancements into investment suitable.

1. VARIETAL SEED PRODUCTION

3 m : Rice, soybean

5 m : Blackgram, greengram, cowpea, field lab lab lab lab

5-10 m : Groundnut

25 m : Tomato

Introduction:Jamun (Syzygium cumini) belonging to the family Myrtaceae is a popular indigenous fruits Of India. It is also known as black plum, Indian black cherry, Ram jamun etc. in different parts of India. The tree is tall and handsome, evergreen, generally grown for shade and windbreak on roads and avenues. In India, the maximum number of jamun trees are found scattered throughout the tropical and subtropical regions. It also occurs in the lower range of the Himalayas up to an elevation of 1,300 meters and in the Kumaon hills up to 1,600 meters. It is widely grown in the larger parts of India from the IndoGangetic plains in the North to Tamil Nadu in the South.

Soil:The jamun tree can be grown on a wide range of soils. However, for high yield potential and good plant growth, deep loam and a welldrainedsoil are needed. Jamun can grow well under salinity and waterlogged conditions too.

Climate: Jamun prefers to grow under tropical and subtropical climate. It is also found growing in lower ranges of the Himalayas up to an altitude of 1300 meters. The jamun requires dry weather at the time off towering and fruit setting.

Varieties: The common variety grown under North Indian conditions is “Ram Jarnun”. It produces big sized, oblong fruits, deep purple or bluish-black in color at full ripe stage. The pulp of the ripe fruit is purple pink and the fruit is juicy and sweet. The stone is small in size. The variety ripens in the month of June- July and it is very common both in rural as well as in urban markets.

I. FILL UPS

1. The isolation distance is _____ for foundation seed production of jute.
2. The maximum permitted limit of off types for foundation seed is _____.
3. The water requirement of jute crop is _____.
4. Seed rate recommended for olitorius type of jute is _____.
5. Seed rate recommended for capsularis type of jute is _____.

Lablab purpureus usually knowna s Dolichus bean, Hyacinth bean or Field bean belonging to the family fabaceae, one of the most ancient crops among cultivated plants. It is a bushy, semi-erect, perennial herb, showing no tendency to climb. It is mainly cultivated either as a pure crop or mixed with finger millet, groundnut, castor, corn, bajra or sorghum in Asia and Africa. It is a multipurpose crop grown for pulse, vegetable and forage. The crop is grown for its green pods, while dry seeds are used in various vegetable food preparations.

Season:Seed is very sensitive to weather. A grain crop can be sold for a lower price even if it damaged by rain. But a seed crop, if affected will lead to low seed quality. Hence selecting the right season is necessary. Generally, the seed should mature in cool dry climate. Seasons should be selected with this idea in mind. In Tamil Nadu the best seed crops are grown during March--April and September - October as the seeds mature during the cool months of January - February.

Leafy vegetables are rich source of vitamins like A, C and minerals like calcium and iron. Most of the leafy vegetables are quick growing types and shows good response to manures and fertilizers. Their easiness in cultivation and adaptation to diverse agroclimatic conditions makes it suitable for various cropping systems. Some of them are annual in nature while some others are perennial. Leaves as well as tender stems are uses as vegetable in the cooked form. They are reported to have antinutritional factors, oxalates and nitrates compared to other vegetables. The annual leafy vegetables are widely cultivating in our country and among them, amaranth, palak, spinach and fenugreek are the major ones. These crops are short duration in nature, completes their entire life cycle by 80-90 days and produce good yield and brings monetary returns to farmers in short time.

Amaranth (Amaranth sp.)

It is herbaceous fast growing annual leafy vegetable grown for leaves as well as grains. Vegetable amaranth is reported to be equal or superior in taste to that of spinach. Leaves and succulent stem are good source of vitamin A, vitamin C, calcium and iron and are used as vegetable. High oxalate and nitrate content are reported in some species of amaranth.

The major vegetable species of amaranth cultivating in India is A. ticolor. It is suggested to be originated in South or South east Asia particularly in India. Another vegetable type, A. dubius shows diversity in Central America, Indonesia, Asia and Africa. A. lividus is the popular vegetable type in South and Central Europe. Other leafy species are A. viridis, A. tristis and A. spinosus. A. cruentus, A. hypochondriacus and A. caudatus are cultivating for grain purpose. Taxonomists suggested two sections in Amaranthus namely blitopsis which include leafy types and amaranthus which constitutes grain types.

8.1 Key legal statutes and regulatory foundations
Various policy measures were also undertaken by the Government of India in due course of time. The Government of India enacted four science policies after gaining independence, i.e. Scientific Policy Resolution (1958), Technology Policy Statement (1983), Science and Technology Policy (2003) and Science Technology and Innovation Policy (2013). The 1983 Technology Policy Statement possessed a simple goal of creating indigenous technology and boosting efficient absorption and adaptation of imported technologies suited to the nation’s priorities and. The Technology Policy Statement of 1983 was followed up through the establishment of the Technology Information Forecasting and Assessment Council (TIFAC), an autonomous organization entirely owned by the Government of India under the Department of Science and Technology during 1988. TIFAC also offers some funding and supports development and commercialization of technologies through the home-grown technology scheme, among its other operations. The Technology Development Board Act (1995) was also a significant policy move of the government in the same direction. Also in recent times, the Government of India also unveiled its own National IPR Policy 2016 with the motto cum slogan “Creative India, Innovative India”. In addition, the policy is aligned to a number of other schemes of the Indian Government like “Make in India”, “Atal Innovation Mission”, “Start-Up India” and “Stand-Up India”, all aimed at encouraging creativity, innovation and entrepreneurship in the nation.

Leguminous vegetables include wide range of vegetables which can grow in climatic conditions extending from warm to cool weather. They are rich in protein, essential amino acids and fibre hence, recognized as an important component in ensuring nutritional security. They are growing for its pods for vegetable purpose, seeds as pulse or for dual purpose. They are excellent green manures that fix atmospheric nitrogen into soil and cultivation of leguminous vegetable crops is recommended as an integral component in sustainable soil fertility management. Leguminous vegetables include tropical types namely cowpea, hyacinth bean, winged bean, jack bean, sword bean while, cool season legumes include French bean, garden peas, lima bean and broad bean. They are mostly self-pollinated owing to its cleistogamous flowers. Pole or bush types are available in these crops and all are seed propagated. Among the different leguminous crops, French bean, garden peas and cowpea are under commercial cultivation while other leguminous vegetables are region specific in cultivation.

Cowpea (Vigna unguiculata)

Cowpea is a warm season legume grown both as vegetable crop as well as pulse crop. Tender pods are used as vegetable and dry beans are used as pulse. Cowpea is mainly growing for its seeds as pulse than as vegetable crop. The vegetable types bear stringless pods of more than 30 cm long, fleshy pericarp and higher monosaccharide to polysaccharide ratio. Cowpea is believed to be originated and domesticated in West or Central Africa especially Nigeria where diversity was noticed abundant. The cultivated cowpea, Vigna unguiculata is divided into different cultivar groups viz., pulse type as Vigna unguiculata var. unguiculata, Vigna unguiculata var. cylindrica or var. biflora as dual purpose type for fodder and dry seeds and vegetable type as Vigna unguiculata var. sesquipedalis (yardlong bean/string bean/asparagus bean). The cultivar groups, biflora and sesquipedalis are suggested to be originated from ssp. unguiculata in India and South East Asia respectively.

Conservation of released varieties requires a sound scientific and technical basis. There are two main strategies for conserving agricultural biodiversity, namely ex-situ and in-situ conservation, both of which are equally important. In-situ conservation refers to the maintenance of a species in its natural habitat. Exsitu conservation is the conservation of components of biodiversity outside their natural habitats. It is conserved in the form of seeds (seed gene bank), live plants (field gene bank), tissues (tissue gene bank), pollens (pollen gene bank) and DNA materials (DNA bank). 

I. FILL UPS

1. The initial handful of seeds obtained from selected individual plants of a particular variety is called as _____.
2. The panicles collected should be stored in a airtight drum under _____.
3. _____ is the original purified seed stock of a new variety in the hands of a plant breeder.
4. The seeds of a notified variety collected from the evolving institute with all the passport information is considered as _____.
5. Nucleus seed is produced by _____.

1. BASIC NUCLEUS SEED

The seed of the notified variety collected from the evolving institute with all the passport information is considered as basic nucleus seed. This seed is sown in prepared healthy field with more row to row and plant to plant distance than the normal recommendation at required isolation distance. Prescribed dose of fertilizer, irrigation and required plant protection measures are provided.

Off types and diseases plants are rogued out at seedling, before flowering, flowering and at physiological maturity stages. Plants are marked with contrast color thread and observed regularly. Marked plants are harvested separately and its produce is used as source seed for production of nucleus seed for next year. Produce of unmarked plants are used as nucleus seed for production of breeders seed. Harvesting threshing and drying are done without reducing physical and genetic purity. The discolored and diseased seeds are removed. The pure seed obtained is the nucleus seed for seed multiplication chain

Deterioration of Crop varieties in their genetic endowments/qualities has been explained by Kadam (1942). Publication on maintenance and management of breeder seed production (Laverack 1991), and maintennce of self pollinated crop varieies (De Hanns 1953; Parlevliet 2007) explain in detail various aspects in maintenance of the seed quality.

I. FILL UPS

1. _____ crop is known as the Queen of cereals.
2. Maize is a _____ pollinated crop.
3. Male inflorescence of maize is known as_____.
4. Female inflorescence of maize is known as_____.
5. Pollen viability in maize crop is_____.
6. Silk receptivity in maize crop is _____.
7. Isolation distance for maize certified seed production is_____.

Vegetables being good source of carbohydrates, proteins, minerals, vitamins and dietary fibers constitute important component of human diet. These are the cheapest source of natural protective food and increase the palatability. India is the second largest producer of vegetables next to China. Diseases are inherent component of agro-ecosystem, which must be dealt with continuous and knowledgeable basis. Diseases in the standing crop from the seedling stage until harvest and spoilage caused by microorganisms during transit, storage and marketing are major constraints in increasing production and availability of vegetables. At different stages of vegetable production, disease management requires several approaches, and it is more successful, if it is integrated into crop production system. Since vegetables are mostly grown year after year in the same fields especially near towns and cities, therefore, concerted efforts are required to manage the diseases. More than 300 diseases have been reported to occur on vegetable crops and it is beyond the scope of this chapter to discuss all the diseases. However, brief description of etiology, diagnostic symptoms and management practices being adopted are presented here for the economically important fungal and bacterial diseases of vegetable crops.

The management of storage in open and closed storage is critical before start of any seed processing activities. When seed lots reach the shop floor, they need to be stored properly. Unlike commercial produce seed lots cannot be stored in bulk. These need to be stacked lot wise and there is problem of “stackburn”-resulting from successive layers in building a bag stack. In crops like soyabean-”stackburn” can have detrimental effect on seed quality. The quality parameters like germination and viability can get lost instantly if not properly stacked on the pallets.

Soil fertility and crop production can be maintained only by efficient and judicious management of nutrients addition to the soil from external sources. Of the two sources most widely used all over the world, one is organic in nature- the organic manures, simply called manures, and the other comprises the synthetic or naturally occurring chemical fertilizers, simply called fertilizers. A brief account of manures is described hereunder:

The word manure came from Middle English manuren meaning to cultivate land, and initially, from French word manoeuvre meaning hand work alluding to the work which involved manuring land. The term manure originally meant that which was worked by hand (Fr. manoeuvre), but gradually, came to apply to any process by which the soil peroperties could be improved. Prominent among such processes was that of directly applying manure to the land, manure in this sense being what is now called farmyard manure or dung, the excreta of farm animals mixed with straw or other litter. Ronald Fisher seems to have used the word manure systematically for what we would call fertilizer today.

Uses of Manure

Manure has been used for centuries as a fertilizer for farming since it is rich in nitrogen and other nutrients, which facilitate growth of the plants. Liquid manure from pig or hog operations is usually knifed (injected) directly into the soil to reduce the unpleasant odours. Manure prepared from hogs and cattle is spread on fields using a manure spreader. Due to the relatively lower level of proteins in grasses, which herbivores eat, cattle manure has a milder smell than the dung of carnivores, e.g., elephant dung is practically odourless. However, due to the quantity of manure applied to fields, odour can be a problem in some agricultural regions. Poultry droppings are harmful to plants when fresh but after a period of composting are valuable fertilizers.

The dried manure of animals has been used as fuel throughout history. Dried manure (usually known as dung) of cow was and still is an important fuel source in countries such as India, while camel dung may be used in treeless regions such as deserts.

In India marigold is one of the most commonly grown flowers and used extensively on religious and social functions in different forms. Because of their ease in cultivation, wide adaptability to varying soil and climatic conditions, long duration of flowering and attractively coloured flowers of excellent keeping quality, the marigolds have become one of the most popular flowers in our country. Flowers are sold in the market as loose or as garlands. Due to its variable height and colour marigold is especially use for decoration and included in landscape plans.

Strategic partnerships and productive outreach play a crucial role for new technologies to successfully reach the market, drive growth, and strengthen a country’s global competitiveness, Outreach programs have various benefits, ranging from technology transfer awareness, communication of stakeholders, industry, government, to academy partnership promotions. These efforts help in establishing connections, communicating opportunities, and encouraging active engagement from key stakeholders. Outreach activities can be performed under two broad categories:
1. Written communication includes all communication which can be viewed, shared, or made accessible for a set of people in a passive manner. This includes reports, newsletters, guidance, and online content which provide insights of worth for stakeholders.
2. Human outreach includes all direct communication like c face-to-face or verbal form communication it included conferences, conventions, workshops, seminars and personal communication with industry leaders.
The type of outreach creates stronger, more personal connections. An effective outreach strategy usually combines both human and written outreach efforts. By following this strategy TTOs can expand and strengthen partnerships, and make it easier for research-led innovations to get transition from lab to market more effectively. This chapter explores key outreach models, strategic networking approaches, and proven practices for building impactful partnerships in technology transfer.

The moisture content is the amount of water in the seed and is usually expressed as a percentage. It can he expressed on either a wet weight basis (where it is expressed as a percentage of the fresh weight of the seed) or on a dry weight basis (where it is expressed as a percentage of the dry weight of the seed). The seed moisture content is the most vital parameter, which influence the seed quality and storage life of the seed. Seed moisture content is closely associated with several aspects of physiological seed quality. For example, it is related to seed maturity, optimum harvest time, mechanical damage, economics of artificial seed drying, seed longevity and insect & pathogen infestation.

1. The first Director of IARI was ?????.
   1. M. S. Randhawa
   2. B. P. Pal
   3. M. S. Swaminathan
   4. G. Kalloo
2. In vegetable blanching is done for?????.
   1. Removal of microorganism
   2. To activate the enzymes
   3. To retention colour
   4. All of the above
3. Viviparous refers to?????.
   1. Germination of seed on mother plant
   2. Germination of seed in the field
   3. Germination of the seed on monoecious plant
   4. Germination of seed on any place
4. Sourness in radish is due to ?????.
   1. Isosinate
   2. Isothiocinate
   3. Anthocyanin
   4. All of the above

I. FILL UPS

1. The beheaded portion of cabbage is called _____.
2. _____ method is followed for cauliflower seed production in India.
3. In carrot, _____ method is followed among seed companies for large commercial seed production.
4. Knob to seed method is followed in _____.
5. Bulb to seed method is followed in _____.