eBook Chapters

ABSTRACT

ICT has seen its vertical as well as horizontal growth in various domains, be it rural livelihood sectors and governance. India is well poised to take the benefits of ICT to the common man. There has been consistent progress in addressing the challenges that exists - be it infrastructure or social barriers. The India Development Gateway (InDG) initiative is in response to limitations that exist at the social front. InDG facilitates rural empowerment through provision of relevant information products and services that respond to the real and strategic needs of the rural communities, in their local languages.

There is sufficient support to view that foreign trade plays has a vital role in the economic development of a country. Its contribution to the growth of National Income can be quite substantial. If a country is pulled into world trade, then the country can and should maximize its real income by specializing along lines of comparative advantage. The volume and composition of foreign trade have a profound influence on the character and the extent of development of a country. From the point of view of economic development, both import and export are important. It is through import that a country could obtain plant, machinery and equipment, components, raw materials, technical know-how, etc., which are indispensable for accelerating economic development.

India’s share in world exports was 0.54 per cent in 1970s, which has risen to 0.81 per cent in 2000s and exports has grown 700 times and imports more than thousand times during the course of economic development. It is clearly observed from Table 16.1 that import is greater than export. The rate of growth of export between 2001-02 and 2007-08 was 90 per cent, whereas import growth rate was 150 per cent in the corresponding period.

Abstract

India’s climate policy and its stand in the United Nations Framework Convention on Climate Change (UNFCCC) have developed through a complex and contradictory interactions between global pressures to take actions in the field of climate change, India’s foreign policy orientation, its environmental practices and various other national factors. India has been under growing pressure from the major developed economies and also from many small developing countries to play a leading role in mitigating climate change in keeping with its economic and political importance. National factors, including the very important consideration of maintaining rapid GDP growth, favours a conservative approach, with emphasis on expanding India’s share of global climate space. India ranks high on global climate change vulnerability because of its 7,500 Kilometre-long coastline, high dependence of its agriculture on monsoon, decreasing availability of freshwater and over-exploitation of ground water resources, presence of large population in cyclone-prone areas, low lying river deltas and fragile ecosystems like partially submerged lands, and not least, because of melting of the Himalayan glaciers, which feed close to 70 percent of India’s river waters. In 2008, India formulated a National Action Plan on Climate Change (NAPCC) under international obligations. India’s climate policy has always been the preserve of a small group of individuals protected from societal influence and unaccountable to the public at large. Indian policy makers claim to speak on behalf of those very people who have been consciously excluded from democratic and participatory decision-making. The industrialised economies reluctant to own up to their climate obligation only breeds more cynicism within the Indian society. Whatever the outcome of international conventions on climate change or any kind of global negotiations in the immediate future, India cannot afford to give up on the serious issue of climate change.

Keywords: Climate change, Economics, Policy, Agriculture

Trees rise towards the sky, beautiful symbol of Nature’s aspiration for light. Sri Aurobindo writes “When the sun sets and all become silent, sit down under a tree for a moment and put yourself into communication with Nature: you will feel rising from the earth, from below roots of the trees and mounting upwards and coursing through their fibres upto the highest outstretching branches, the aspiration of an intense love and longing, - a longing for something that brings light and gives happiness. There is a yearning so pure and intense that if you can feel the movement in the trees, your own being too will go up in an ardent prayer for the peace and light and love that are unmanifested here”.

As a developing country, India does not have any emission reduction target, but it is able to sell CERs pursuant to the CDM, to large emitters covered by the EU ETS, countries that have emission reduction targets under the Kyoto Protocol, or any other entity that wishes to purchase such CERs for compliance purposes. It can also supply ERs and VERs for the growing voluntary markets.

4.1 Status and Trends

India’s participation in the carbon markets has contributed to the recognition that it is a useful tool in attracting climate friendly investments. India was an early player in the market, and it used the hosting of the Eighth Conference of Parties to the UNFCCC in Delhi in October 2002 to sensitize the business community about the opportunity provided by carbon finance and the modalities of the emerging CDM. In 2004, the growth in the Indian carbon market was fostered by a healthy number of indigenous management and technical consultants, which began to offer services to potential sellers of emission reductions, and the response from primarily the private sector to capacity building initiatives concerning the nascent market. In its capacity as the Designated National Authority (DNA) for the CDM, the Ministry of Environment and Forests (MOEF) also had the foresight to develop simple and transparent rules, whereby project developers can obtain a Letter of Approval (LOA) theoretically within sixty days, which is a key step required for project registration. By the end of 2004, India was the market leader in the forward sale of emission reductions, with 50 % of the supply market. Early successes included the registration of two projects which consisted of the thermal oxidation of HFC-23 generated as a buy-product during the manufacturing of the refrigerant HCFC-22, but also a number of small scale co-generation projects using bagasse, rice husk and mustard crop residues as a source of biomass, and small scale hydropower projects.

1. Country Background

India is one of the oldest civilisations in the world with rich cultural heritage. India has become self-sufficient in agricultural production, and is now the tenth industrialised country in the world. It covers an area of 32,87,263 sq km. Lying entirely in the northern hemisphere, the mainland extends between latitudes 8°4' and 37°6' north, longitudes 68°7' and 97°25' east, and measures about 3,214 km from north to south between the extreme latitudes and about 2,933 km from east to west between the extreme longitudes. 
Agriculture is the mainstay of the Indian economy, as it constitutes the backbone of the rural livelihood security system. It is the core of planned economic development in India, as the trickle-down effect of agriculture is significant in reducing poverty and regional inequality in the country. Growth in agriculture has a maximum cascading impact on other sectors, leading to the spread of benefits over the entire economy and the largest segment of population. 141 million hectares is the net sown area, while 190 million hectares is the gross cropped area. The net irrigated area is 57 million hectares with a cropping intensity of 134 per cent. Eighty-two per cent of farmers have small and marginal land holdings.

1. INTRODUCTION

1.1. National Agriculture Scenario

Agriculture is the most important sector of Indian Economy, contributes 23 per cent of national GDP, accounts for 11 per cent of exports, and 50 per cent of billion depends on it. Interestingly India feeds 16 per cent of population with 2.4 per cent of global land.

In the last five decades, there has been a steady and spectacular transformation of Indian agriculture from the food deficit to food sufficient status. Diffusion and adoption of modern technologies, high yielding varieties, dedicated efforts of farmers, extension personnel and scientists and also programmatic support of central and state governments have all contributed significantly from 50 million tonnes in 1950-51 to land mark achievement of 230.67 million tonnes of food production in 2008-09.

Morphological characteristics

A. balfourii Stapf is an erect, glabrous shrub that grows upto 1.5 m in height. The plant has branched stems which are dull purplish brown in colur that reach about 1.2 m high. Lower leaves are long stalked while the upper ones are short. The plant has long heavy tubers with 7 to 12 cm in length. Roots are tuberous and fusiform.

Floral characteristics

The plants bears about 29 cm long inflorescence with numerous flowered racemes along with the yellow tomentum. The flowers are hermaphrodite and the mode of pollination is by bees. Sepals are helmet shaped, pubescent and blue in colur. The upper two petals are hooded and enveloped in the helmet, and the below two are glabrous. The stamens are many, the filaments are hispidulous, and the pollen is three-colpate. Carpals are yellowish, 3 to 5 in number and tomentose. Follicles range in size from 2 to 5, are sessile, and silky pubescent. Along the raphe, the seeds have a broad winged appearance. The months of September to November are ideal for flowering and fruiting in A. balfourii.

Introduction

Today, concerns regarding environmental safety and sustainability of land productivity are increasing amongst the scientists, administrators and environmentalists. It is doubted whether the strategy adopted during the so-called green revolution era could be continued any longer under the challenging conditions of this new century. Already, a section of people in the world is questioning the propriety of conventional agriculture, and a few of them are advocating alternative practices that are perceived to lay foundation for sustained production. On these lines, systems like alternative agriculture, natural farming and organic farming were proposed at various conventions. However, the scientists harping on the success of green revolution continue to doubt whether such a system can really be functional, productive and meet the growing demands for agricultural products in this e-age. These emphasize the need to develop new strategy of living with the nature and nurturing it for sustainable production

Speculation on Indian agriculture

The spectacular observations made in the Economic Survey of 2015-16 that “Indian agriculture, is in a way, a victim of its own accomplished success and in abnormality the green revolution”, shows the absoluteness of the agricultural planning at present and the calamity that has been wreaked by the green revolution. The green revolution, which is generally characterized by the addition of high-yielding varieties of seeds and fertilizers uses, assuredly added the higher quantity of crop coverage considerably. There has been acceptance of destroying ecological balance furnishings in the composition in felling down water table, discharge of greenhouse gases, and the contamination of ground water. Needless to say, the agricultural area is in an accompaniment of distress, which is acutely affecting peasants and bordering farmers, and burning action interventions are adapted to assure their interests. The government has responded to constitute basic panel, which will acclaim organization to increase the assets of farmers by 2022. This might be a frankly insistent target, if not wish to make addition of stagnated agronomical advance in open face to be made. However, there are flourishing hurdles that to be accepted if to wish accomplishment of this objective.

Introduction

Over the past decades, agriculture sector played a crucial role in enhancing the economic growth of India, and will continue so in future. It employs 55% of the workforce, thereby contributing to 17.1% of the country’s Gross Value Added (GVA) for the year 2017-18 (MoA & FW, 2019). Agricultural production in India grew at an average of 3.6% annually since 2011, thanks to the policy decisions on inputs including improved fertilizer delivery systems and high yielding varieties. Release of improved varieties in cereals, pulses, fruits, vegetables and ornamental flowers as well as high-yielding breeds in the livestock and fisheries sectors has increased the diversification. Availability of a range of nutrition rich food commodities played crucial role in reducing undernourished population from 24% in 1990-92 to 15% in 2014-16 (OECD, 2018, FAO statistics). India is currently the largest product export economy of the world. India is leading exporter of rice globally, amounting to 8.34 Mt in 2019, and currently holds >85% of global basmati rice exports. The country has shown massive resilience to very recent global outbreak of COVID-19, and managed to tackle the social and economic challenges with a spirit of self-reliance. The ‘Atma Nirbhar Bharat Abhiyan’ by Government of India with a special economic package of Rs 20 lakh crore to enable the resurgence of the economy through three mantras, ‘innovation, integrity and inclusion’ as suggested by none other than the Hon’ble Prime Minister of the country. It is therefore imperative that the agricultural sector too needs new initiatives to continue with the success, and realize the potential of self-reliance.

Agriculture is a branch of Applied science. It is the main enterprise in the world. In a true sense, it is a productive unit where the gift of nature i.e. land, light, air, temperature, water, humidity etc. are integrated into a single primary unit – crop plants and their usable parts are thus indispensable for human beings. Secondary productive units are animals (livestock), birds, insects etc. and they  feed on these primary units and provide more solid products such as meat, milk, wool, eggs, honey, silk, leather etc.
The word agriculture is derived from two Latin words i.e. Ager/Agric means soil and cultura means cultivation. Thus, “Agriculture is a science of cultivation of land”. It is an art and science both in which we study all the activities of human beings related to use of soil. 

Indian Aloe (Aloe barbadensis Mill.)  is commonly known as Ghritkumari in Sanskrit and Bangla, Ghikwar or Ghikanwar in Hindi, Aloe in English, Ghiquara in Urdu, Darkhtesibra in Persian, Sabbarat in Arbi, Guarpatha in Rajasthani, Koryed, Korkanta and Elwa in Marathi, Kunwargandal in Punjabi, Lolesara and Katthaligida in Kannada, Kattavala in Malyalam, Sirukanthli, Sirukattashai, Kattazhai, Sorttukathali and Chirukattali in Tamil, Kalawand, Manjikattali, Pinngorisht Kalvand and Chinnakalabanda in Telgu, Kumari and Mushaboro in Oriya and  Musabbar in Kashmiri. Because of its nutritional qualities, anti-oxidant and medicinal values, it is often called as ‘The Miracle Plant’, ‘The Natural Healer’, ‘The Health Plant’ and by many other names.

11.1. History of Plant Quarantine in India

The first recorded plant quarantine measure in India dates back to 1906, when perceiving the danger of introducing the Mexican boll weevil, the Government of India directed that all cotton imported from the New World should only be admitted to India after fumigation with carbon disulphide at the port of entry.

In India two categories of regulatory measures are in operation for controlling pests, diseases and weeds. In the first category regulatory measures are aimed to prevent the introduction of exotic pests and diseases into the country or their spread from one State or Union Territory to another (Plant Quarantine). The second pertains to suppression or prevention of spread of pests and diseases in localized areas within a State or Union Territory.

The former derives its authority from the Destructive Insects and Pests (DIP) Act 1914 of the Central Government and the latter from Agricultural Pests and Diseases Acts of the various States. The legislative measures against crop pests and diseases were initiated under the DIP Act of 1914 which was passed by the then Governor General of India in Council on 3 February 1914.

Prior to the establishment of the Directorate of Plant Protection, Quarantine and Storage in 1946, under the Ministry of Food and Agriculture, the various rules and regulations of the DIP Act were enforced by the customs department. The quarantine regulations are operative through The Destructive Insects and Pests Act, 1914 (which has been revised 8 times from 1930 to 1956 and amended in 1967 and 1992).

A tremendous change in the Indian biopesticide industry and market has reflected on increased global trade in agricultural commodities, a healthy revolution in the consumers and stack-holders with adequate understanding on negative effective of chemical pesticides in plant protection. Currently biopesticides comprise approximately 3-5% of the Indian pesticide market, with at least 15 microbial species and 970 microbial formulations registered through the Central Insecticides Board and Registration Committee (CIBRC).

Abstract

India is a country of villages (640930 villages) and 68.84% population of India is living in villages as per the All India Census, 2011. Dairy farming has been complementing the Indian agriculture since ancient times and rearing of livestock for milk/milk products and draft power has been the tradition of ancient India. Majority of the stake holders are from local communities, particularly pastoralists, have been using their traditional knowledge system for rearing the native breeds. The systematic breeding of cows over the centuries has led to the development of as many as 37 cattle breeds in India. Breeds like Sahiwal, Red Sindhi, Gir, Kankrej, Tharparkar and Rathi are mostly reared for milk production. The number of the animals of majority of indigenous breeds has declined over the years attributed to crossbreeding. Further, their number is very low and majority of cattle population (80%) in India is non-descript. However, considering the importance of indigenous cattle, some of the breed improvement programs have been initiated to conserve and multiply these breeds.

India comes in a tropical region and so it has a tropical monsoonal climate. The climate of India is governed by mountain ranges as well as direction of rain winds like south-west and north-east monsoon and alternate season is the main feature of Indian climate. Climate in South India is generally hotter and extremely humid than that of North India.

Weather is the integrated effect of the atmospheric conditions at any given instant. Climate is the collective state of the atmosphere at any given place or over an area within a specified period of time (usually over 30 years? period).The branch of meteorology that deals with the science of climate is known as Climatology. Primarly the elements of climate are sunshine (solar energy), temperature, moisture and winds. Climate elements vary regionally and temporally. The most fundamental control of weather and climate is the unequal heating and cooling of the atmosphere in different parts of the earth. The zone of maximum solar radiation shifts northward and southward during the year, thereby producing seasons. When it is summer in the Northern Hemisphere it is winter in the Southern Hemisphere and vice-versa. Broadly speaking, both the hemispheres have two distinct seasonal climates in a year namely, the summer or comparatively hot climate and the winter or the cold climate. The atmospheric circulation patterns over the two hemispheres also undergo changes during these two distinct seasons. The change is phenomenal in the tropical regions. In the summer monsoon region, there is reversal of wind flow in the lower troposhere, sudden increase of precipitation etc. Besides the change in the general circulation pattern with the season, the climate of a place is affected by variety of local features such as vegetation, nature of the surface, the slope of the land etc. On the basis of climate, the period of a year has been divided into four seasons in India. They are:

Cold weather season (Winter season) – December and January; Pre-monsoon or Hot weather season – March to May; Southwest or Summer Monsoon season – June to September and Post-monsoon season - October to December. Each of these seasons has its own characteristic features of pressure and temperature distributions, winds, precipitation, humidity etc. The major synoptic disturbances in the Indian region also differ with the season.

Indian Council of Agricultural Research; formerly known as Imperial Council of Agricultural Research, established on 16^th July 1929 and located at New Delhi. It is an autonomous organization under Department of Agricultural Research and Education (DARE), Ministry of Agriculture and Farmers Welfare, Government of India. It is the apex body for coordinating, guiding and managing research and education in agriculture including horticulture, fisheries and animal sciences. This is one of the largest national agricultural systems in the world.

The ICAR has played a pioneering role in ushering in the green revolution and subsequent developments in agriculture through its research and technology development. Thus, the food grains production increased by 5.6 times, horticultural crops by 10.5 times, fish by 16.8 times, milk by 10.4 times and eggs by 52.9 times to achievenational food and nutritional security during the period of 66 years (1950-51 to 2017-18). It has also played a major role in promoting excellence in higher education in agriculture. Organizational setup of ICAR to achieve mandate is as follows.

India has an enormous wealth of cattle, which is crucial to the development of the socioeconomic status of millions of rural households as well as the country’s economy. In addition to giving millions of people access to lowcost nutritious food, this industry plays a significant role in boosting family incomes and creating gainful employment in rural areas, notably among landless laborers, small and marginal farmers, and women.

The concept of Exclusive Economic Zone, popularly called as EEZ was born out of a conflict on fishing rights among coastal nations. Some nations found their waters being exploited by foreign countries equipped with better and more powerful fishing gear and craft more sophisticated navigational and fish detection systems than their own. In 1950 several such nations unilaterally established fishing limits in their coastal waters for exclusive fishing. In the beginning the limit was just twelve mile. Again in 1970 some more countries are added and then they unilaterally accepted the limit of 200 nautical miles.

The United Nations General Assembly convened during 1974-1982 conferences on the Third law of the sea. The United Nations convention on the law of the sea (UNCLOS) was the outcum of the deliberations after it was ratified by as many as 60 countries in 1994. According to the UNCLOS each coastal country shall have an EEZ of 200 nautical mile zone around the share with exclusive right to exploitation of marine resources. The UNCLOS also imposed certain responsibilities on them. Each Country shall have a duty to properly manage its resources. The resources not being fully tapped by a country other countries shall legally have the right to exploit such waters by use of trawlers. It was also stated that beyond the EEZ, the fisheries of the high seas shall be regulated by the Regional Fisheries Organizations. Thus straddling fish and migratory fish fisheries become the subject of not the coastal states but of the regional fisheries organizations. This agreement was reached in 1992 at the Rio-de-Janerio United Nations conference on Environment and Development (UNCED) which worked under the frame work of the UNCLOS. About 90% of the marine catch is taken in the EEZ many countries including India have yet to realize their full potential from their EEZ. A few countries have not accepted EEZ restriction like South Africa. A number of countries on other hand are almost optimally exploiting their EEZ such countries are New Zealand, Iceland and Canada. The EEZ is a common shared area among member countries of European common market (BCM)

6.1 Introduction

India experienced an impressive growth and productivity gains in agriculture since Independence reflecting our farmers’ resilience against multiple odds and challenges. Despite a structural transformation post-Green Revolution, characterized by a consumer centric and food security policy objective, the regular distress and crises in the recent past pose a severe threat to income and livelihood security of farmers. The income realised from agriculture compared to nonagriculture, has been too low with a wide variation across regions. The average income of an agricultural household during 2012-13 has been estimated as low as at `6426 per month, marginally higher than the average consumption expenditure (`6223). Further, around 23 per cent of the farmers still live below the poverty line (DFI Committee, 2017a). Estimates from the Central Statistics Office’s (CSO) indicated that the annual growth in gross value added from agriculture has reduced drastically from as high as 6.9% (October-December, 2016) to a mere 2.3% (April-June, 2017) at 2011-12 prices in the recent past ten quarters. Shockingly, the growth was lower in nominal terms in comparison to real prices during the April-June, 2017 quarter indicating the creeping deflation in farm sector.

Fish as a cheap source of protein, bioavailable minerals, vitamins and essential fatty acids, ensures global nutritional security. India witnessed around 14-fold increment in fish production from 0.7 million tonnes in 1950’s to 10.43 million tonnes in 2014-15. With a contribution of 5.05% to world’s capture production and 6.6% of total aquaculture fish production, India emerged as one among the most progressive fish producing countries in the world. Fisheries as a major agricultural sector, constitutes 0.92% of total GDP and 5.58% of total agricultural GDP of India. With the global fish export value of 148,147 million USD, India ranked seventh position among the top fish exporters of the world. The sector is crucial in securing food supply, job opportunities, nutritional needs and earning foreign exchange for the country, cataloguing it as a sunrise sector of Indian economy.

Technological developments in harvest sector

Introduction of new materials for fishing gears, mechanization of fishing crafts and modern electronic technologies for navigation and fish location, paved way for the significant increase in fish production in India over the years. ICAR-CIFT, Cochin has been involved in the design and optimization of a range of crafts and gears since its inception, which gave a major fillip to the harvest sector of Indian fisheries. Considering the plateauing/decline in catches perceptible since last two decades, ICAR-CIFT has shifted its focus from increasing production to responsible harvest of resources. As a result a large number of technologies for sustainable harvest and green technologies with reduced emissions were developed.

On different occasions I have expressed my views on hunger and food security. Here are some of the views published earlier.

1. Food Security bill: Why it is an opportunity lost

Several years ago I and Dr M S Swaminathan were speaking at a conference on hunger at Rome. Also speaking at one of the sessions was the Brazilian Minister for Zero Hunger Programme, the dream programme of ex-President LuizInácio Lula da Silva. After he had listened to us, he sat down with us to know of how India was battling hunger, specially the way India was managing its food self-sufficiency and the massive food procurement programme.

India has a population of one hundred twenty four crore plus and feeding this large a population calls for a strong FPI. The industry also assumes importance in the national economy due to the immense employment generation opportunities it offers and the export revenue it earns. Food Processing Industry (FPI) in India is a sunrise sector that has gained prominence in the recent years. Easy availability of raw materials, changing lifestyles and favourable fiscal policies has given a considerable push to the industry’s growth. FPI serves as a vital link between the agriculture and manufacturing sectors of the economy. Strengthening this link is critical to reduce wastage of agricultural raw materials, improve the value of agricultural produce by increasing shelf-life as well as by fortifying the nutritive value of the food products and ensure remunerative prices to farmers as well as affordable prices to consumers. The industry has very low processing level i.e., 2.2% for fruits and vegetables, around 35% in milk, 21% in meat and 6% in poultry products, which is significantly lower by international standards. For e.g., processing of agriculture produce is around 40% in China, 30% in Thailand, 70% in Brazil, 78% in the Philippines and 80% in Malaysia. Value addition to agriculture produce in India is just 20% with wastage estimated to be valued at around US $13 billion.

India has the second largest producer of food with arable land of 159.65 million hectares and has the highest acreage under irrigation. Next to China, India ranks second largest food producer in the world and has the potential to immerge the biggest with its food and agricultural sector. India accounts for less than 1.5% of international food trade despite being one of the world’s major food producers, which indicates huge potential for both investors and exporters. Food and food products are the biggest consumption category in India

Despite of pandemic the Indian economy has been growing consistently and Agriculture sector also maintained the momentum. Let us have an overview of investments in India’s agritech startups during 2019-2022:

1. Total investment: $2.5 billion
2. Number of deals: 234
3. Average deal size: $10.7 million
4. Top sectors: Market linkage (52%), Farm management (25%) & Agri- inputs (18%)
5. Key drivers of investment: Growing demand for food and agricultural products, Increasing adoption of technology in the agricultural sector and Government support for the agricultural sector

Abstract

There is an urgent need to – create market driven linkages rather than do it alone by building new infrastructure. A lot needs to be done to improve infrastructure in terms of reducing the logistics cost, eliminating middlemen influence and eliminating the wastage of basic inputs. There is a need to blend technologies based on principle of dovetailing production for masses with the advantage of mass production, particularly in the area of grain processing, packaging and marketing which would help combine livelihood, security with agricultural competitiveness. Risk in crop production is not new to any age and the farmers have been bearing it since times immemorial. The farmers should be allowed to maximize their grain. High performance continuous and batch dryers remove moisture in a way that is predictable and reliable. The problems associated with moisture content may be harmful to international trade in grain and need to be addressed adequately by the standardization institutions.

Abstract

The Arabian camels are well known for their existence and adaptation to the desert geo-climatic situations. Their service to mankind in the difficult terrains of the earth for transport and baggage is also well documented in the literature and has clear reflection in society through art and culture. The existence and adaptation of single humped camels in hilly terrains of India is not very much known, but there exists a population of camel in the hills of erstwhile Mewar state of southern Rajasthan and adjoining area. Based on the locality these camels are known as Mewari camels and are well adapted to travel and carry loads across hills. Phenotypically the Mewari camels are stouter and off-white to light brown in colour. Molecular characterization also distinguishes it from other major breeds of camel. The Mewari camels are mainly reared for milk production. In recent study, it was found that of the total camel population with camel milk producers, about 31% are in-milk female camels. On an average about 2.8 litres of milk per milking female is being sold in the market everyday. Assuming that the camel population in the tract has gone down by 25% of its level of the year 2007 and the current survey figures are utilized for extrapolation, the population of camels in the breeding tract comes to 10408 with 4335 breedable females and 3226 female camels in milk. Accordingly, thousand lactating camels are producing 2800 litres of milk per day or 1022 tonnes per annum and are exclusively meeting the milk requirement of 10,000 persons at present level of per capita availability of milk in the country i.e. 276 gm per day. If the production potential of superior animals of the breed is utilized, the per day production from a female camel can be gradually increased to 6 litres or even more as the the best animals produce an average yield of 10 litres of milk per day during a lactation period of 16 months. Thus with 1000 she camels presently meeting the milk requirement of 10,000 people, may meet the milk requirement of 20,000 people by selecive breeeding. With proper policy support, if more she camels can be covered, the population covered can be increased proportionately. The increase in milk production is expected to increase per capita milk availability in the deficient districts and thus may assist us in ensuring nutritional security of the people of the region. Consequently, the increased milk production may further ensure better returns to the camel owners and thus strengthening the livelihood and conserving the camel populations in situ.

Abstract

The main aim of the article is to identify the strengths, weaknesses, opportunities and threats of current IPR system in context to Indian regime and also to understand overall planning as well as important tactics and means to use IP legal protection system to fully safeguard one’s legitimate rights and interests, obtain and maintain competitive edges, restrain competitors and seek optimal economic performance by selection of appropriate IP strategies. This article also proposes ways to select IP strategy based on BCG matrix and product mix.

Study done in India on various aspects of marine copepods are those of Krishnaswamy (1952), Kartha (1959), Ummerkutty (1960, 1966), Ganapathi et al. (1961), Kasturirangan (1963), Saraswathy (1966), Abraham (1970), Silas and Pillai (1973), Sarladevi (1979), Sarkar et al. (1985), Madhupratap and Haridas (1986), Wells and Rao (1987), Gajbhiye et al. (1991), Madhupratap (1999), Kesarkar and Anil (2010), Ramanibai and Shanthi (2011), Srichandan et al. (2014). Jayabarathi et al. (2015), Nishida et al. (2015), Arunpandi et al. (2017), Loka et al. (2017), Deepika et al. (2019), Kaviyarasan et al. (2019), Khandagale et al. (2022), Nawaz et al. (2023), Thangaraj and Vijayanand (2023).

Copepods are planktonic crustaceans, which occur in marine, fresh as well as brackish waters. They represent about 80% of the zooplankton in the ocean. There are more than 210 families, 2400 genera and 24000 species identified in this group. Planktonic copepods are considered to be the most abundant metazoans on earth.

The name 'copepod' is derived from the Greek words meaning 'animals with oar shaped foot' i.e., ‘kope’ means oar and ‘podos’ means foot (Stottrup,2003). Copepods are important secondary producers and primary consumers and ultimately contribute significantly to the food chain in large ecosystems.

Copepods are very hardly planktonic forms which can withstand most of the unfavourable conditions and can produce diapause eggs and resting eggs to survive in these conditions. Most of the copepods can adjust wide range of salinity and temperature levels. Due to its hardy nature, copepods can be easily introduced into all types of water bodies.

Copepods forms important food for many aquatic animals especially fishes. Certain fishes and fish larvae were evolutionary adapted to feed on copepods. Copepods have been found to be nutritionally superior to almost all other live feeds.

5.1. Origin and distribution

• True or black mustard: Brassica nigra Koch-Self sterile

• White mustard (Yellow mustard) : Brassica compestris, Syn: Sinapsis alba- Self sterile

• Indian or brown mustard: Brassica juncea (L.) Czern

• These three species are commonly used as condiment.

• White mustard is indigenous to Southern Europe, whereas brown mustard is from China introduced to Northern India.

• Black mustard is endemic in Southern Mediterranean region.

• White mustard is widely cultivated in Australia, China, Chili, Denmark, Italy, Japan, UK, Netherlands, North Africa, Canada and USA.

Morinda citrifolia L is a unique horticultural plant belonging to Rubiaceae family. It has a tremendous demand because of its high medicinal value. Increase in demand has led to commercial farming of the tree. Noni is an ideal plant for mixed farming with other horticultural plantations. There is concurrent efforts to select early bearing plants with big size and fruits.  Noni can be grown in any type of soil under adverse climatic conditions.  Crop Improvement, nutritional requirement, water requirement, pest and disease management are the research priorities in Morinda citrifolia.

Indian Noni (Morinda citrifolia) is popularly known as Indian mulberry belongs to Rubiaceae family.  It is also called great Morinda, Cheese fruit, Mouse’s Pine Apple, Nono, Jumbie bread fruit, Hog apple. Noni was one of the most widely used medicinal plants in Polynesia prior to European contact, and continues popular among modern population. Noni is commonly known as canary wood in Australia, Kura in Fijii, mora de la India in spanish, nono in Tahiti and Nin in Marshall Island. Medicinal values of Noni were known to man many centuries ago. Uses of Noni were mentioned in Indian ethnopharmacology and ayurvedic medicines. Noni is grown as medicinal plant in most of  South Indian temples as sacred plant like basil (Tulasi). In India, it is called by several names in different  regional languages like nuna, manjanathi, manjanuna in Tamil,  molugu, mogal, bundamaddi in Telugu, kakaiplam, kattapitalavam, mannanatti in Malayalam, tagatemara, haladipavete in Kannada, Ach Al in Hindi, Paphan, Achchhulca in Sanskrit, Aseti, Nagkura, Mundari solidaru in Marathi.

The history of Patent law in India starts from 1911 when the Indian Patents and Designs Act, 1911 was enacted. The present Patents Act, 1970 came into force in the year 1972, amending and consolidating the existing law relating to Patents in India. The Patents Act, 1970 was again amended by the Patents (Amendment) Act, 2005, wherein product patent was extended to all fields of technology including food, drugs, chemicals and micro organisms. After the amendment, the provisions relating to Exclusive Marketing Rights (EMRs) have been repealed, and a provision for enabling grant of compulsory license has been introduced.

PPVFR act is 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. Stimulate investment for research and development to produce new plant varieties.Facilitate the growth of the seed industry that will ensure the availability of high quality seeds and planting material to the farmers. Registration of a plant variety gives protection only in India. Provides the exclusive right to produce, sell, market, distribute, import, or export the variety.

Milestones in Seed Sector

• 1957- First AICRP

• 1963 -NSC established

• 1966 -Seed act passed

• 1968- Operational

• 1971- Indian Minimum Seed Certification Standards adopted

• 1975- GSSC established

• 1977- AIC NSP launched

• 1980- GSSCA Established

• 2001- PPVFR Act passed

Plants containing lignans have been utilised as folk medicines in traditional medicine of many different cultures for over 1000 years. Plants high in lignin, such as Kadsura coccinea (Schizandraceae), Fraxinus sp., and Olea europaea, have long been employed in Chinese, Japanese, and Eastern world folk medicine. Lignans are an important family of starting products for the development of new therapeutic agents based on structural modifications of such compounds due to their widespread use in traditional medicine. Podophyllum hexandrum, a plant with a high lignin concentration, has been employed throughout history and in modern times. It has been used extensively in ancient Ayurvedic medicine to treat a variety of disorders such as Condyloma acuminate, Taenia capitis, monocytoid leukemia, Hodgkin’s disease, non-Hodgkin’s Lymphoma, cancer of brain, lung, bladder and venereal warts.

The Himalayan locals have long used Indian Podophyllum, with an aqueous extract of the roots being a frequent cathartic. It has also been used as an ophthalmia treatment. Thomson tested the resin from the Indian plant in 1890 and found 56 percent podophyllotoxin concentration. Podwyssotzki discovered podophyllotoxin as the active principle of podophyllin in 1880 and obtained it in a pure state. Several lignans have been found in the rhizomes of Podophyllum hexandrum, which are dimerization products of phenylpropanoid pathway intermediates linked by the central carbons of their side chains.

The modern commercial poultry production in India is barely 50 years old, although backyard poultry keeping dates back to pre-historic period. In between 1955 to 1965, some Christian Missionaries had imported White Leghorn, Rhode Island Red and White Rock breeds, to upgrade the local chicken, having very high disease resistance power; but highly broody. Later, hybrid broiler (Arbor Acres) and layer (Babcock) strains were brought to India in early seventies, to start modern poultry industry. Among the two, the layer industry took wings early and registered a spectacular growth rate between 1970 and 1985. The broiler industry came to existence five years later and showed 25 -100% annual growth rate initially and 10-20% growth rate subsequently; between 1975 – 2005. The growth indicators of poultry development in India are presented

ABSTRACT

Evolution theory postulates that the collision between the Indian and the Eurasian plates in early Eocene and Miocene epoch leads to formation of the Himalayas, and currently recognized across the globe as repository of life. Some species of this regions is categorized under endangered and endemic category. Rhododendrons placed under family Ericaceae is an important genus of flowering plants. It is one of the multiferous keystone member of plants, mostly endemic to Southeast Asia. Wide distribution of rhododendrons concentrated in Himalayas. The Eastern Himalaya, especially Arunachal Pradesh and Sikkim states of India is the main centre of species distribution and provide wide range of habitat for ecological studies. Several species exhibits many nutritional, medicinal and aromatic properties as evident from tribal knowledge and published research sciences. Different parts of plant such as flowers and leaves used in folklore herbal medicine and for preparation of local wines. Chemically, rhododendrons are repository of several bioactive molecules in the form of taraxerol, hyperoside, betulinic acid, quercitin, arbutin, rutin, coumaric acid, and several other fine molecules in minor quantities. In the present communication, Indian rhododendrons species diversity of different regions are revised and updated the current list for India. Besides, its value addition and future prospective is also presented for Indian economy. The checklist, chemistry, traditional knowledge, ecological requirement, keystone taxa, potential value added products for future, threat and future perspectives of rhododendrons for conservation is also discussed and presented in different subheads. First time checklist of all Indian rhododendrons are prepared and provided here in this communication.

Abstract

Medicinal plants are being widely used either as single drug or in combination in health care delivery system. Hemidesmus indicus is a rare and endangered plant of Deccan plateau of India and is a potential source of several active principles of therapeutic value. Its immense medicinal values can bring H. indicus as a royal source of herbal medicine in India. It contains various phytoconstituents belonging to the category glycosides, flavonoids, tannins, sterols and volatile oils. The main pharmacological activity of H. indicus include anti-inflammatory, anti-oxidants, anti cancerous activity, anti acne activity, anti venom activity, antinociceptive, renoprotective, heptoprotective activity, anti arthritis and anti leprotic activity. The root of Hemidesmus indicus was used mainly for the preparation of drink locally called as nannari or sugandhapala. The drink is medicinal, which cools the system, gives good appetite and acts as a blood purifier and roots are used for preparation of chutneys and pickles.

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

India is known as hub of medicinal plants in recent years due to availability of variety of species in different regions which is used in treatment of frequently occurred local diseases. Family a pocynaceae is one of frequently used angiosperm members as medicine in different Indian system of medicine. At present, the genus Rauvolfia is represented by 77 species distributed across the globe, known to contains various unique active phytochemicals in the form of flavonoids, phytosterols, oleoresins, steroids, tannins and alkaloids. R. serpentina (also known as Indian snake root or sarpaghandha) and R. tetraphylla (also known as devil root or barachandrika) are two very important distinctive medicinal shrubs growing in India having wide application in traditional system of medicine for curing human disease and various herbal formulations available in market using these plants. In the present communication, we have discussed the biology, chemistry, pharmacology, cultivation practices and future perspectives of R. serpentina and R. tetraphylla for conservation and as a potential plants for future application in herbal medicine discovery.

Oroxylum indicum (L.) Vent. (family Bignoniaceae Juss.) also known as Broken bones tree, Indian trumpet flower, Midnight horror, Shivnak, Sonapatha and Shyonaka. O. indicum is being used as medicinal herb for thousands of years without any known adverse effects. The tree is named as ^”Tree of Damocles^” after an incident depicted in an ancient story by Cicero. O. indicum Vent is a small or medium sized deciduous tree growing throughout Asia continent. It has been used traditionally for a wide diversity of ailments such as cancer, diarrhea, fever, ulcer, jaundice and arthritis. Destructive and non-sustainable collection methods coupled with low regeneration and habitat destruction have posed serious threats to the survival and availability of this highly useful tree. The existence of O. indicum in natural population is highly threatened and it has been categorized as endangered and vulnerable by the Government of India. There have been number of scientific studies conducted to evaluate the toxic effects of the plant. Almost all the studies have shown that O. indicum is not toxic to humans even up to high doses.

Morphological characteristics

O. indicum is a small to medium-sized deciduous tree with soft light brown or greyish brown bark and corky lenticels that grows up to 12 metres tall. The leaves are big, 90-180 cm long, 2-3 pinnate with 5 or more pairs of primary pinnae, rachis is fast, cylindrical, swelling at branch junctions, leaflets are 2-4 pairs, oblong or elliptic, acuminate, glabrous. The enormous leaf stalks wither and fall off the tree, accumulating towards the trunk’s base and resembling a jumble of broken limb bones.

Abstract

The major subduction of the Indian plate and the related high magnitude earthquake (>9M) occurred in Sumatra region, triggered a major tsunami on 26, Dec 2004 which caused massive disasters in many coastal regions of South Asian countries including India, killing tens of thousands of life and causing property loss of several million rupees. Duly realizing the credentials of Geospatial / Geomatics technology and the expertise of NRDMS, an all India coordinated programme was conceived by NRDMS on tsunami disaster assessment and got it executed through six specialized institutions working on geomatics technology in the country. In the programme, the tsunami disaster in terms of natural, physical and human resources were assessed using geomatics technology and village wise digital databases were generated which will form a potential baseline information in coastal area.

Keywords: Indian Ocean Tsunami 2004, DST Initiatives, Disaster Assessment, Mitigation.

Introduction

A downer cow is an animal In sternal recumbency and isn’t showing obvious clinical sign of hypocalcemia,hypomagnesmia or any limb or spinal Injury. Most causes are related to parturition, occurring in few days before or upto a week after calving.

Causes for Making an Animal Downer

Animals Inability to stand may be caused by illness or injury. Following may be the reasons

Introduction

Spatial datasets always exhibit two common features (i) the occurrence of a few very large concentrations (hot-spots) and (ii) the presence of data below the detection limit (black spots). Extreme values can strongly affect the characterization of spatial patterns, and subsequently the prediction. Several approaches exist to handle strongly positively skewed histograms (Saito and Goovaerts 2000). One common approach is to first transform the data (e.g. normal, Box Cox or lognormal), perform the analysis in the transformed space, and back-transform the resulting estimates. Such transform, however, does not solve problems created by the presence of numerous black spot data, since either it yields a spike of similar transformed values or, in the case of the normal-score transform, it requires a necessarily subjective ordering of all equally-valued observations. Moreover, except for the normal score transform (Deutsch and Journel 1998), it does not guarantee the normality of the transformed histogram, which is required to compute confidence intervals for the estimates. Last, the back-transform of estimated moments is not straightforward and can introduce bias if not done properly (Saito and Goovaerts 2000); for example, lognormal kriging estimates cannot simply be exponentiated. Another way to attenuate the impact of extreme values is to use more robust statistics and estimators. The non-parametric approach of indicator kriging (IK) falls within that category (Journel 1983, Goovaerts 2001). The basic idea is to discretize the range of variation of the environmental attribute by a set of thresholds (e.g. deciles of sample histogram, detection limit, regulatory threshold) and to transform each observation into a vector of indicators of non-exceedence of each threshold. Kriging is then applied to the set of indicators and estimated values are assembled to form a conditional cumulative distribution function (ccdf). The mean or median of the probability distribution can be used as an estimate of the concentration of the material in question (Barabas et al. 2001, Cattle et al. 2002, Goovaerts et al. 2005).

Technology adoption is mounting every day in the field of agriculture. The greatest need of the day is to effectively communicate the information related to farm technologies to the millions of farmers to educate and to adopt them in order to modernise their agriculture. Inspite of our best efforts, only 25 to 30 per cent of the modern agricultural technologies have reached farmers. This modern technology however has been restricted to favourable farming situation only.

Indicators of agricultural sustainability are a composite set of attributes or measures that embody a particular aspect of agriculture. These are quantified information, which help to explain how things are changing over time. Smyth and Dumanski (1993) define indicators as environmental attributes that measure or reflect environmental status or condition of change.

Indicators are the natural or synthetic chemical compounds that are used to detect the equivalence point in a volumetric analysis where unknown compound in a solution form is quantitatively estimated with the help of a known standard solution. The equivalence point, also known as the stoichiometric end point, is the point or stage of a titration reaction where the equivalent amount of the reacting substances are mixed together, and this point is identified by monitoring the rate of change in pH, conductivity, flow of current, adsorption, fluorescence, changing of solution colour, occurrence or disappearance of turbidity, flocculation or deflocculation, etc.

Introduction

Throughout their existence on this planet, human beings have adapted to the diverse environments they inhabit. Depending on the topography and prevailing natural conditions, individuals have successfully navigated the challenges posed by nature and their surroundings. As life has progressed, humans have gained insights into nature, its resources, and the prudent utilisation thereof. This understanding encompasses various natural phenomena, the associated challenges, and the methods to mitigate them. Over time, humans have evolved into repositories of such knowledge, collectively known as 'indigenous knowledge' or 'traditional wisdom,' passed down from one generation to the next. Each specific region possesses its unique set of indigenous knowledge reflecting the harmonious coexistence of humans with their environment.

Indigenous agricultural knowledge (IAK) stands as a crucial force in the realm of agricultural development. It represents a systematic and collective body of knowledge, practices, and beliefs that evolve through adaptation processes and are transmitted across generations through cultural channels, elucidating the intricate relationship between living beings and their environment. With this collective wisdom, farmers have adeptly cultivated food crops in diverse environmental conditions and seasonal variations, relying on indigenous techniques in the absence of external inputs, resources, and scientific knowledge. This includes refraining from the use of synthetic agrochemicals and instead embracing practices like crop rotations and soil fertility restoration through closed nutrient cycles (Melash et al., 2023).

Abstract

About 20 percent of the world’s total population is residing in the mountains and this proportion is likely to increase in the present century as environmental degradation and pollution are driving the human population for settlement in the clean and serene environment of the mountains. Himalayan region has sizeable area in countries like India, China/Tibet, Nepal, Pakistan, Afghanistan, Bhutan, etc. Remarkable progress has been made in greenhouse research and development in many countries. However, Himalayan regions which reserve unique flora and fauna have attracted little attention so far. Changing climate, fast increasing population and shrinking land and water resources are the major challenges before us to meet the food and nutritional security of the population at global level. Improvement in the production and productivity of crops are the immediate need to boost the availability of food and improve the economic conditions of the farmers.

Greenhouse technology has tremendous potential to improve production and productivity of crops even under uncongenial soil and climatic conditions. The farmers having very small farm holdings in countries like Japan and South Korea have improved their income and living standards by adopting protected cultivation technologies. Similarly, Israel has demonstrated successful crop production under desert and uncongenial climatic conditions by improved water management practices and using greenhouse technology. However, India is yet to trap the potentials of the technology. Modern greenhouses require uninterrupted huge electric power for control of environment (heating/cooling/air circulation etc), which is considered one of the major causes for global warming. High installation and running (energy) cost, high cost of production; poor government support and lack of farmer friendly /cost effective greenhouse technology are some other challenges. Appropriate modifications suiting to our requirements, as per the need of crop, climate and farmers may lead to popularization of greenhouses in the country, especially among the small and marginal farmers. Defence Research & Development Organisation (DRDO) successfully demonstrated the innovative approach to popularize low cost zero energy based solar greenhouse technology in higher Himalayan regions of the country. Such greenhouses are specifically designed using local resources and also trap natural solar radiation/ heat and maintain it for longer period. Similarly, other approaches like using mud/ unbaked bricks, double wall approach, making hot beds, blackening of walls, using water bottles, greenhouse-cum-animal shed, etc. effective to reduce the adverse effects of the environment on crops with little inputs in hilly regions. Need of the hour is to review our approach for the greenhouse technology in farmers’ prospective and device simple and cost effective innovations for fast propagation of greenhouses in the country. This will not only improve the economic status of the farmers but also provide nutritive food to their families and enhance production and productivity of various crops in the country without deteriorating the environment.

Dairy farming has been the backbone of the agriculture and rearing of livestock for milk/milk products and draft power has been the tradition of ancient rural India. Whenever the crops have failed miserably attributed to natural calamities, the livestock has emerged the savior of farmers providing livelihood security in rural India. India is a country of villages (640930 villages) and 68.84% population of India is living in villages as per the All India Census, 2011. Further, 41.8% rural population is below poverty line as compared to 25.7% urban population (Basic Animal Husbandry Statistics, 2012). The marginal and small farmers are rearing 71.7% of total livestock revealing that livestock has been the source of sustainable livelihood security for rural poor majority of which falling under the category of population below poverty line.

INTRODUCTION

The enemies of plants have been harming the organized agriculture ever since man started depending on plants for food. Fossil evidence indicates that plants were affected by disease since 250 million years ago. Conditions of food shortage and famines have been created by these enemies of plants. Naturally, the man had been obvious of their presence and proposed explanations and methods of combating them according to the knowledge available at that time all over the world. It is not true that attention to plant diseases was first given in the western countries. In the ancient Indian literature many plant diseases and their remedies were mentioned.