eChapters

Introduction

The floriculture industry in India is characterized by growing traditional flowers (loose flowers) and cut flowers under open field conditions and protected environment conditions, respectively. India also has a strong dry flower industry, which contributes a major share to the overall trade. Other segments like fillers, potted plants, seeds and planting material, turf grass industry and value added products also contribute a share in the overall growth of the floriculture sector. 

Area and Production

With the rise in people’s investment in flower purchase for gifts at social ceremonies or for home decoration, the focus shifted to production of cut flowers too. The fresh increase in the area under flowers is more for cut flower production, but not necessarily at the cost of loose flower production.
A large share of the total world production area is in India. With an estimated area of 1,60,000 ha (2007-08), India perhaps is the largest production base in the world. The last decade and a half has witnessed significant increase in the area under flowers, which has tripled from 53,000 ha (1993-94). 
(Fig. 1).

Pre-dominant farming systems in various regions of India

The quick survey conducted as a part of characterization of existing farming systems throughout the country indicates existence of 19 pre-dominant farming systems with majority as crop + livestock (85%). Although crop + livestock system is dominating in the country, based on the per cent contribution to net income, the systems are classified as crop, horticulture, livestock, fisheries dominant systems where in dominant component contributes more than 50% of the total net returns. Accordingly, it was found that crop dominant farming systems are existing in the states of Andhra Pradesh, Bihar, Chhattisgarh, Goa, Haryana, Jammu and Kashmir, Jharkhand, Kerala, Karnataka, Madhya Pradesh, NorthEast, Maharashtra, Orissa, Punjab, Tamil Nadu, Uttar Pradesh and Uttaranchal while livestock dominant systems are present in Rajasthan and Parts of Gujarat. West Bengal, parts of Odisha and Assam states have the fisheries as a major source of income to the existing farming systems. The scope for promotion of horticulture (fruit) based systems exists in Jammu and Kashmir, Himachal Pradesh, Maharashtra, parts of Uttar Pradesh and in Sikkim while plantation dominant systems are available in Andaman and Nicobar Islands and Kerala. In selected states and locations, highly diversified systems also exists where in none of the component contributes for 50% or more to the returns. The characterization survey data of existing farming systems in different states/zones are being interpreted and brought out in the form of National Atlas on Farming Systems. Though the various farming systems exists in the country, integration of input and output within the system is either completely lacking or at partial integration. Competition exists within and outside the farm for various byproducts generated. Cow dung is the best example as dung is required for improving the fertility of soil and meeting the household fuel. Hence, synergy needs to be made by appropriate allocation for making farming as a profitable option. Sustainable farming systems should aim for long term productivity, profitability, recycling of resources and employment generation. The monetary returns under different farming systems practiced in different parts of the country are given in Fig 1. Among the various existing systems in the country, coconut +banana+ cocoa +pineapple + nutmeg (FS9) gives the higher return of Rs 1.27 lakhs/annum.

Introduction
Understanding the concepts of technology transfer, licensing, and commercialization is crucial as it plays an important role in understanding how scientific discoveries leads to generation of new technologies further making them the impactful solutions that benefit industries and society. In the context of Indian HEIs, this especially important because a large volume of impactful research often remains underutilized due to limited commercialization channels. This chapter explains the terminology, essential components of technology transfer, outlines its significance for the innovation ecosystem. It also outlines the evolution of India’s technology transfer ecosystem, and emphasizes while understanding its potential to boost India’s economy, encourage entrepreneurship, and strengthen global competitiveness. From initial idea to a market-ready product is complex and multiphased process. The stepwise process is shown in Figure 1. It highlights a structured pathway consisting of five core phases: Idea/Concept, Technology development, Intellectual Property (IP) rights, Technology transfer, and Technology commercialisation.
Phase 1: Idea/Concept stage
This process of technology transfer starts with the Idea/Concept phase, where an invention is created. Each phase plays an important role in transforming raw scientific knowledge into innovative solutions that benefit society and generate economic value. In this phase breakthrough ideas emerge, within labs. Researchers explore and develop initial proof-of-concept or prototypes to validate their ideas. At this stage, the focus is primarily on knowledge creation rather than commercialization. This pathway of technology transition is summarized in Figure 1.

Uttar Pradesh, a fourth largest state of India geographically, where agriculture is a prime occupation and this is the traditional maize growing state, accounts 7.7% of area and 5.4 percent of total maize production of the country with an average yield of 1791 kg/ha (IIMR Annual Progress Report, Kharif Maize 2015). Maize is mainly taken as a Kharif crop but, gradually Rabi maize is gaining popularity with the availability of high yielding varieties and advanced production technologies. The rice, wheat, potato, sugarcane based cropping is more popular, and maize is given a moderate priority. The current level of growth in productivity definitely fall short to meet the demand of rapidly growing population even it may increase the poverty, unless vigorous measures are taken to accelerate yield, growth, employment generation, increasing the income of farming family and ultimately targeting for the sustainable climate resilient maize production.

Maize is mainly used as a staple food and quality feed for animals. In addition to that it also serves as a basic raw material for several industries like, starch, oil, protein, alcoholic beverages, food sweeteners, pharmaceuticals, cosmetic, textile, gum, package, paper etc. A major portion of the maize produce is directly consumed as a food in the form of boiled or roasted green ears, chapattis, porridges of various forms, popcorn, cornflakes etc. and as livestock feed viz., cattle, poultry and piggery both in

the form of grain and fodder The central rachis of maize cob, to which the grains are attached remains as an agricultural waste after threshing, has many important agricultural and industrial uses. It is approximately 15 to 18% of the total ear weight and contains 35% cellulose, 40% pentose and 15% lignin (used as a raw material in cardboards). Its uses in agriculture includes as a litter for poultry and as a soil conditioner.

1. Bread Wheat (Triticum aestivum)

Wheat has been traditionally grouped into the genera Triticum in the tribe Tritiaceae of the family Poaceae. Bread wheat, 2n=6x=42 is a hexaploid consisting of three distinct genomic complementary, namely, A, B and D, with the genome structure AABBDD. In the past there were 4 species, viz. Triticum aestivum, T. durum, T. dicoccum and T. sphaerococcum, under cultivation in India. T. sphaerococcum has now practically gone out of cultivation because of its low productivity and high susceptibility to diseases. The major wheat producing countries are China, India, USA, the Russian Federation, and Australia. These five countries together contribute more than half of the global wheat production. In India, Uttar Pradesh has registered the highest production followed by Punjab, Madhya Pradesh, Haryana, Rajasthan and Bihar. These top six states together contributed around 90 per cent of the total wheat production in the country

Floral Biology

The inflorescence of wheat is known as spikelets. Spikelets are alternately arranged on the rachis; each spikelet’s has a small joint axis which bear two to nine flower known as florets. Close to the base of rachilla are two empty boat shaped bracts known as glumes. Above these inserted alternately on opposite side of the rachilla known as lemma. Opposite it’s a thin membrane bracts known as palea enclosed within the lemma and palea are a single pistil and three steamens. The pistil consists of an ovary bearing two short styles each carrying a feathery stigma. At the base of the ovary are two membranous scales known as lodicules. Each stamen consists of a thread like filament carrying a pollen containing anther.

Introduction
In global environmental challenges, sustainable products have gained considerable prominence. Sustainable products are those designed, manufactured, and disposed of in ways that minimize environmental impact, promote resource efficiency, and
contribute to a circular economy. Integrating information technology (IT) into sustainable products’ design, production, and lifecycle management has emerged as a crucial enabler of innovation and efficiency in achieving environmental sustainability. IT-enhanced sustainable products leverage technologies such as Artificial Intelligence (AI), the Internet of Things (IoT), blockchain, and data analytics to reduce waste, optimize resource use, extend product lifecycles, and enhance transparency. By incorporating IT into the lifecycle of products, manufacturers and designers can make smarter decisions that have far-reaching benefits for both the environment and the economy. This detailed analysis will
explore how IT contributes to creating sustainable products, focusing on product design, resource optimization, manufacturing processes, consumer engagement, and end-of-life management.

1. INTRODUCTION

The terms antioxidants and free radicals are being very effective used nutritionists and other health professionals. Antioxidants are compounds are good for health and free radicals are harmful. In general, antioxidants neutralize free radicals that are generated in the body and prevent damage to cell proteins, lipids and carbohydrates. Antioxidants can be water-soluble or lipid-soluble, thus they exist within the lipid or within the water portion of cells. Antioxidants are substances when present in food or in body at low concentration retards or prevents undesirable oxidation of substrates by free radicals.

Within the human body, millions of processes are occurring at all times. All cells require oxygen to generate energy; higher eukaryotic organisms cannot exist without oxygen. Unfortunately, that same life giving oxygen can create harmful side effects which cause cell damage and lead to chronic disease. Damage caused by free radicals is called oxidation. Oxidative stress is the disturbance in the prooxidant-antioxidant balance in favour of the former, leading to the potential damage.

Introduction

Food is any substance or a product obtained from nature, which contains nutritive and non-nutritive components that help to maintain or improve the health of an individual if consumed in optimal amount (Sukhneet and Malhotra, 2014). Globalization of food production and procurement makes food chains longer and more complex and increases the risk of food safety incidents. Infections and diseases arising from contaminated/adulterated food remain threats to global public health (Havelaar et al., 2015; Luo et al., 2019). The WHO reports shows that every year foodborne diseases cause the death of 33 million people including many children (WHO, 2019). Food safety is linked to the presence of foodborne hazards in food at the point of consumption. Since food safety hazards can occur at any stage in the food chain it is essential that adequate control be in place. Therefore, a combined effort of all parties in the food chain is required to deliver safe food products to the final consumer. Effective and harmonized food safety systems shall manage and ensure the safety and suitability of food in each link of the supply chain.

Although the food industry has the prime responsibility of ensuring safe foods in most societies, the maintenance of a safe food supply is regarded as a responsibility of the government of that country. This responsibility has, over many years, led governments to adopt legislation, standards and regulations for food processing and to impose penalties when a business fails to meet the expectation. As with any legislation, an effective system for detecting failures to comply with the legal requirements increases compliance and hence, in this case, promotes food safety. Governments have an obligation to protect consumer health and this includes protection against food borne diseases. Food standards are therefore necessary to aid governments in protecting public health. However, the standards can only be effective when they are enforced through an efficient food control system. This therefore requires comprehensive legislation inspection, food monitoring and food borne surveillance. An efficient food control system must be supported by competent staff with good laboratory services. Political and institutional support and stability are also important elements.

Introduction
In the modern age of digital transformation, platforms have become critical enablers of sustainability. These digital infrastructures, which facilitate connectivity, resource sharing, and collaboration, are pivotal in accelerating the adoption of sustainable practices across various sectors. Platforms enable the effective integration of resources, stakeholders, and technologies, offering scalable solutions that can help achieve long-term environmental, economic, and social sustainability goals. Whether through promoting circular economy models, enabling efficient resource use, fostering innovation in green technologies, or driving policy changes, platforms serve as central hubs for fostering sustainable development.

Soil physical properties
The physical properties of soil, particularly its mechanical behavior, significantly impact its suitability for plant growth. Factors like plant support, root penetration, drainage, aeration, moisture retention, and nutrient availability are all influenced by the soil’s physical condition. These properties also affect the soil’s chemical and biological activities.
A soil’s physical properties are determined by the quantity, size, shape, arrangement, and mineral composition of its particles, as well as its organic matter content and pore spaces.
Important Physical Properties of Soils
1. Soil Texture
2. Soil Structure
3. Surface Area
4. Soil Density
5. Soil Porosity
6. Soil Color
7. Soil Consistence
Soil Texture
Definition
Soil texture refers to the relative proportions of different-sized particles, specifically the percentage by weight of sand, silt, and clay. It’s a fundamental soil property that is difficult to alter. Soil textural determinations typically exclude particles larger than 2 mm in diameter (stones and gravels). While larger particles can affect land management and tillage, they contribute minimally to water-holding capacity (WHC) and nutrient storage/supply.

14.1 Introduction

Atmospheric concentration of CO₂ has increased from 280 ppm in pre-industrial era to 385 ppm in 2008 (+ 37.5%) and is presently increasing at the rate of 2 ppm yr^-1 or 3.5 Pg yr^-1 (1 Pg or petagram = 1 Gt = 1 gigaton = 1 billion metric ton). The increase in CO₂ emission by human activity is attributed to fossil fuel combustion, deforestation and biomass burning, soil cultivation and drainage of wetlands or peat soils. Increase in fossil fuel combustion is caused by high global energy demand of 475 Quads (1 quad = 1015 BTU) and increasing at the rate of 2.5 % yr^-1, especially in emerging economies including China, India, Mexico, Brazil, etc. The world population of 6.7 billion in 2008 is increasing at the rate of 1.3 % yr^-1 and is projected to be 9.5 billion by 2050 before stabilizing at 10 billion towards the end of the 21^st century. There exists a strong positive correlation between population growth on the one hand and CO₂ emission or the energy demand on the other. The People’s Republic of China accounted for 13% of the world’s C emissions in 2002 and that share is projected to rise to 18% by 2025 (Lal, 2004a).

1. The disease Beri - beri is caused due to deficiency of vitamin
   1. D
   2. C
   3. B
   4. A
2. Which of the following vitamin is found in Fish liver oil?
   1. Vitamin D
   2. Vitamin C
   3. Vitamin K and C
   4. Vitamin A

Abstract
This chapter presents a comprehensive exploration of global agricultural exports, focusing on their pivotal role in economic development, food security, and sustainability. It highlights the growing importance of emerging markets, technological advancements, and evolving consumer preferences such as the rising demand for organic, sustainable and value-added products. An in-depth analysis reveals that agricultural exports contribute significantly to job creation, income generation, and international trade relations, particularly for developing nations. The chapter evaluates India’s performance as both an exporter and importer, emphasizing key products like marine goods, rice, spices, and buffalo meat. It further discusses India’s engagement with international trade agreements, quality and safety standards, and the challenges and opportunities in maintaining compliance. The future Outlook identifies high-potential sectors including functional, organic, and plant based foods especially in Asia-Pacific, Africa and Latin America. Drawing on data-driven insights, the chapter offers strategic directions for policy makers, agribusiness, and exporters to enhance market access and competitiveness. Overall, it underscores the transformative potential of agricultural trade in shaping a resilient and inclusive global economy.
Keywords: Global Trade Dynamics, Emerging Markets, Export Opportunities and Trade Agreements

The term transgenic animal refers to an animal in which there has been a deliberate modification of the genome - the material responsible for inherited characteristics - in contrast to spontaneous mutation (FELASA September 1992, revised February 1995). Foreign DNA is introduced into the animal, using recombinant DNA technology, and then must be transmitted through the germ line so that every cell, including germ cells, of the animal contain the same modified genetic material.  By simple means a transgenic animal is an animal in which foreign DNA has been incorporated into its original DNA. Transgenic animals are altered so that their DNA produces chemicals that normally they would not produce.

ABSTRACT

The present communication deals with the impact and contribution on livelihood sustainability based on forest resources and sacred places in nine fringe villages of Pangolakha Wild Life Sanctuary (PWLS), located in Sikkim Himalaya. Populations density in villages varies from 23 at Nayabusty and 274 at Padamchen. Populations were categorised under three age groups viz. minor (15-25 yrs), major (26-36 yrs) and elder (over 36 years). Approximate by 27.6% populations had minimal primary education. Agriculture is the main activity in Suvaneydara (86.7%), Agamlok (85.3%) and in Nayabustyy (82.3%). Villagers in Padamchen (12.5%) and in Nathang (12.5%) are either dependent on Government job (38.2%) or seasonal flow of tourist (25%). The educational qualification in these villages is classes 5 to 10 standards. 91.1% of people rely on forest resources. About 70% of the villagers depicts that forest cover of the region is improving. The availability of fodders (70%) and fuel woods (60%) are still in abundance. People depend on tirja (private), khashmal and goucharan areas for grazing and fuel wood collection. Forty nine economical economically by valued plant species belonging to 46 genera and 35 families were documented. Subtropical ecosystems had high number of plant species. Poaceae was the dominant family (17%). Tree life form is abundant (51%). Total 24 species are harvested for edible purpose, 24% are freely sold in the local haats (market) for their livelihood sustenance. Principal Component Analysis (PCA) of nine villages with respect to forest resources indicated the village specific use pattern of plant resources. Indigenous inherent knowledge of local plants is decreasing in Lingtam. PWLS and its adjoining villages have important places with religious importance, heritage sites managed by the people. It was observed that exploitation of plant resources, lack of maintenance and fast changing concept of traditional ethics among youths, plant resources were degraded and in regenerating stage.

Maize or corn (Zea mays L.) is second most important crop after rice in Jharkhand. Though considered as a Kharif season crop, it can be successfully grown in other two crop seasons viz., Rabi and zaid also as the climatic condition in Jharkhand is conducive for growth of the plants. Rabi maize has comparative advantage over Kharif maize due to low incidence of diseases and insect pests slow growth of weeds and crop does not have to suffer on account of heavy rainfall hence, higher yield potentiality could be realized from Rabi maize. In Jharkhand, the Kharif crops including the maize are grown as rainfed as the 80 to 85% of the annual rainfall takes place during June to September. The share of maize under irrigated condition is restricted to only 15 to 18% of the total cropped area. Maize is not only an important source of nutrient to the human beings but also constitutes a basic component of animal and poultry feed. Here, farmers grow maize mainly for green cobs as cash crop whereas the grains are to be used for human consumption as well as for animals and poultry feed. The cultivation of the specialty corns like baby corn, sweet corn and popcorn is still in its infancy in Jharkhand and hence, large scale cultivation of specialty corn in the state will take some more time. Establishment of food processing unit in the state is at the nascent stage. However, the Government of India is implementing a Mega Food Park in Getalsud Industrial Area of Ranchi district in Jharkhand. The establishment of this mega food park is expected to give a significant boost to the food processing sector in Jharkhand.

Introduction

Natural resources support livelihood of a large section of India’s population, despite its steady declining share in the Gross Domestic Production (GDP) and, in all probability these will continue to play the dominant role even in future. Interaction of several factors in the global climate change scenario has markedly limited the capability of natural resources and thereby threatened livelihood of small holders throughout the world. Factors like agriculture production crisis, fresh water unavailability, energy crisis, deforestation; degradation, wide pandemic, active climate change effects and continuous rise of input cost of farming create threats to the livelihood of millions and it has become imperative to collectively understand the complexities and challenges in natural resource conservation and management.

Introduction
Given increasing demands, dwindling resources, and climate-induced uncertainties, water resource management is a critical challenge in the 21st century. Integrating Information Technology (IT) into water resource management offers transformative solutions to optimize water usage, monitor resources, predictshortages, and enhance distribution efficiency. IT tools such as remote sensing, geographic information systems (GIS), artificial intelligence (AI), Internet of Things (IoT), and big data analytics are at the forefront of this evolution, enabling more effective planning, decision-making, and resource sustainability.

INTRODUCTION

A food may have three attributes (1) Provide energy and nutrition (2) Give pleasure, i.e., enjoyable aroma, colour, and taste and (3) Health benefits. Functional food has physiological benefits and reduces the risk of chronic disease beyond basic nutrition.

Functional foods, also reported as ‘nutraceuticals’, ‘medical foods’ or ‘designer foods’ in the literature, were first described by Roberfroid (1999) as ‘Food similar in appearance to conventional food that is intended to be consumed as part of a normal diet, but has been modified to subserve physiological roles beyond the provision of simple nutrient requirements’. Examples are iodized salts, vitamin A and vitamin D fortified milk and yoghurt, folic acid enriched bread, soy products, wheat bran and oats products.

Impatiens is the most popular bedding plant grown worldwide. The genus Impatiens is estimated to contain about 850 species (Grey-Wilson, 1980b). The majority is native to tropical and subtropical regions of India and Africa. The popularity of Impatiens walleriana is mainly due to its propensity for producing large numbers of flowers under low light intensity (Simmonds, 1980). Due to the high economic value and consumer demand for bedding impatiens, there has been a concerted effort by plant breeders to release a wide range of cultivars having different flower colours and distinctive foliage. Previously known as I. sultanior, I. holstii, it has several common names including “Busy Lizzie” and “Patience Plant”. It is one of two important groups of Impatiens in the horticulture industry with the New Guinea Impatiens (Impatiens hawkeri) group being the other. Despite being Impatiens walleriana is one of the most important bedding plants in the world, information on I. walleriana relatively scarce. Impatiens walleriana continues to lead as one of the three most important bedding plants worldwide. It is available as both seed and vegetative products. The history of its development, marketing success, wide adaptability, a large palette of flower colours and forms and unparalleled garden performance as a bedding plant for shade are described as an aid for continued crop development with breeding lessons for other flowering crops.