eChapters

Introduction

Farmers have long used biorationals such as Indigenous Technical Knowledge (ITK) in both crop production and crop protection. This understanding is the result of many generations of interaction within natural and physical environments (Rajasekaran et al., 1991 and Kolawole, 2001). ITK is the unique and local traditional knowledge that is specific to a particular culture or community and is passed down from one generation to the next and every individual has inherited this information from their ancestors. Except for a handful, ITKs are passed down from generation to generation verbally, with no validated written documents. Many definitions of ITK systems have been proposed, but all of them are incomplete because the notion is still relatively young and changing. The ITKs are environmentally friendly and compatible with pest management approaches (Deka et al., 2006). ITK was defined by Wang (1988) as “the whole body of knowledge and practices based on people’s cumulative experiences in resolving situations and issues in a variety of spheres of life and such information and practices are unique to a specific culture.” According to Haverkort, 1995, ITK is the actual knowledge of a given population that reflects the experiences based on tradition and includes more recent experiences with modern technologies. The phrase “indigenous technological knowledge” is frequently disguised with the idea that it is connected to upcoming events and the innovations developed by farmers to address certain issues. Among the associated terms are (i) Indigenous Knowledge (IK), which refers to the participant’s understanding of their social and temporal context. The term “indigenous knowledge” as used here refers to any identifiable community’s knowledge, not just which of indigenous peoples; (ii) The Indigenous Knowledge System (IKS) describes a conceptual framework for theories and perceptions of nature and culture. The physical, ecological, social, economic, and ideational surroundings are thus included, together with their definitions, categorizations, and concepts. The cognitive and empirical levels both have a role in IKS dynamics. IKS is evident in institutions, artifacts, and technology on an empirical level. ITK is expressed through stories, songs, folklore, proverbs, dances, myths, cultural values, beliefs, rituals, community regulations, local language and taxonomy, agricultural techniques, tools, materials, plant species, and animal breeds. ITK is stored in people’s memories and activities, and is expressed in the form of stories; ITK is shared and communicated orally, by specific examples, and through culture. An African proverb says “When an old knowledgeable person dies, a whole library dies” indicating the importance of ITKs. It serves as the foundation for local decisions in rural communities on agriculture, health care, food preparation, education, and a variety of other activities. Indigenous knowledge serves as a society’s information hub and helps in decision making and communication. Indigenous information systems are dynamic and constantly affected by both internal innovation and experimentation and interactions with outside systems. The phrase “indigenous technological knowledge” is frequently disguised with the notion that it is connected to upcoming events and the innovations produced by farmers to address certain issues.

7.1. Challenges in Milk Quality

Demand for milk and milk products in India is growing very rapidly, owing to urbanization, customer convenience, and the change from loose to packaged milk products. At present, the dairy sector is rising at about 10-12 per cent annually. Based on population growth projections and an increase in urbanization over the next four decades, India is projected to need approximately 600 million tonnes of milk per year to meet the demand for milk and milk products. This means that India’s milk production needs to grow at around 3.2 per cent CAGR for the next 40 years (FICCI, 2020).

Main reason of poor quantity of milk is due to unhygienic and poor condition of animal farms and dairies. Even due to high demand in foreign country we cannot export such poor quality of milk product. Many times, Indian milk products get rejected in foreign nations due to unhygienic milking milk contains high number of microbial counts. Reasons behind the quality affected in India are due to poor health of animal, polluted water and food and Unclean surrounding in farm. So, it is necessary to consider all this challenges in improving milk production. Currently most of the milking animals are not screened on regular interval of time. So, there is lots of chances that some diseases can transmitted to human beings. Farmers use antibiotics and chemical drugs to increase the production of milk this will also affect the quality of milk. These issues can be avoided by regular screening of animals in animal husbandry and also maintaining history records of health, feed etc. Quality of feed should be checked regularly. There must be pollution control in the feed and water used in cattle farms (Bhagyalaxmi, 2020).

Introduction

Persistent income from agriculture is most important for sustaining the farming sector. Conservation agriculture (CA) is a resource-saving agricultural production system that aims to achieve production intensification and high yields while enhancing the natural resource base through compliance with three interrelated principles, along with other good production practices of plant nutrition and pest management (Abrol and Sangar, 2006). Conservation agriculture is largely promoted as one of the few win–win technologies affordable to farmers, in the sense that potentially it improves farmers’ yields (in the long term) at the same time conserving the environment. CA is described by FAO (http://www.fao.org.ag/ca) as a concept for resource saving agricultural crop production which is based on enhancing the natural and biological processes above and below the ground. As per FAO definition CA is to a.) Achieve acceptable profits, b.) High and sustained production levels, and c.) Conserve the environment. It aims at reversing the process of degradation inherent to the conventional agricultural practices like intensive agriculture, burning/removal of crop residues. Shifting from tillage-based agriculture to no-tillage CA systems removes unsustainable elements in the current tillage based systems and replaces them with CA elements that make the production systems profitable and ecologically sustainable. Conservation agriculture offers an opportunity for arresting and reversing the downward spiral of resource degradation, decreasing cultivation costs and making agriculture more resource – use-efficient, competitive and sustainable.

Abstract
Milk, recognized globally as a complete food, is rich in essential nutrients like calcium, amino acids, and bioactive compounds, offering numerous health benefits such as antimicrobial, antihypertensive, and anti-carcinogenic properties. India, the world’s largest milk producer with 170 million tonnes annually (20% of global production), is witnessing rapid growth in its dairy industry, projected to reach a market value of Rs. 10 trillion by 2025. The sector, driven by modernization, cooperatives, and increasing consumer demand for value-added products like ghee, cheese, and probiotics, presents vast entrepreneurial opportunities in dairy farming, processing, retail, and machinery manufacturing. However, challenges such as poor hygiene, inadequate cold chains, and livestock health issues hinder quality and scalability. Emerging processing technologies and adherence to FSSAI regulations can enhance product quality and market potential, making dairy enterprises a cornerstone of India’s food industry and rural economy.
Keywords: Dairy Industry, Milk Production, Agri-preneurship, Value-Added Products, Food Safety, FSSAI Regulations, Livestock Management, Probiotics, Cold Chain, Sustainable Development

Introduction

Agriculture is the backbone of Indian economy and helps the system as a whole for socio-economy development of the country. Despite 51 per cent of arable land of total geographical area and about 100 million hectares of potential irrigated area, the highest for any country in the world, unfortunately the contribution of agriculture to the grass domestic product is as low as 22 per cent. India is endowed with a wide spectrum of agro climatic conditions and a large variety of fruit crops ranging from tropical, sub­tropical and temperate are grown. In India, the area under fruit crops is 3.5 Mha with a production 45MT which accounts 9.6 % of total worlds production and ranks 2nd in fruit production (Anon., 2005). The country has become self-sufficient in food grains production, second largest producer of fruits and vegetables, but still the per capita consumption per day is hardly of the order of 70 g for fruits and 140 g for vegetables.

Since the dawn of civilization, the human species had an intimate association with fruits, roots, nuts and other vegetables that sustained them through the ages. This mutualism continued and flourished through domestication and organized culture of horticultural crops. Pretty long before, homestead gardening had been evolved in different parts of the globe independently to become a part of tradition in almost every society. Plant domestication by all likelihoods started around the human settlements. The obvious reasons for this were man’s need, better supply of water and organic household wastes and protection against destruction or grazing by animals, that’s why the prospective horticultural enterprise of homestead gardens all over the world is still the most enduring and sustainable form of family food production system and very important micro-units for conservation of plant genetic resources. The traditional and indigenous endeavour of the tribal people for conservation of land races also noteworthy contribution from one generation to the next. Though cereals are staples for most of the world population, there has been sustained emphasis on horticultural crops, particularly vegetables, all over the world during last few decades. The possible reasons are:

Introduction

Mango (Mangifera indica Linn.) is one of the most nutritious tropical fruits, native to Southern Asia and especially Eastern India. Mango belongs to Anacardiaceae family and it was disseminated all over the world in the beginning of sixteenth century, and there are currently around thousand known varieties of mango. It is the dominant tropical fruit variety produced worldwide, followed by pineapple, papaya and avocado, all of which are considered as major tropical fruits. Global production of mango in 2015-16 was estimated to be about 44 million tons, accounting for nearly 50% of world tropical fruit production.

Mango is the most important fruit of India and is known as “King of fruits”. Mango is cultivated in 2,312 thousand ha and the production is around 15.03 million tons, contributing 40.48% of the total world production. Main mango producing states in India are Uttar Pradesh, Andhra Pradesh, Karnataka, Bihar, Gujarat and Tamil Nadu. Total export of mangoes from India is 59.22 thousand tons, valuing Rs. 162.92 crores during 2015-16. India exports mango to over 40 countries worldwide. Major importing countries during 2015-16 were UAE, Bangladesh, UK, Saudi Arabia, Kuwait and Bahrain. Important mango varieties are Dashehari, Langra, Mallika, Amrapali, Bombay Green, Banganapalli, Totapuri, Neelam etc.

Introduction

Soybean (Glycine max) is also known as the wonder bean or miracle bean or “golden grain” due to its diversified applicability. Soybean has an important place in world’s oilseed cultivation scenario, due to its high productivity, profitability and vital contribution towards maintaining soil fertility. The crop also has a prominent place as the world’s most important seed legume, which contributes 25% to the global vegetable oil production, about two thirds of the world’s protein concentrate for livestock feeding and is a valuable ingredient in formulated feeds for poultry and fish. The major soybean producing nations are United States, Brazil and Argentina. These three countries dominate in global production, accounting for 80% of the world’s soybean supply. Global production of soybean has grown at a CAGR of 2.78% from 215.69 million metric tons in 2004-05 to 283.79 million metric tons in 2013-14.

India stands 5^th in global production of soybean. In India, soybean cultivation started in early 1970s, but it has emerged as number one among oilseed crops covering around 11 m ha area with total production of around 11.5 m tons. At present, the average productivity of soybean is about 1.3 tons/ha and it can be easily doubled in near future. Production of soybean in India is dominated by Maharashtra and Madhya Pradesh which contribute 89% of the total production. Rajasthan, Andhra Pradesh, Karnataka, Chhattisgarh and Gujarat contribute the remaining 11% production.

About 85% of world’s soybeans are processed annually into soybean meal and oil. Approximately 98% of soybean meal is crushed and further processed into animal feed with the balance used to make soy flour and proteins. Of the oil fraction, 95% is consumed as edible oil; the rest is used for industrial products such as fatty acids, soaps and biodiesel.

Agroforestry is a collective name for land-use systems and technologies in which woody perennials including trees, shrubs, bamboos etc. are deliberately combined on the same land-management unit with herbaceous crops or animals either in some form of spatial arrangement or temporal sequence. In agroforestry system there are both ecological and economic interactions amongst the different components (Lundgren and Raintree, 1982). The origin of agroforestry practices, i.e. growing trees with food crops and grasses, is believed to have been during Vedic era (Ancient period, 1000 B.C.), the agro-forestry as a science is introduced only recently. Agro-forestry is the science of designing and developing integrated, self-sustainable, land-management systems that involves the introduction and retention of woody components such as trees, shrubs, bamboos, canes and palms along with agricultural crops including pastures or animals, simultaneously or sequentially on the same unit of land and time, to satisfy the ecological as well as socio-economic needs of people. This practice of growing trees and arable crops together on the same piece of land is an age-old practice with the dry land farmers. Agroforestry results in multiple products, increases income, reduces runoff and soil loss, utilizes off-season rainfall and radiation and gives stability to dry land agriculture. Further it makes the future generation farmers to inherit not only the land of their predecessors, but also the wealth of standing biomass of trees.

National Forest Policy (1988) has set a goal that 33% of the country’s geographical area should be under forest and tree cover. Under Tenth Five Year Plan, the Government of India has set a target to increase the country’s forest cover up to 25%. According to the latest report of Forest Survey of India (2013), the forest cover in the country is 697,898 km², constituting 21.23% of its total geographical area. Out of this, dense forest constitutes 12.24 % and open forest 8.99 %. The only solution to achieve these targets is through the practice of agroforestry. Therefore, in the quest of optimising productivity, the multi-tier system came into existence.

The Indian arid zone is characterized by high temperature and low and variable precipitation which limit the scope for high crops productivity. However, these conditions greatly favour the development of high quality in a number of fruits such as date palm, ber, aonla, bael, pomegranate, kinnow, lasoda and in vegetables cucurbits, legumes and solanaceous crops, spices, medicinal and aromatic plants. The existing low productivity could be increased by following improved technologies and inputs. It is now realized that there is a limited scope for quantum jump in fruit and vegetable production in the traditional production areas. The amelioration of the extreme conditions is also considered vital for life support to the inhabitants of this area. The recent awareness regarding the potential of these ecologically fragile lands for production of quality produce has not only opened up scope for providing sustainability for the people of this region, but also for bringing in new areas to increase horticultural production. The area expansion and yield potential of arid horticultural crops has increased many folds because of development of new varieties and advancement in production techniques in arid region.

Since the 1960s, the world population has doubled from three to seven billion, and this trend will persist in the coming decades. Because of this rapid expansion, a massive increase in crop production is required to meet the food and energy demands of future generations. Potassium is the third important plant nutrient after nitrogen and phosphorous. It is seventh most abundant element in the lithosphere. Being chemically active metal, it is never found in its pure elemental state in nature. Potassium (K) plays a particularly crucial role in a number of physiological processes vital to growth, yield, quality, and stress resistance of all crops. The K content of Indian soils varies from less than 0.5–3.0%. The average total potassium content of those soils is 1.52% (Mengel and Kirkby 1987).

The role of mechanization has of late earned considerable significance in Indian agrarian sector following the unprecedented hike in labour cost, migration of agricultural labour to the urban localities for better remuneration and most importantly, the rising concern of rural youth today for more comfort as well as social dignity and status. Furthermore, mechanization has been extremely supportive to enhance the efficacy of the vital inputs to agriculture such as high yielding seeds, fertilizer, water, pesticides etc resulting in higher production and productivity. One more significant contribution of mechanization is timely completion of various operations with qualitative and quantitative competence apart from reduction in drudgery; thus motivates the farmer to dare for higher initial investments in anticipation of rich dividends over a period of time.

The major challenges to any developing society are poverty and economic deprivation of its ruralpopulation.Eradication of poverty, the focus of all developmental efforts has remained a very complicated and serious concern among developing countries. Poverty is abysmal rooted covering several interlocked aspects such as lack of asset, under employment, uncertain and relatively unproductive employment, low remuneration, economic vulnerability, illiteracy, social disadvantage etc.

The rural areas were found to be more prone to poverty, even if it exists in urban areas also. The rural poor are perpetuating poverty and are the victims of the “vicious cycle of poverty”. Fishing communities in the coastal belts all over the world are also not an exception to this. Poverty in fishing communities is very common and is characterized by high population density, poor living conditions, lack of proper education and poor access to education and health care. Due to poor attention paid by the state, the infrastructure support like roads, electricity, good drinking water, markets etc also are be poor. Though efforts for reducing fishing pressure is taken by Government, scope for alternative employment opportunities are less. Thus those sector that are in engaged inthe world’s most dangerous occupations, are considered on par with SC/ST communities as far as India is concerned. The loss of a boat, gear or an active fisherman in the family can be tragic and lead to total financial deprivation of the family. Hence poverty and vulnerability in fishing communities is widely known but poorly addressed issue. As in rural farming sector, dependence of fishing communities on private moneylenders continues in many areas, especially for meeting emergent requirements. For various reasons, credit to these sections of the population has not been institutionalized.

The emergence of microfinance as an alternative financial delivery mechanism was a response to the failure of past efforts by government and international agencies effectively to provide financial services to the poor. But while considering micro finance programmes for fisheries sector, there should be special considerations that are unique to fishing communities and need special consideration. Instead of random payment of loans to target sectors and populations, efforts were taken for setting up and building local institutions that cater for the poor. This resulted in the materialization of microfinance institutions (MFIs) that serve the rural poor. MFIs initially started providing microcredit but have now extended their services to savings, insurance etc.

1. Introduction
The environment and human health are seriously threatened by contaminants,both organic and inorganic, whose prevalence and persistence have beensteadily rising in recent years. In addition to propelling economic and scientificadvancement, the industrial revolutions of the 19th and 20th centuries have alsoled to widespread pollution (Wuana & Okieimen, 2011; Singh et al., 2013).Industrial activity has increased trace metal concentrations in the environment,with sediments acting as key sources and reservoirs for heavy metals. Thesemetals build up in soils and aquatic bodies as a result of scouring, erosion,rainfallleaching, wastewater discharge, and atmospheric deposition (AlonsoCastillo et al., 2013). Additionally, toxic contaminants like phenols, industrialeffluents, domestic wastewater, agricultural runoff, fly ash, fertilizers, andwaste from insecticides, pesticides, and pharmaceutical industries infiltratethe environment and food chain via mechanisms such as bioaccumulation,biomagnification, and bioconcentration (Arora & Bae, 2014; Azubuike et al.,2016).

Introduction

Natural resources, especially those of soil, water, plant and animal diversity, vegetation cover, renewable energy resources, climate, and ecosystem services are fundamental for the structure and function of agricultural systems and for social and environmental sustainability, in support of life on earth. Historically the path of global agricultural development has been narrowly focused on increased productivity rather than on a more holistic integration of natural resource management with food and nutritional security. A holistic, or system-oriented approach, is preferable because it can address the issues associated with the complexity of food and other production systems in different ecologies, locations and cultures. Modern agriculture largely depends on the use of fossil fuel-based inputs, such as chemical fertilizers, pesticides, herbicides and energy intensive farm machinery. While the applications of such high input technologies have undoubtedly increased production and labour efficiency. There is a growing concern over their adverse effect on soil productivity and environmental quality which is emerging to recognize that the farmer has a great social responsibility as a land owner than merely agribusiness considerations. Therefore, there is need to develop agricultural techniques that are ecologically sound, economically viable, and socially responsible. Sustainable agriculture in the context of development helps to achieve production efficiency, protect ecosystem functions, enhance resilience to climate change, ensure healthy communities, satisfies basic needs and ensures optimum use/conservation of natural resources. Organic/biodynamic farming is among the various types of sustainable agriculture. Traditionally these methods has been playing very vital role in the conservation of natural resources in terms of soil health sustenance, environmental protection, food safety, waste recycling, biodiversity conservation with an economically viable approach. The chapter discusses the role of organic/biodynamic agriculture in natural resource conservation.

Introduction

The green revolution technologies involving the greater use of synthetic agrochemicals with adoption of nutrient responsive, high yielding varieties of crops have boosted the production output. However, this increase in production has slowed down and in some cases there are indications of decline in growth of productivity and production. Environmental and health problems associated with agriculture. These questions have given rise to a process of serious thinking to safeguard the environment and the quality produce.

Abstract

Northeast is famous for its rich bio-diversity and Himalayan scenic beauty. Society is mainly agricultural based but the crop productivity is low in comparison to all India average. Major reasons are lacking of a). Improved cultivation technology at village or at farmers level, b). Agricultural inputs like high yielding seeds, chemical fertilizers and pesticides due to poor infrastructural facility, c). Land tenure system, etc. The agro climatic condition is very suitable to grow different types of vegetables round the year. Hilly areas offer a scope to grow certain vegetables as off-season vegetables and earn a high price. Northeast soils need application of nutrients for improving its productivity. Century old Jhoom cultivation technique, high soil erosions in hilly areas and regular floods in plains also play a vital role in developing reluctance among farmers in using costly chemical fertilizers. Profuse growth of vegetations e.g. grasses; weeds, jungles, etc. are noticed due to regular rainfall throughout northeast. Peoples usually burn these during clearing their fields and backyards for cultivation. These can be converted to good quality compost using vermicomposting technique and added to field for cultivation of different crops substituting chemical fertilizers. Experiments on cabbage, cauliflower, French bean, okra, onion and tomato showed that yield increased considerably with the application of compost in field.

This chapter introduces the concept, importance and prospects of protected floriculture in India. It explains how greenhouses and other protected structures help overcome limitations associated with temperature, photoperiod, humidity, carbon dioxide, nutrients and wind. The chapter examines the global and Indian development of protected cultivation, its role in year-round production, resource optimization, quality improvement and higher productivity. It also discusses present challenges, technological developments, automation, soilless cultivation, smart greenhouses and future opportunities for climate-resilient and sustainable flower production

Introduction

The Greek term "Sericos" is the source of the English word "sericulture". The words "Seri" and "Cos" in this word both refer to culture. Sericulture is the art of rearing the silkworms for the purpose of producing silk. An elastic protein of insect origin, silk is synthesized by the silk gland of the silkworm. Fibrion and sericin, two various types of proteins, constitute the fiber known as silk. Silk is most frequently produced by chins. Following China, India is the second-largest producer of silk. Furthermore, it is the world's largest consumers of silk. The major silk producing state in India is Karnataka. Tasar, Muga, Mulberry, Oak tasar, and Eri silk are all produced in India. One other commercial fabric of animal origin outside wool is silk, which is a gift from nature to humans.

7.1 INTRODUCTION

Production of temperate-zone fruits in subtropics may seem fanciful to be initiated, but it is a practice that has existed in localized regions for generations. Seedling peaches are grown in Venezuela, Northern Thailand, and Southern Mexico. No one knows precisely when these species were introduced, but local selection has produced cultivars adapted to areas with little or no chilling temperatures. Rest either does not occur or is sufficiently shallow to be broken by stress induced by defoliation or drought. Commercial cultivations of temperate-zone fruits are well-established in subtropical areas, where winter temperatures allow partial breaking of the rest period. In areas of Northern Mexico, Southern Africa, and Israel, for example, chemical treatments are regularly applied to supplement the effects of limited chilling. Because temperature declines with increasing elevations, many microclimates exist in the subtropics where temperate-zone fruits are not currently grown, but could be. Subtropical regions where temperate fruits are grown include the southern past of California (Mediterranean type), the low deserts of the Southwest USA (hot arid type), the Gulf Coast and most of Florida (humid type), the Southern Mediterranean and Northern Sahara, Northern India, Southeast China, the middle part of South America, and much of Australia. Similar potential climatic conditions are also available in subtropics of India.