eChapters

Introduction
Horticulture, the science and art of cultivating fruits, vegetables, and ornamental plants, is a vital component of agriculture that contributes significantly to food security, economic growth, and environmental sustainability. This chapter provides a comprehensive overview of horticulture, exploring its various branches, including fruit and vegetable production, floriculture, landscape design, and greenhouse management. Horticulture is unique in its integration of scientific principles, artistic design, and business acumen, making it a dynamic and multifaceted field.
The chapter begins by introducing the fundamental concepts of horticulture and its importance in modern agriculture. It delves into the specifics of fruit and vegetable production, emphasizing the techniques and practices that enhance yield and quality. Floriculture and landscape design are also discussed, highlighting the aesthetic and environmental benefits of ornamental plants. The chapter further explores post-harvest handling and storage, crucial aspects that ensure the longevity and marketability of horticultural products.
In addition to traditional practices, the chapter addresses modern horticultural techniques, such as greenhouse management, which plays a crucial role in extending growing seasons and improving crop quality. Sustainable horticultural practices are also emphasized as key strategies for addressing global challenges like climate change and food security.
Horticulture is a branch of agriculture that focuses on the cultivation, production, and management of plants, particularly fruits, vegetables, ornamental plants, and flowers. This chapter explores various aspects of horticulture, including an introduction to horticulture, fruit and vegetable production, greenhouse management, floriculture and landscape design, and post-harvest handling and storage. Horticulture plays a vital role in agriculture, encompassing the science and art of growing plants for food, aesthetics, and environmental enhancement. This chapter delves into the exciting world of horticulture, exploring the cultivation and management of fruits, vegetables, ornamental plants, and flowers. Horticulture combines scientific knowledge, practical skills, and artistic creativity to maximize plant growth, yield, and aesthetic appeal. By studying horticulture, we can gain insights into the principles and practices that contribute to successful fruit and vegetable production, greenhouse management, floriculture and landscape

Watershed is defined as a natural hydrological unit that covers a specific land surface area from which runoff passes through a common outlet or area with common drainage or outlet. In simple terms, it implies a catchments or drainage basin from which water drains towards a single channel. It may extend over a few acres only or may cover thousands of acres.

Watershed management is the integration of technology within the natural boundaries of a drainage area for optimum development of land, water and plant resources to meet the basic minimum needs of the people in a sustained manner.

It is also defined as the development and management of watershed resources in such a manner as to achieve optimum production without deterioration of resources base or disturbing the ecological balance. It is also termed as “Resource centered technology” since it helps in assessment, augmentation and optimal utilization of all natural resources viz., land, water and vegetation, it prevents deterioration of resources and at the same time ensures sustained productivity of land to meet basic needs of people.

INTRODUCTION

Banana (Musa species) also known as ‘Apple of Paradise’ is an important and commercial fruit crop of tropical regions of the world. It is the only tropical fruit traded to the extent, that it is the 5th largest agricultural commodity after cereals, sugar, coffee and cocoa in world market.

The word ‘banana’ is now applied to all table varieties. Formerly, it was applied to ‘Nendran’ banana of Kerala which was however called ‘Plantain’ by Westerners. The English used the word ‘Plantain’ to represent cooking banana while in parts of South India, even sweet fruited clones were called ‘Plantains’. The variant with persistent bracts and male flowers with large fruits held in lax manner and eaten after cooking were grouped under plantains. All other types which had small fruits, held compact in a bunch with softening of the pulp when ripe, dropping of withered bracts and staminate flowers as the banana. In other words plantain are starchy, not sweet and cooked as vegetable. They usually resembles green bananas, are longer and have thick skin. Bananas are sweet, shorter and have thinner skin. They are eaten as a fruit and have yellow colour when ripe.

    1.    Asepsis is a process of 
        a)    Removal of microorganisms    
        b)    Keeping out microorganisms
        c)    Hindering the growth & activity of microorganisms    
        d)    Killing the microorganisms
    2.    Self-decomposition of the food is prevented by
        a)    Inactivation of enzymes    b)    Delay of chemical reactions
        c)    a & b    d)    None
    3.    Commercially available fruit beverages are generally pasteurized at 
        a)    85°C for 25 to  30 min    b)    62.5°C for 25 to  30 min
        c)    71.1°C for 15 to  30 sec    d)    92.1°C for 15 to  30 min

INTRODUCTION

Pineapple [(Ananas comosus (L.) Merr., Bromeliaceae)] is a commercial, tropical American crop, popularly known as “Golden Queen” all over the globe. The name ‘pineapple’ was given in the mid-17th century because of its resemblance to ‘pine cone’. Its botanical name Ananas comes from ‘anana’, the Tupi word for the fruit, meaning “excellent fruit” and comosus means tufted and refers to the stem of the fruit.
 
Pineapple is a monocotyledonous, low-growing,herbaceous and perennial with a spiral of spiny sword-shaped leaves on a thick stem. It has 90 to 100 cm height with spreading leaves, which give the plant a rosette appearance.The plant bears a single fruit terminally on a peduncle protruding out from the centre of the rosette. The fruit is mostly a large juicy fruit containing aromatic, edible, yellow flesh surrounded by a tough segmented skin and topped with a tuft of stiff leaves.

Introduction

Livestock sector plays a significant role in the Indian economy, particularly for the welfare of rural population of India. The importance of livestock in India's economy can be gauged from the fact that 90 million farming families rear over 90 million milch animals. Of the total household in the rural areas, about 73 percent own some form of livestock, three-quarter of which are reared by small and marginal farmers.

Today, the overall growth rate in livestock sector is steady and is around 4-5%, despite the fact that investment in this sector is not substantial. This is possible due to the egalitarian distribution of the livestock as compared to land among landless labourers, small and marginal farmers thus resulting in balanced development of the rural economy particularly in reducing the poverty especially among the weaker sections of the society. Livestock also plays an important source of employment in rural India, especially for women. The rural woman plays a significant role in most of the animal husbandry operations related to feeding, breeding, management and healthcare of the livestock.

Livestock plays an important and vital role in providing nutritive food to families both in rural and urban areas. Since the dawn of civilization, mankind has been utilizing different animal species for a variety of purposes, viz., production of milk, meat, wool, egg and leather, draught power, companionship, entertainment, research experimentation, sports, security, etc. Livestock wealth is deemed to be as the oldest wealth resource for mankind and was once a symbol of economic status in the society. This is one sector where poor contributes to the growth directly instead of getting benefit from growth generated elsewhere. The effect of livestock sector growth on poverty is anecdotal, yet scattered evidence on livestock's contribution to income indicates that growth in livestock production is pro-poor.

Abiotic Stress Tolerance: The ability of plants to withstand and adapt to nonliving environmental stressors, such as drought, salinity, or extreme temperatures. Afforestation and Reforestation: Afforestation involves planting new forests in previously non-forested areas, while reforestation involves restoring degraded or deforested lands with trees to sequester carbon. Agrarian Society: A society characterized by agriculture as the primary means of subsistence and economic activity. Agrarian: Pertaining to the cultivation of land, agriculture, or rural life. Agribusiness: The commercial activities, including production, processing, and distribution, related to agriculture and farming. Agricultural Chemistry: A branch of chemistry that focuses on chemical processes and substances related to agriculture, including soil chemistry, fertilizer composition, and pesticide development. Agricultural Diversification: The strategy of expanding the range of crops, livestock, or other agricultural activities in a rural area to increase income and food security. Agricultural Economics: A branch of economics that focuses on the production, distribution, and consumption of agricultural goods and services, as well as the economic factors and policies that influence agricultural markets. Agricultural Extension: The application of scientific research and new technologies to agricultural practices through education and advisory services. Agricultural Innovation: The process of developing and adopting new ideas, practices, and technologies in agriculture. Agricultural Machinery: Various mechanical devices and equipment designed for use in farming, such as tractors, plows, and harvesters. Agricultural Subsidies: Financial incentives provided by governments to farmers or agricultural producers to support their production, stabilize prices, or achieve other economic or social objectives. Agriculture: The science and practice of cultivating crops, raising livestock, and managing resources for food production and other agricultural products. Agroecology: The scientific discipline that applies ecological principles to the design and management of sustainable agricultural systems, focusing on biodiversity, nutrient cycling, and reduced environmental impact.

Cooperative

A cooperative is a duly registered association of persons, with a common bond of interest that have voluntarily joined together to achieve a lawful common social or economic end, and making equitable contributions to the capital required and accepting a fair share of the risks and benefits of the undertaking in accordance with universally accepted cooperative principles.

Cooperative may be defined as an autonomous association of persons united voluntarily to meet their common economic, social, and cultural needs and aspirations through a jointly-owned and democratically-controlled enterprise. It is a business organization owned and operated by a group of individuals for their mutual benefit.

A cooperative may also be defined as a business owned & controlled equally by the people who use its services or who work at it.

The basic objective of every cooperative is to provide goods and services to its members and thus enable them to attain increased income and savings, investments, productivity and purchasing power and promote among them equitable distribution of net surplus through maximum utilization of economies of scale, cost-sharing and risk-sharing without however, conducting the affairs of the cooperative for missionary or charitable purposes.

I. POST HARVEST DISEASES

A. Post-Harvest Diseases of Fruits

This chapter explores the essential techniques used in veterinary parasitology to collect, identify, and diagnose parasitic infections. These methods are crucial for understanding general animal health, the complex relationships between parasites and their hosts and for tracking disease outbreaks, that will ultimately allow the development of effective control strategies. Whether in a research lab or a clinical setting, the techniques discussed here are widely used to detect and study parasites that impact both domestic and wild animals.
2.1 Collection of Specimens for Parasitological Examinations
Different species of parasites affects almost all parts of the host. These organisms can inhabit virtually every organ system of the host animal, from the brain and lungs to the digestive tract and skin. Therefore, a thorough examination of both living animals and post-mortem cases is essential for collecting parasites and determining cause of death (when applicable). When collecting from live animals, samples should be collected after through exanimation of the animals and following the standard procedure. The collection of correct samples, use of appropriate transport media and proper handling of specimens are crucial factors that directly influence diagnostic accuracy.
The type of specimen collected depends on the methods of identification and diagnosis. For example, diagnosis of blood parasites requires specific types of samples: peripheral blood smears for microscopic examination of hemoprotozoans, serum or plasma for ELISA and other serological tests, and unclotted whole blood for molecular diagnostic methods such as PCR and qPCR.

Abiotic Stress in Plants
             
World population is growing at an alarming rate and may reach about 6 billion by the end of the year 2050. Though, the agricultural productivity is also being increased world over, yet it is not keeping pace to meet the demand of food availability. The main reasons for limiting the agricultural productivity are water shortage, depleting soil fertility and mainly various abiotic stresses and climatic change. Minimizing these loses is of primary concern for all nations to cope with the increasing food requirement. The abiotic stress is defined as the negative impact of non living factors on the living organism in a specific environment and abiotic stress is the most harm full factor concerning the growth and productivity of crops worldwide. Researches have shown that abiotic stressors are at their most harm full when they occur together in combination of abiotic stress factors (Mittler, 2006; Bianco and Defez, 2011). Numerous stresses caused by complex environmental conditions i.e. drought, too high and too low temperatures, freezing, salinity, UV light, heavy metals and recently through smog (air pollution) leading to substantial crop losses worldwide (Mahajan and Tuteja, 2005). The abiotic stresses might increase in the near future even because of global climatic change.

Food is composed of three main constituents viz; carbohydrates, proteins and fats and their derivatives. In addition to these constituents, inorganic mineral elements and diverse organic compounds like vitamins, pigments, flavouring compounds, enzymes, and acids are also present. Carbohydrates, proteins, fats and vitamins are organic in nature. The percentage of water is large in certain foods. The variation in structure, texture, colour, flavour and nutritive value is because of the varying proportions and arrangements of these constituents.

Carbohydrates are important in foods as a major source of energy, to impart crucial textural properties, and as dietary fiber which influences physiological processes. Digestible carbohydrates, which are converted into monosaccharides, which are absorbed, provide metabolic energy. Carbohydrates account for more than 70% of the caloric value of the human diet. It is recommended that all persons should limit calories from fat to not more than 30% and that most of the carbohydrate calories should come from starch. Non-digestible polysaccharides (all other than starch) comprise the major portion of dietary fiber.

ABSORPTION (of light): A process by which light is taken-up by another material. Examples include soot consisting of tiny black particles, which absorb all visible light; and nitrogen dioxide, a pollutant mostly from diesel and gasoline engines, that absorbs blue light resulting in air with a brown tint.

Introduction

The term pesticide refers to any chemical or mixture of chemicals intended for preventing, attracting, repelling, controlling or regulating a pest, including unwanted species of plants and animals during the production, shipment, transit, storage, processing or distribution of any food or agricultural commodity. The term includes compounds classified as insecticides, fungicides, herbicides, accaricides, rodenticides, plant growth regulators, sprouting inhibitors, chemosterilants, desiccants etc. The term excludes substances like animal drugs and food additives. Pesticides are chemicals used to destroy or control weeds, insects or other pests. The term pesticide residue refers to the remnants of the pesticide after weathering and it consists of the parent molecule and the degradation products which are toxicologically significant. In general, the pesticides, by virtue of their inherent toxic nature are recommended to be used as per Good Agricultural Practices (GAP) only. If GAP is not followed, contamination of the produce with the residues may pose significant health risk to consumers, non target organisms, biota and environment as a whole. When a pesticide is used for pest control purposes, they may reside in the form of metabolites.

Pesticide residues occur as the leftover of any pesticide after its application for pest control and it includes the parent compound and its toxic metabolites. Pesticide residue analysis may be defined as qualitative and quantitative analysis of samples drawn from agricultural field, market and environment for pesticides and toxic metabolites. Pesticide residues are invariably present in micro – quantities and generally estimated at ppm/ ppb levels. After application of the diluted spray solution, they are present at sub microgram levels in the substrate and hence their estimation at ppm or ppb levels is very cumbersome and need to be performed with utmost care. Moreover, the residue data generated should be accurate, reliable and reproducible. The level of residue in any edible commodity has to be below their prescribed maximum residue limits (MRL) value for market acceptance and below maximum permissible intake (MPI) for safety to consumers. Pesticide residue data are mainly utilised by regulatory authorities for estimation of MRLs and for assessing impact on human health and environment, particularly their adverse effect on non-target organisms. The detection of the pesticide residues must be confirmed beyond doubt and confirmation by GC-MS/MS or LC-MS/MS is generally acceptable. Since pesticide residues include parent compounds, isomers and toxic metabolites, appropriate methods of detection should be selected so that all the components are measured separately. Environmental samples/ market usually contain residues of large number of pesticides, for which multi residue methods are required for estimation/screening of such samples.

Revolutionizing skin cancer detection
The diagnostic process for skin cancer is evolving. Physicians have in the past relied upon physical exams to be followed by scanning and biopsies taking anywhere between 15 days to return results. Although most abnormalities turn out to be non-cancerous, this is distressing to patients and contributes to healthcare costs. Additionally, certain growths that turn out to be cancerous remain undiagnosed since they have not been visible.
Breakthrough startup Damae Medical is set to reverse this process. The startup has developed an advanced probe that is able to take 3D images of the skin to unveil the full extent of abnormalities in real time. This enables doctors to diagnose in an instant, enabling improved personalized treatment. When an operation is required only diseased tissue is removed to prevent unnecessary treatments and improved outcomes in patients.
The Origins in the Institut d’Optique
The beginnings of Damae Medical can be traced to Palaiseau-based Institut d’Optique where in 2013 two photonics students envisaged potential in an emerging imaging tech. Together with the inventor himself in 2014, they cofounded Damae Medical by taking an exclusive license to the core family of patents held by three partner institutions. While this contract was beneficial in launching the company to an early growth spurt, in the long run created difficulty in exercising control. This was resolved by taking an equity-forcontrol purchase in 2019 by Damae to acquire the foundational patent

We get energy from food. We need energy for all the activities which we get by eating. The body structures as muscles, organs and bones are composed of the nutrients contained in food which are absorbed by the body.

Nutritional requirement of the major nutrients

Nutrients are the substances which are found in food and drive biological activity. They are essential for the human body. These are categorized into proteins, fats, carbohydrates (sugars, dietary fiber), vitamins and minerals (Sugishima, 2019). They perform the vital functions like building all parts of the body as muscle, bone, teeth and blood. Out of the 20 different kinds of amino acids that make up proteins nine are not synthesized in the body and are therefore called essential amino acids. These essential amino acids have to be supplemented through food. High-protein, low-carbohydrate diets have been found to be effective.Protein is an important component of every cell in the body. Large part of hair and nails are made up of proteins. The human body uses protein to build and repair the tissues, helps in making enzymes hormones and other body chemicals. Protein is an important building block of bones, muscles, cartilage, skin and blood.

Animal Genetic Resources

Agricultural biodiversity is the product of thousand years of activity during which humans have sought to meet their needs in a wide range of climatic and ecological conditions. Well adapted livestock have been an essential element of agricultural production systems. For livestock keepers, animal genetic diversity is a resource to be drawn upon to select stocks and develop new breeds. More broadly, genetically diverse livestock populations provide society with a greater range of options to meet future demands, so the wise management of the world’s agricultural biodiversity is becoming an ever greater challenge for the international community. The livestock sector in particular is undergoing dramatic changes as large-scale production expands in response to surging demand for meat, milk and eggs (FAO, 2008).

Animal genetic resources (AnGR) include all animal species, breeds and strains that are of economic, scientific and cultural interest to humankind in terms of food and agricultural production for the present or the future. Domesticated animals are considered to be those species that are bred in captivity and modified from their wild ancestors to make them more useful to humans, who control their reproduction (breeding), care (shelter, protection against predators) and food supply (Diamond, 2002; Mignon-Grasteau, 2005). Only about 40 animal species have been domesticated since the Pleistocene. Common species include cattle, sheep, goat, chicken, duck, pig, horse, buffalo, rabbit, camel, donkey, elephants, various poultry species, reindeer, etc. All these AnGR are vital to the economic development of the majority of countries in the world playing an important role in the subsistence of many communities. Although only a subset of the diversity present in the ancestral species survived in the domestic counterparts, domestic livestock diversity has been continuously evolving.

Pulses occupy an important place in hill agriculture. They are complementary to cereals in production and consumption being an important source of protein and nitrogen fixing ability which helps in improving soil health. Thus, cultivation of pulses has a positive relationship with our environment, human health and food security. Pulses produced in the hills are famous for their cooking quality, taste and flavour.
 
Himachal Pradesh has emerged as a model hill state in which agriculture is a dominant economic activity and major source of employment and income to the rural people. Being a hilly state, agriculture is practiced on about 10% of the geographical area. Out of which nearly 80% is rainfed. During the last three decades, the farming scenario has changed significantly. The area under fruits, vegetables and cereals has increased tremendously at the cost of pulses and oilseeds. There is, therefore, an urgent need to reverse this trend as pulse cultivation will not only increase soil health but save precious foreign exchange.

Definition and Concept Agro-Forestry

Agro forestry is an age-old practice of integrating farming with practices, preferably on the same unit of land on sustainable basis. Agro forestry systems have received increasing emphasis in the recent years because of their potential to yield fodder, fuel wood and small timber in addition of food. Shortage of fuel woods for construction and commercial purpose. Implementation of development activities like mining, quarrying and river valley projects are the other reason for deforestation. Shifting cultivation, which is practices in the North-Eastern zone of India, has also affected forest acreage.

Definition: The practices of including trees in crop or animal production agroecosystem. Agro forestry may be defined as an integrated self- sustained land management systems, which involves deliberate introduction / retention of woody components with agriculture crops including pasture / live stock, simultaneous or sequentially on the same unit land, meting the ecological and socio -economic needs of people. Or Agro forestry is a collective name of land use system and technologies where woody perennials are deliberately used form the same land management units as agricultural crops and or animals in the same form of spatial arrangement of temporal sequence. In agro-forestry systems, there is both ecological and economic interaction between different components.

Measurement of water used in irrigation ensures the application of required amount of water in crops. Knowing the rate of flow the adjustment to period of control at gates, etc. can be done to regulate the water at different branches of canals. To get the total control over the supply of water there should have the provision of water measurement at the critical points in irrigation systems.

Units of Measurement

Water is measured at rest or in motion. The water of reservoir, ponds, tanks, etc. at rest is measured in volumetric unit as liter, cubic meter, hectare-meter and hectare-centimeter. Water flowing in rivers, canals, channel, etc. is measured in liter/s, liter per hour, meter per second and hectare-meter per hour or day.