eChapters

1. Introduction

India’s horticulture sector stands as a beacon of promise and potential within the agricultural landscape, showcasing a rich diversity of fruits, vegetables, tubers, spices, flowers, medicinal and ornamental plants as well as herbs. This sector provides livelihoods for millions of farmers and plays a crucial role in ensuring food security and nutritional well-being. Amidst the challenges posed by climate change and environmental degradation, the resilience of horticultural crops becomes increasingly significant. Diversifying towards resilient crops and sustainable practices not only mitigates risks but also enhances the sector’s adaptability to changing climatic conditions. Investment in research and development to breed climate-resilient varieties and promote agroecological approaches is imperative. Furthermore, promoting organic and niche horticulture products presents exciting opportunities for Indian farmers to capture premium markets both domestically and internationally. With growing consumer awareness and demand for healthy and nutritionally rich food, India’s horticulture sector is well-positioned to become a global leader in organic and exotic produce.The recent trend of exploring new crops within Indian horticulture promises to diversify farmers’ income sources and address emerging challenges such as climate change and shifting consumer preferences.

Key words : Horticultural Resource Information System. INARIS.

Introduction

Wide ranging Indian climatic conditions are well suited for boosting production of a variety of horticultural crops (fruits, vegetables, flower/ornamental/medicinal and aromatic crops) which presently hold an important position in the global scenario. Development was at a very low ebb till the Third Five-Year Plan and increased significantly since the Seventh Five Year Plan (Rs.10,000 millions plan outlay). Government of India established National Horticultural Board (NHB) in 1984 and Agriculture and Processed Food Products Export Development Authority (APEDA) in 1986 to facilitate its larger development. The outlay is expected to increase even more in the Tenth Plan. Significant progress has been made in area expansion of different horticultural crops resulting in higher production. Besides, use of modern technologies has also brought about improvement in productivity. More than 50 per cent increase in production is seen in many of the horticulture crops during last one decade.

The efficient planning and implementation of different developmental programs on horticultural crops depends on production parameters like soil suitability, varietals dominance, marketable surplus, marketing channels, post harvest handling practices, cost of cultivation and market availability for sustained production. In addition, information on latest technologies developed by various research organizations on horticultural improvement, production, protection and post-harvest technologies are needed to be collected and made available to the scientists, planners and managers working in the related fields. But the available information on this aspect is scattered and the database is too weak to provide adequate support for developmental strategies. The digitization of comprehensive database on horticultural crops will definitely enhance the pace of increasing the area, production, productivity and promoting industry of horticultural crops that have taken lead in the new millennium with reference to nutritional quality of food and export potential. A strong, well-knit database to support need-based, market-driven and cost-effective horticultural development is imperative. Therefore, under National Agricultural Technology Project (NATP) a Mission Mode Sub-project on “Integrated National Agricultural Resources Information System (INARIS)” has been taken up to evolve a comprehensive computerized data management system on various agricultural resources like crops, animals, fishes and natural resources by harnessing RDBMS and GIS. The Co-operating Center at Indian Institute of Horticultural Research, Bangalore has developed the “Horticultural Resources Information System” with the objectives of (i) integrating existing databases in horticulture, (ii) designing and developing a comprehensive database in horticulture and (iii) developing resource maps of major horticultural crops in the country by integrating attribute and spatial data through GIS. In addition to simple storage and retrieval it will include other functions such as manipulation and dissemination of information to various users. This database will be integrated with 13 other Co-operating Centers dealing with different agricultural resources through a virtual private network (VPN). The Lead Center at Indian Agricultural Statistics Research Institute, New Delhi provide warehouse facility with a capability to analyze the data variously and provide report as cubes, tables and graphs to form a national database to cater to the needs of the users through a website. The facility of retrieving information as value-added maps using GIS will also be built in.

Introduction

Since times immemorial, world agriculture is following the traditional agri-horticultural methods for livelihood support. With unusual growth of population and faster development of industrial sector, a steep competition surfaced among the domestic, industrial and agricultural sectors for land, water and other natural resources. Though agriculture uses a major chunk of land and water for crop production, it becomes insufficient to provide food, nutritional and aesthetic security to the growing millions at global level in general and the third world nations in particular. Hence, there lies a need to take the avenue of Integrated Farming practices by following the logics of Precision Farming. All over the world, farmers work hard but do not make money, especially small farmers because there is very little left after they pay for all inputs (seeds, livestock breeds, fertilizers, pesticides, energy, feed, labour, etc.). The emergence of Integrated Farming Systems (IFS) based on horticulture farming could help to develop a framework for an alternative development model to improve the feasibility of small sized farming operations in relation to larger ones. Integrated farming system (or integrated agriculture) is a commonly and broadly used word to explain a more integrated approach to farming as compared to monoculture approaches.

Introduction

The ongoing need to create effective agricultural systems that can meet a farmer’s needs is driven by the demand for food, feed, fodder, and natural resources. More than 86 percent of Indian farm families, compromising marginal and small farmers, live in risky, diversified production conditions. There is limited room for horizontal growth of land for agriculture due to the increasing population and declining land per capita. Small and marginal farmers, who make up 84.97 percent of all operational holdings and operating 44.31 percent of the area, need a powerful tool to ensure income, livelihood security, nutritional security and employment in a sustainable manner.

Introduction

We live in India, a country which is in its developing phase and would be developed soon and also where most of the population is concentrated in the rural areas. So, eventually, rural development emerges to be of much importance for the overall economic development of the nation. But it’s a big disgrace for us that the population in the majority lies below the line of poverty. The development of households in rural areas is of much significantly related to entrepreneurship. Entrepreneurship can be regarded as a tool to fasten up the process of rural development.

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

1. Leading cut flower exporter in the world is Netherlands.
2. Concept of lawn was developed in England.
3. In which garden, arrangement of rocks is main feature Japanese garden.
4. Shrubs or trees planted at regular intervals on boundry for fencing Hedges.
5. The green carpet for the landscape maintained by growing and mowing grasses. Lawn.
6. Thorny fencing plant used as a hedge Inga dulcus.

1. Area, Production and Productivity of Horticultural Crops (2013-2014)

Abstract

Cultivated cucurbitaceous plants viz., pumpkin, Cucurbita moschata Duch ex Poir.; karingada, Citrullus lanatus (Thunb.); ridge gourd, Luffa acutangula Roxb.; sponge gourd, Luffa cylindrica Roemer and cucumber, Cucumis sativus (L.) and wild cucurbitaceous plants viz., little gourd, Coccinia grandis (L.); kan kareli, Momordica charantia (L.); Gothamada, Cucumis callosus (Rott.) Cogr.; tutar vela, Luffa acutangula (L.); tumada, Citrullus colocynthis (L.); kankoda, Momordica dioica Roxb. and ankhfooti, Trichosanthes bracteata (Lam.) were recorded as hosts of fruit flies in Banaskantha district of north Gujarat. Melon fly, Bactrocera cucurbitae and Ethiopian fruit fly, Dacus ciliatus were the major fruit fly species infesting these cucurbitaceous plant. The relative abundance of both the species were almost the same in cultivated hosts whereas, D. ciliatus was more abundant in wild hosts.

The post-independence history of our agriculture can be broadly grouped into four periods. Before describing them, I should mention that during the colonial era famines were frequent and Famine Commissions were abundant. The growth rate in food production from 1900 to 1947 was hardly 0.1 per cent. Most of the important institutional developments in agriculture emanated from the recommendations of Famine Commissions. The great Bengal Famine of 1942-43 provided the backdrop to India’s independence. It is to the credit of Independent India that famines of this kind have not been allowed to occur, although our population has grown from 350 million in 1947 to over a billion now.

Abstract

Human Resource Management (HRM) is an essential function of every organization. Information Technology (IT) application has made such ‘human resource management’ function easy, to a great extent. Now a day, IT has been used widely across the organizations to perform different functions like, Recruitment, training, maintenance and development etc. Human Resource Information System (HRIS) is one of the latest contributions of IT to the area of human resource management, which is going to revolutionise management in 21st Century. Technology has brought changes in the existing working styles of organisations. By the introduction of HRIS, it enhances the efficiency of the organisation by changing the traditional way of working. In Human Resource Information Systems, many organizations use employee data in traditional ways. These can create conflict with the rights and interests of employees, with external stakeholders, and with society at large. The present paper discusses such issues. Other soft issues like, challenges and possible solutions are also discussed.

Abstract

Hundreds of bacterial taxa makes up human gut microbiota and it is comprised primarily of anaerobes belonging to four main phyla which are Firmicutes, Bacteriodetes, Actinobacteria, and Proteobacteria. Anaerobes colonizes the human body, including oral cavity, small intestine, vagina, skin but the majority of them are housed in the colon. The composition and distribution anaerobes varies along the length of gastrointestinal tract because of variation in oxygen gradient, anatomy of intestinal tract and other host physiological factors. Human gets colonized by anaerobes during the birth and these initial colonizers have impact on infant’s health status. The colonization and development of the gut microbiome is responsive to variety of factors including the mode of delivery, feeding methods, environment etc. The human gut microbiota plays an important role in healthy status of host. It plays an important role in nutrient metabolism and absorption, synthesis of vitamins and production of short-chain fatty acids (SCFAs). In turn these metabolites have positive effect on host immunity and overall host fitness. Studying, the anaerobes using culturing method remains critical in microbiology. However, culturomics approach, combined with sequencing technology, provides new insights in studying anaerobes of human gut microbiota. In this chapter we have discussed that, how human gut is an ideal habitat for the colonization and growth of anaerobes and their impact on host health. We also tried to shed light on latest technical advancement in sequencing culturing technology and their application in studying gut anaerobes.

Population Growth
Around 1810, it took all of human history for the population to reach one billion. This quadrupled to 2 billion people in just 120 years (1930). Then, in 45 years, 4 billion (1975). From 4.4 billion in 1980 to 5.8 billion in 1997 and 7 billion now, the world’s population has increased. It is predicted that in less than 40 years, that number will double again to 11 billion. This indicates that more people than ever before are joining the group every day.
The United Nations Population Fund (UNPF) predicts that by 2025, there will be 10 billion people on Earth, and by the next century, there will be 14 billion.
Birth rates have decreased along with mortality rates, although death rates have decreased more quickly. In most affluent countries, there are approximately 1.6 births for every death, but in less developed countries, the ratio is closer to 3.3 births for every death. Every twelve years, a billion more people live on the planet.
Reasons Behind the Quick Population Growth
• A rise in the distribution and production of food.
• Gains in the field of public health
• medical technology, as well as improvements in education and living standards in many poor countries.

India is home of 16.7 % of the world population living in just 2.4 % of the worlds total land area. The decennial increase in population (1991-2001) has been 18.1 equivalents to the total population of Canada, France and Germany. The population in this century has 1.6 billion by 1960.

5.1 Population Growth

In 2000, the world had 6.1 billion human inhabitants. This figure may rise to more than 9 billion in the next 50 years. For the last 50 years, world population multiplied more rapidly than ever before, and more rapidly than it will ever grow in the future. Anthropologists believe the human species dates back at least 3 million years. For most of our history, these distant ancestors lived a precarious existence as hunters and gatherers. This way of life kept their total numbers small, probably less than 10 million. However, as agriculture was introduced, communities evolved that could support more people.

World population expanded to about 300 million by A.D. 1 and continued to grow at a moderate rate. But after the start of the Industrial Revolution in the 18th century, living standards rose and widespread famines and epidemics diminished in some regions. Population growth accelerated. The population climbed to about 760 million in 1750 and reached 1 billion around 1800.

In 1800, the vast majority of the world’s population (86 percent) resided in Asia and Europe, with 65 percent in Asia alone. By 1900, Europe’s share of world population had risen to 25 percent, fueled by the population increase that accompanied the Industrial Revolution. Some of this growth spilled over to the Americas, increasing their share of the world total. The 2000 growth rate of 1.4 percent, when applied to the world’s 6.1 billion population, yields an annual increase of about 85 million people. Because of the large and increasing population size, the number of people added to the global population will remain high for several decades, even as growth rates continue to decline.

Between 2000 and 2030, nearly 100 percent of this annual growth will occur in the less developed countries in Africa, Asia, and Latin America, whose population growth rates are much higher than those in more developed countries.

This chapter introduces human–wildlife conflict as a complex ecological and socioeconomic issue arising from interactions between wildlife and human communities. It examines the major drivers and patterns of conflict and considers their ecological and socioeconomic impacts. The chapter focuses particularly on the Indian context and discusses mitigation and management strategies, policy and governance, education, awareness, and community participation. It also considers future research and approaches for promoting coexistence. The chapter emphasizes integrated management strategies that address both wildlife conservation and the needs of communities living in and around forest landscapes.

It is well known that organic matter plays a unique role in the binding of pesticides in soil, and that this phenomenon is usually the most important cause for interaction of pesticides in the soil environment. Fulvic or humic acids are most commonly associated with the binding interactions. Binding can take place with either the original pesticide or a transformation product, the reaction being induced by abiotic or biotic agents (microbial or plant enzymes). The reactions or processes involved are apparently the same as those responsible for the formation of humic substances, i.e., for the humification process.

The synthesis of humic substances is the least understood and the most intriguing aspect of humus chemistry. Studies on this subject are of enduring and continued research. Several pathways have been identified for the formation of humic substances during the decay of plant and animal remains in soil, the main ones being shown in Fig. 26.1.