eChapters

Farmers' rights and advocacy are essential for the sustainability and advancement of agricultural communities worldwide. These rights encompass access to land, seeds, resources, and fair market conditions, along with the recognition of farmers' contributions to food security and biodiversity. Advocacy for farmers' rights involves mobilizing stakeholders, influencing policy, and fostering grassroots movements to ensure equitable treatment and support for farmers. This article delves into the historical context, key components, challenges, and effective strategies for advocating farmers' rights, underscoring the importance of a collective approach to empower the agricultural sector

Introduction

Farmers are the backbone of global food systems, playing a crucial role in feeding populations and maintaining biodiversity. However, they often face numerous challenges, including land tenure insecurity, lack of access to quality seeds, limited financial resources, and unfavorable market conditions. Recognizing and advocating for farmers' rights is vital to address these issues and support sustainable agricultural practices. This article explores the historical development of farmers' rights, their key components, the challenges farmers face, and effective strategies for advocacy, emphasizing the importance of collective action to empower the agricultural sector.

Women play a crucial role in agriculture worldwide, contributing significantly to food security, economic stability, and community development. Despite their essential role, female farmers face numerous challenges, including limited access to land, credit, education, and technology. This article explores the multifaceted contributions of women in agriculture, the barriers they face, and the strategies for empowering female farmers. By addressing these challenges through targeted interventions and policies, we can enhance agricultural productivity, promote gender equality, and achieve sustainable development goals.

Introduction

Women are indispensable to the agricultural sector, particularly in developing countries where they make up a substantial portion of the agricultural labor force. Their roles range from fieldwork and livestock management to food processing and marketing. However, female farmers often encounter systemic barriers that hinder their productivity and limit their potential. Empowering women in agriculture is not only a matter of social justice but also a critical factor in boosting agricultural output, improving food security, and fostering sustainable development.

Food security, defined as the availability, access, and utilization of sufficient, safe, and nutritious food for all people at all times, is a critical global challenge. This article examines the multifaceted issues contributing to food insecurity, including population growth, climate change, economic instability, and geopolitical conflicts. It explores the impact of these factors on food production, distribution, and access, highlighting the interconnectedness of global systems. Furthermore, the article discusses various solutions and strategies to enhance food security, such as sustainable agricultural practices, technological innovations, policy reforms, and international cooperation. Emphasizing a holistic and integrated approach, the article argues that addressing food security requires coordinated efforts across sectors and scales, from local communities to global networks. By fostering resilience, equity, and sustainability in food systems, we can move towards a future where everyone has access to the nourishment they need to lead healthy and productive lives.

The agricultural sector is undergoing a significant transformation, driven by the advent of digital technologies and smart farming practices. This article explores the concept of smart farming, which leverages advanced technologies such as the Internet of Things (IoT), artificial intelligence (AI), big data analytics, and robotics to enhance agricultural productivity, sustainability, and efficiency. It delves into the various components of smart farming, including precision agriculture, smart irrigation systems, and automated machinery. The article also examines the benefits and challenges associated with the digital transformation of agriculture, including economic impacts, environmental considerations, and the role of policy and regulation. Through case studies and real-world examples, the article highlights how smart farming is reshaping the agricultural landscape and paving the way for a more sustainable and food-secure future.

Renewable energy in agriculture represents a transformative shift toward sustainability and efficiency in food production systems. This article explores the various renewable energy technologies that are being integrated into agricultural practices, including solar, wind, biomass, and geothermal energy. It examines the benefits of these technologies in reducing greenhouse gas emissions, lowering energy costs, and enhancing the resilience of agricultural operations against climate change. Additionally, the article discusses the challenges and barriers to widespread adoption, such as initial investment costs, technological limitations, and policy obstacles. Through case studies and real-world examples, the article highlights successful implementations of renewable energy in agriculture and offers insights into future trends and innovations. The integration of renewable energy into agriculture not only supports environmental sustainability but also promotes economic viability and energy independence for farmers, paving the way for a more resilient and sustainable agricultural sector.

The future of genetically modified organisms (GMOs) presents a complex and multifaceted landscape, intertwining scientific innovation, regulatory challenges, environmental considerations, and societal acceptance. This article explores the potential advancements in GMO technology, including enhanced nutritional content, increased crop yields, and resistance to pests and diseases. It also examines the ethical and ecological implications, such as gene flow to non-GMO species and the potential impacts on biodiversity. Regulatory frameworks and public perception are discussed, highlighting the need for transparent communication and robust safety assessments. Ultimately, the future of GMOs will depend on a balanced approach that addresses both the opportunities and challenges, ensuring that this technology can contribute to sustainable agriculture and food security in a responsible manner.

Agricultural education and extension services are crucial for the development and dissemination of knowledge and technologies that enhance agricultural productivity, sustainability, and resilience. This article explores the evolution, significance, and impact of agricultural education and extension services, highlighting their role in empowering farmers, improving food security, and fostering rural development. It examines the various models and approaches to agricultural education and extension, the challenges they face, and the innovative strategies being implemented to address these challenges. The article also discusses the integration of modern technologies and the importance of policy support in strengthening agricultural education and extension systems. By understanding and enhancing these services, stakeholders can ensure that farmers are well-equipped to meet the demands of modern agriculture and contribute to sustainable development.

Soil health and management are fundamental to sustainable agriculture, impacting crop productivity, environmental quality, and agricultural resilience. This article explores the various aspects of soil health, including its physical, chemical, and biological properties, and discusses management practices that enhance soil fertility and sustainability. The importance of organic matter, soil biodiversity, and nutrient cycling is highlighted, along with the challenges posed by soil degradation, erosion, and climate change. Through a detailed examination of traditional and innovative soil management strategies, such as crop rotation, cover cropping, conservation tillage, and soil amendments, the article provides comprehensive insights into maintaining and improving soil health. By understanding and implementing these practices, farmers and stakeholders can ensure long-term agricultural productivity and environmental stewardship.

Water management in agriculture is a critical component of ensuring sustainable food production and environmental conservation. This article explores various strategies for conserving water in agricultural practices, examining both traditional methods and modern technological innovations. It addresses the challenges posed by climate change, population growth, and resource scarcity, highlighting the importance of efficient water use. Key strategies discussed include irrigation optimization, soil moisture management, rainwater harvesting, and the adoption of drought-resistant crops. The article also considers policy measures and community-based approaches that support water conservation. By implementing these strategies, the agricultural sector can contribute to sustainable water management and enhance food security.

Agribusiness and entrepreneurship in the 21st century are evolving rapidly due to technological advancements, changing consumer preferences, and the increasing focus on sustainability. This article delves into the dynamic landscape of modern agribusiness, examining the innovations driving growth and the challenges that entrepreneurs face. It explores key trends such as digital agriculture, sustainable practices, and value chain integration, highlighting the role of startups and established companies in transforming the industry. The article also addresses the economic, social, and environmental impacts of agribusiness and provides insights into the future of agricultural entrepreneurship. By understanding these developments, stakeholders can better navigate the complexities of the contemporary agricultural sector and capitalize on emerging opportunities.

Livestock farming is a critical component of global agriculture, providing essential resources such as meat, milk, wool, and leather. This article explores the innovations and challenges facing the livestock farming industry. It discusses the latest technological advancements, such as precision livestock farming, genetic improvements, and sustainable practices, that are transforming the sector. Additionally, the article addresses the economic, environmental, and social challenges that farmers encounter, including market fluctuations, climate change, animal welfare, and disease management. By examining both the innovations and the obstacles, this article provides a comprehensive overview of the current state and future prospects of livestock farming, highlighting the need for sustainable and resilient farming practices.

Agroecology is an integrated approach to farming that seeks to harmonize agricultural practices with ecological principles. It emphasizes biodiversity, sustainability, and the health of ecosystems, advocating for farming systems that work with nature rather than against it. This article explores the principles and practices of agroecology, its historical roots, and its contemporary applications. It examines the benefits and challenges of adopting agroecological methods, including case studies from various regions. The article also discusses the policy and social dimensions of agroecology, highlighting the role of community participation, knowledge sharing, and supportive policies in promoting agroecological transitions. By understanding and implementing agroecology, farmers and stakeholders can contribute to a more sustainable and resilient agricultural future.

The economics of modern farming is a dynamic and complex field, reflecting the intricate interplay between technological advancements, market forces, policy frameworks, and environmental considerations. This article explores the multifaceted economic dimensions of contemporary agriculture, including production costs, market structures, supply chain dynamics, and the impact of government policies. It examines how modern farming practices, such as precision agriculture and biotechnology, influence productivity and profitability. The article also delves into the challenges and opportunities faced by farmers in today's globalized economy, emphasizing the need for sustainable practices and resilience to climate change. By understanding the economic principles underlying modern farming, stakeholders can better navigate the evolving agricultural landscape and promote a more sustainable and profitable farming sector.

Agricultural policies shape the landscape of farming and food production globally. They encompass a range of interventions by governments to influence agricultural practices, food security, trade, and rural development. This article delves into the various types of agricultural policies, their historical context, and their socio-economic and environmental implications. It examines case studies from different regions to highlight the diverse approaches and outcomes of these policies. Additionally, the article discusses the challenges and opportunities in formulating and implementing effective agricultural policies, particularly in the face of global issues such as climate change, food insecurity, and market volatility. By understanding the impact of agricultural policies, stakeholders can better navigate the complexities of the agricultural sector and promote sustainable development.

The global food supply chain is a complex system that encompasses all stages of food production, processing, distribution, and consumption. This article provides an in-depth exploration of the journey food takes from farms to tables worldwide. It examines the various components of the supply chain, including agricultural production, food processing, logistics, retail, and consumption. The article also addresses key challenges such as food security, sustainability, and safety, and discusses the impact of globalization and technological advancements. Through case studies and examples, the article highlights the interconnected nature of the food supply chain and emphasizes the importance of cooperation among stakeholders to ensure a resilient and sustainable global food system.

Organic farming represents a return to traditional agricultural practices that emphasize sustainability, environmental stewardship, and health. This article explores the principles and practices of organic farming, its historical context, and its benefits and challenges. By examining case studies and the global impact of organic agriculture, this comprehensive discussion highlights how organic farming contributes to soil health, biodiversity, and food security while addressing consumer demands for healthier food and environmental protection. It also considers future directions and innovations in organic farming, emphasizing its role in building a sustainable and resilient food system

Urban agriculture is gaining prominence as a viable solution to numerous challenges faced by modern cities, including food security, environmental sustainability, and community well-being. This comprehensive article explores the concept of urban agriculture, its historical development, and its various forms and practices. It examines the benefits of urban farming, such as enhanced food security, reduced food miles, and improved urban environments, while also addressing challenges like space constraints and regulatory issues. Case studies from cities worldwide illustrate the successful implementation of urban agriculture. The article concludes by discussing future trends and the potential of urban agriculture to transform urban landscapes into productive, sustainable, and resilient communities.

Climate change is exerting profound effects on global agriculture, posing significant challenges to food security, agricultural productivity, and rural livelihoods. This article explores the intricate relationship between climate change and agriculture, examining how changes in temperature, precipitation patterns, and extreme weather events impact crop yields, livestock, and farming practices. It delves into the economic, social, and environmental repercussions of these changes, highlighting vulnerable regions and populations. The article also discusses adaptation and mitigation strategies, emphasizing the roles of technology, policy, and sustainable agricultural practices in building resilience. By understanding the multifaceted impact of climate change on agriculture, we can develop comprehensive approaches to ensure food security and sustainable development in an increasingly unpredictable climate.

Precision agriculture represents a paradigm shift in farming, leveraging advanced technologies and data analytics to optimize agricultural practices. This article explores the comprehensive role of precision agriculture in modern farming, tracing its evolution and examining key technologies such as GPS, GIS, remote sensing, and IoT. The applications of these technologies in soil management, crop monitoring, irrigation, pest control, and yield prediction are discussed. Benefits, including increased productivity, resource efficiency, and environmental sustainability, are highlighted alongside challenges such as high costs, data management complexities, and the digital divide. The article concludes by considering future trends in precision agriculture, emphasizing the potential of artificial intelligence, machine learning, and blockchain in further revolutionizing farming practices.

Biotechnology has emerged as a transformative force in agriculture, offering innovative solutions to enhance crop production. This article explores the extensive role of biotechnology in crop production, tracing its historical development and highlighting key technologies such as genetic engineering, marker-assisted selection, and genomics. The applications of these technologies in developing pest-resistant, herbicide-tolerant, nutritionally enhanced, and climate-resilient crops are examined. Benefits such as increased agricultural productivity, environmental sustainability, economic advantages for farmers, and improved food security are discussed. Challenges, including ethical concerns, environmental risks, socioeconomic disparities, and regulatory issues, are also addressed. The article concludes by considering future prospects for biotechnology in crop production, emphasizing the potential of advanced genetic technologies, synthetic biology, and sustainable agricultural practices.

The agricultural sector is undergoing a transformative revolution driven by technological advancements. This article provides an in-depth exploration of how modern technologies are reshaping farming practices, enhancing productivity, and promoting sustainability. Key innovations such as precision agriculture, biotechnology, automation, and digital farming tools are discussed in detail. The article examines the benefits and challenges associated with these technologies, their impact on different aspects of farming, and the future potential of continued technological integration in agriculture. It highlights the critical role that technology plays in meeting the global food demand, addressing climate change, and ensuring economic viability for farmers.

Sustainable farming practices are essential for ensuring food security, environmental protection, and the long-term viability of agricultural systems. As the global population continues to rise, traditional farming methods are increasingly proving to be unsustainable due to their reliance on chemical inputs, depletion of natural resources, and contribution to climate change. This article delves into the various aspects of sustainable farming, including organic agriculture, agroecologist, and regenerative farming practices. It examines the benefits and challenges associated with these approaches, as well as the technological innovations and policy frameworks that support their adoption. The discussion highlights the necessity of transitioning to sustainable practices to safeguard our planet and future food supply.

Agriculture has undergone profound transformations over the past century, driven by technological advancements, economic shifts, and environmental challenges. This article explores the multifaceted evolution of agriculture, emphasizing the integration of modern technology, sustainable practices, and global policy changes. From the advent of precision farming and biotechnology to the impact of climate change and urbanization, contemporary agriculture is characterized by its complexity and adaptability. This examination provides a foundational understanding of the current agricultural landscape, highlighting key trends, challenges, and opportunities for future growth and sustainability.

8.1 Limitations

1. The research was limited to a specific geographic area.

2. The study was constrained by limitations in time and reSources.

3. The study relies on the subjective opinions of the participants, which may be influenced by their individual perspectives and biases, despite the researcher’s efforts to gather them as objectively as possible.

4. It would have been advantageous to include a broader range of relevant variables in the study.

5. A suitable statistical model could have been employed to provide thematic support for the behavior and functioning of the system.

6. The selection of variables could have been expanded by incorporating additional variables that would have demonstrated resilience in domain interactions.

Migration is an integral part of civilization. Everyone is born in a location, wherein, for education he/she needs to migrate elsewhere and after completion of education, there would be further migration for jobs. During Covid-19 it was harshly depicted that more than 50 million migratory workers were forced to quit their job place and when the Covid-19 pandemic apocalypse was over they started re-migrating. Both Push and Pull factors are responsible for Migration. Pull factors incubates choices for migration ad push factors creates a compulsion for migration.Young people from all backgrounds are looking into different ways for rural and urban youth to get about in the town of Darjeeling. Urban adolescents are faced with downward mobility and endure disappointment in their hopes for professional professions and ‘modern’ lives, whereas rural kids enjoy certain types of upward mobility when they relocate into the metropolis (Brown, T. 2015). It is recognized that the main driving force behind migration is the pursuit of better job prospects, and the extent and direction of migration are predominantly influenced by employment opportunities (Khan, 1983). Furthermore, rural areas in Darjeeling have experienced a noticeable trend of male-selective migration in search of better opportunities in the past few decades. This migration primarily occurs towards urban environments within the district and major cities such as Delhi, Kolkata, Chennai, and Mumbai, to name a few important destinations. Several factors have contributed significantly to this phenomenon, including population pressure, degradation of common property reSources like forests, long neglect of the region, economic and social backwardness, low agricultural productivity, and lack of opportunities. While this migration brings in much-needed income, it also diminishes the available workforce in the home villages.

In this chapter, the study’s findings are presented in a structured manner, accompanied by a discussion based on the analysis. The study aimed to present its findings in alignment with its objectives. Towards the end of this chapter, connections between the findings are established, explanations are provided, and an effort is made to uncover the underlying causes. The results and their corresponding discussion are organized according to the specific objectives of the study.

Result: Table 6.1 presents the distribution of 16 independent variables (x1-x16 ) and 3 dependent variables (y1 y3 ) in terms of their Minimum, Maximum, Mean, Variance, Standard deviation, and Coefficient of variation.

According to the study the maximum value for the independent variable Age at survey (x1 ) is 46.00, and minimum is 25.00. The study’s overall distribution was determined to have a mean of 32.938 with a variance of 22.895 and standard deviation 4.785. The high level of consistency is indicated by the variable’s coefficient of variation, which is 14.527%.

According to the study the maximum value for the independent variable Marital status (x2 ) is 18.00 and minimum is 0.00. The study’s overall distribution was determined to have a mean of 3.838 with a variance of 15.783 and standard deviation 3.973. The low level of consistency is indicated by the variable’s coefficient of variation, which is 103.527%.

The methodology has been carefully considered in order to comprehend the idea, procedures, and approaches used in the design of the study, information gathering, data analysis, and finding interpretation for the identification of relevant truths and the development of hypotheses. The methodology and a process employed in the study are covered in this chapter.

5.1 Locale of the Research

The rural areas of Darjeeling-Pulbazar CD block, Jorebunglow-SukhiaPokhri CD block in Darjeeling district in West Bengal was selected for the study. The area had been selected for the study because of the availability of appropriate respondents, people as well as the local language.

5.2 Pilot Study

Prior to beginning the actual research, a pilot study was carried out to better understand the regions, its inhabitants, institutions, and programmes activities associated to the migration process in the research area. During the pilot study period, the respondents’ situational and historical data were gathered.

4.1 Introduction

The research setting pertains to the comprehensive details of a specific area’s social environment where the study is carried out. The study area typically encompasses a distinct geographic region such as a state, district, block, or gram panchayat area, chosen based on the convenience of the researcher who possesses sufficient knowledge about the locality, including its communication infrastructure. This ensures easy access to every part of the area for collecting data.

Migration is a complex phenomenon that has significant implications for individuals, communities, and countries worldwide. It involves the movement of people from one geographical location to another, either within a country or across international borders. The research setting of migration refers to the specific context in which migration patterns and processes are studied. Understanding the research setting is crucial for comprehending the underlying factors, dynamics, and consequences of migration.

4.2 Profile of the State

4.2.1 General Information of the State

West Bengal is a state located in the eastern part of India, situated along the Bay of Bengal. It has a population of over 91 million people and covers an area of 88,752 square kilometres (34,267 square miles). West Bengal ranks as the fourth most populous and thirteenth-largest state in India in terms of area, and it is the eighth-most populous country subdivision in the world. The Bengal region, which is a part of the Indian subcontinent, shares borders with Bangladesh to the east, Nepal to the north, and Bhutan to the northwest. It also shares boundaries with the Indian states of Jharkhand, Odisha, Bihar, Sikkim, and Assam. The state capital is Kolkata, which is the third-largest metropolitan city and the seventh-largest city in India by population.

Theoretical orientation involves the scholarly and theoretical process that shapes the precise definition and written content of a complete research project. It involves incorporating conceptual ideas, logical discussions, and the quest for knowledge to develop a theory that aligns with the defined objectives and research design established during the research process.

3.1 Migration

Migration refers to the process of individuals or groups of people moving from one place to another with the intention of establishing a new permanent or semi permanent residence. It involves the relocation of people across geographical, political, or social boundaries, typically over long distances. Migration can occur within a country (internal migration) or involve crossing international borders (international migration).

People migrate for various reasons, including economic opportunities, seeking better living conditions, escaping persecution or conflict, joining family members, pursuing education or career opportunities, or being forced to leave their homes due to natural disasters or environmental factors. The motivations behind migration can be complex and multifaceted, influenced by a combination of push factors (negative circumstances in the home country) and pull factors (attractive opportunities in the destination country).Migration can take different forms, such as labour migration, where individuals move to another region or country for employment purposes, or refugee migration, where people flee their home countries due to fear of persecution or violence. It can be temporary or permanent, with some migrants returning to their home countries after a period of time, while others settle permanently in their new location and may eventually become citizens of that country.

A thorough examination of relevant literature is crucial in any scientific investigation and research. Apart from identifying previous work conducted in the problem area or the specific field of study, the primary function of a literature review is to provide insights into the methods and procedures used, while also establishing a foundation for interpreting the findings. A literature review involves a comprehensive and critical assessment of prior research, offering a summary and overview of a particular research area. This allows readers to understand why the current research program is being pursued. A well-executed literature review delves into the reasons behind selecting a specific research question, integrating and evaluating previous studies, and demonstrating how they relate to the proposed research program. It is important to present all sides of the argument in a clear manner to avoid bias, while also highlighting areas of agreement and disagreement among the existing literature.

In this chapter, we have attempted to provide a concise overview of various studies and writings related to migration. This overview serves to enhance our understanding of the significance and purpose of our current research. Some relevant reviews have been categorized and presented under the following sub headings:

Migration is a worldwide occurrence that can be attributed to various factors such as disparities in economic development, regional differences, and varying living standards among socio-economic groups. It is driven by both push and pull factors. Pull factors include opportunities for better employment and higher wages, while push factors encompass the lack of job prospects in underdeveloped areas, droughts, and scarcity conditions. Unlike the biological factors of mortality and fertility, which operate within a biological framework, migration is influenced by the desires of individuals. Although most migratory movements are intentional, there may be exceptional cases where this is not true. Therefore, migration is a response by individuals to economic, social, political, and demographic forces in their environment and serves as an important indicator of social change in society.

1. Introduction

Organic farming is gaining a lot of importance in recent years owing to raising awareness among the consumers of the agricultural commodities about the health concerns of the indiscriminate use of chemical fertilizers and pesticides (Anonymous 2015; Lakhsman et al., 2024). The increasing demand for organically produced agricultural commodities and the premier prices have attracted the farmers’ interest and motivated them to switch over to organic production systems. The shifting to organic farming by the farmers needs careful consideration of several issues starting from the suitability of soils, selection of crops, adoption of package of practices, processing, storage and marketing. There are several finer aspects which the farmers have to gloss over before they decide to change their production system to organic farming. Although the broad contours are known to all the farmers, there is a need to look into the research findings in the areas of farmers’ interest for changing over to organic farming. The research evidence on the practical viability in a newer area will boost the confidence of the farming community for undertaking the organic farming. It further helps in systematic planning by the policy makers. The traditional research carried out with the modern agricultural practices may not be appropriate for organic farming. There are fundamental differences in the approaches followed in the organic farming research where the emphasis is on using all the natural resources in a complementary way so that there is hardly any need for synthetic inputs in the form of fertilizers and pesticides. It calls for systematic inventorization of resources available and additional organic inputs needed to make organic farming successful. It begins with assessing the suitability of soils, agro-climatic conditions, selection of crops, adoption of management practices, harvesting, processing, storage and marketing of organically-produced food commodities. The practical feasibility, economic viability and social acceptability of organic farming in newer areas need to be established through sound organic farming research before it is taken to the farming community.

Organic food sales increased steadily from the late 20th century. Greater environmental awareness, coupled with concerns over the health impacts of pesticide residues and consumption of genetically modified (GMO) crops, fostered the growth of the organic sector. Realizing the benefits of organic food, especially after COVID-19, consumers are also demanding organically grown food and fiber and are willing to pay premium price. But to tap the market, there is an inevitable need for certification. Recently launched Food Safety and Standards (Organic Food) Regulation, 2017 mandates that all food products sold as organic must be certified and comply the basic requirements of the Act. The organic food offered or promoted for sale shall also comply with all the applicable provisions of either National Programme for Organic Production (NPOP) or Participatory Guarantee System for India (PGS India). Organic certification is a process certification. The requirement to confirm that the product is organic include labelling on the package and traceability for both domestic and export needs to be understood. For import and export of organic produce, transaction certificate issued by an Accredited Certification Body is required. These requirements are essential for fresh and processed food items. In this chapter, we tried to eloborate the process and procedures for organic certification.

Agricultural sector, with the technological advancements, is also contributing to global climate change, loss of biodiversity and degradation of resources. Further, there is a serious global concern about chemical residues, healthy food and healthy planet earth. Organic and natural farming are acclaimed to be the best alternative non-chemical production pathways to reverse the ill effects of modern agriculture. However, these systems are not contemplated to meet the food security and other requirements of ever-growing human population, particularly in developing countries. In this chapter, based on the available and documented protocols and production practices of these systems, the additional research, extension and policy needs to strengthen these production pathways to attain economic, ecological and social sustainability are discussed while considering the Sustainable Developmental Goals (SDGs) of United Nations.

1. Introduction

In India, though organic crop production and certification system is reasonably well established in India, the organic livestock and poultry sector is in its budding stage. Organizations such as APEDA, FSSAI and BIS along with research establishments like ICAR- National Meat Research Institute are now putting serious efforts to establish the protocols and promote organic livestock production and certification in India. As a result, in the last few years, livestock farmers are gradually getting encouraged to take up organic production and around 3000 farmers mostly from Uttar Pradesh, Madhya Pradesh and Himachal Pradesh have taken up organic dairy, sheep and poultry farming. Export of organic milk and ghee from India to different countries has just begun and is expected to grow very fast in volumes and revenues in the years to come.

The unsustainable, faulty, environmentally detrimental modern agricultural practices and their plausible deleterious effects on one side and challenges like global climate change, ever shrinking land and water resources and loss of biodiversity on the other hand are the main problems that Agriculture is facing. Hence, there is a need to adopt a set of ecofriendly and climate smart practices to achieve sustainable development goals (SDGs). Agroforestry and organic farming (farming without chemicals) are the two important concepts projected to mitigate the effects of climate change, enhance soil health, encourage crop diversification, promoting biodiversity and achieving climate resilience. We made an attempt to synthesize the available information on the role of agroforestry in promotion of organic farming.

1. Introduction

Agroforestry is a land use system that integrates trees, crops and animals in a way that is scientifically sound, ecologically desirable, practically feasible and socially acceptable to the farmers (Nair, 1979). It is a collective name for land use systems and technologies, where woody perennials (trees, shrubs, palms, bamboos, etc.) are deliberately used on the same piece of land management units as agriculture crops and/or animals in some form of spatial arrangement or temporal sequence. It includes both ecological and economical interactions among the different components. Nearly 43% of world’s agricultural land has at least 10% tree cover, which suggests that agroforestry is widespread and infact, it is present in all continents. Agroforestry accounts for nearly 45.4 m-ha globally and 23.25 m-ha of land in India (Rizvi et al., 2019; Anonymous, 2020).

Organic farming in groundnut cultivation is gaining global recognition as an environmentally sustainable and socially responsible approach. Groundnut is a versatile crop with high nutritional value and economic importance. This chapter explores the principles and practices involved in organic groundnut farming. It focussed on soil management, organic fertilization, pest, disease and weed management without using synthetic chemicals. This approach minimizes impact on the environment and reduces the presence of pesticide residues in the final produce. Moreover, organic practices help maintain soil health, conserve biodiversity and reduce environmental pollution. Thus, farmers can produce high quality groundnuts and fetch higher price and profits.

1. Introduction

The groundnut (Arachis hypogaea L.) is known by different names such as monkey nut, goober, earth nut etc., and belongs to leguminosae family. It produces flowers above ground but the fruits/pods underground (Sanders, 2003). It can be grown successfully in tropical and sub-tropical regions of the world. Globally, groundnut covers 32.7 M ha with a production of 53.9 MT with a productivity of 1648 kg ha-1 (FAOSTAT, 2021). Among the developing countries, Egypt has the highest productivity of groundnut with 2.70 t ha-1 (Nautiyal, 2001). Globally, India ranks first in groundnut area (5.42 m-ha) and is the second largest producer in the world with 10.1 MT with a productivity of 1863 ha-1 in 2021-22 (agricoop.nic.in). India ranks second next to China (34%) with 19% of world groundnut production in 2021. Gujarat is the largest producer contributing 36% of the total production of groundnut followed by Rajasthan (17%) and Tamil Nadu (7.5%). Groundnut accounts for 18% area and 26.8% production of the total oilseeds in India (CARP, 2022).

Globally, organic oilseeds constitute an important element in organic production. Their products are important feedstuffs (oilcake) and also relevant for human consumption (soya products, oils), and demand for these is continually growing. Almost half of the global organic oilseed area is occupied by soybeans, and another almost 20% is for sunflower seeds and sesame. Rape and turnip rape constitute about 6% of the organic oilseed area. Oilseeds are of pivotal significance in the Indian agricultural economy supporting income of millions of farmers practicing mainly rainfed cultivation. Nine annual oilseed crops are cultivated in India that includes groundnut, rapeseed-mustard, soybean, sunflower, sesame, niger and safflower that are edible and non-edible oilseed crops include castor and linseed. Organic agriculture is one among the broad spectrum of production methods that are supportive of the environment. The principal method of organic farming includes crop rotation, green manures and composts, biological pest control and reduced tillage. The performance of annual edible oilseed crops and development of package in relation to organic management for sustainable agriculture are discussed in this chapter.

1. Introduction

In India, both annual and perennial edible oilseed crops are cultivated. Annual edible oilseed crops include groundnut, rapeseed-mustard, soybean, sunflower, sesame, niger and safflower. India, the 4th largest vegetable oil economy in the world, stands first in the production of castor, sesame, safflower, and niger oils, whereas second in groundnut, third in rapeseed mustard, fourth in linseed and fifth in soybean oil. About 14 million farmers are engaged in oilseeds production and another million in their processing. Whereas, the perennial edible oil seed crops include oil palm and coconut. Edible oils are also produced domestically from secondary sources such as rice bran, cotton seed, corn, and other tree-borne oilseeds (TBOs), besides some minor oil producing species of forest origin.

Since many years, there has been an extensive use of synthetic pesticides against which has caused pest resistance, resurgence, residues environmental problems and toxicity to non-target organisms. Therefore, attention is given towards the alternate methods which are ecologically, economically sustainable. Botanical pesticides that control insects by using plant oils and extracts have proven to be the most effective. As they have promising role in organic farming, they help in reduction of pest load and improve crop quality and thereby increase crop yield without disturbing the environment and helps in maintaining the balance of natural ecosystems. This book chapter, discuss about the active functional ingredients of each botanical pesticide and mode of action, its importance in organic farming, their commercial formulations, major insect pests suppressed or controlled, their challenges in usage in agriculture and horticulture and its future prospects.

1. Introduction

Synthetic pesticide use has caused pest resistance, environmental problems and toxicity to non-target organisms. It is essential to follow alternate methods because these synthetic pesticides have led to acute and chronic poisoning in farm workers, applicators, and even customers. Employing botanical pesticides, is the most effective way to replace the widespread use of synthetic pesticides, is one of the important alternative strategies. Among them, plant-based bio pesticides that control insects by using plant oils and extracts have proven to be the most effective. Botanicals being natural and non-toxic to humans, animals, and the environment, have a significant role in organic farming as they help in promoting plant growth, controlling pests and diseases, and enhancing soil health. The use of botanicals is an essential component of organic farming as it helps in maintaining the balance of natural ecosystems, improves crop quality, and increases yield without the negative impacts of synthetic chemicals. As the use of synthetic pesticides and fertilizers is prohibited in organic agriculture. Organic farmers rely on natural methods to protect their crops from pests, diseases, and weeds. The beneficial insects, crop rotation, and natural remedies such as neem oil or garlic sprays are used to protect the crops. The use of natural methods to manage pests and diseases promotes biodiversity, maintains soil health, and minimizes the environmental impact of farming. Thus, plant protection is crucial in organic farming to ensure sustainable and responsible agriculture practices.

The concept of insect pest management and the strategies employed have evolved over the time. With the increased emphasis on safe agricultural practices and elevated demand for safe and healthy food, the various solutions for pest management have shifted more towards use of biocontrol agents. Bio- rational pest management methods have now evolved as important pillar of the integrated pest management to replace the synthetic insecticides and also other associated advantages. They include the use of botanical pesticides, insect growth regulators, pheromones and allelochemicals. The major positive attributes associated with all of them are their low mammalian toxicity, safety to beneficial and non-target organisms, higher specificity, low risk of development of resistance and low environmental persistence. Though bio-rational insecticides are considered to be safe, in an organic ecosystem, it should be done with caution because over reliance on them for longer periods may facilitate the target insect pests to develop some kind of resistance against them. So, proper deliberations on the positive and negative attributes of bio rational pest management strategies should be done so as to facilitate their long term usage in organic farming.

Trichoderma is fungus is well adapted to different ecosystem and identified > 250 species for agricultural use. It is primarily used as a bio-fungicide because of the variety of secondary metabolites produced and applied mainly for biocontrol and bioremediation and growth promotion activities. Bio-control potential of Trichoderma used for the control of soil borne diseases through various mechanisms responsible for broad range of cell wall degrading enzymes, anti-microbial and organic volatile compounds produced by Trichoderma. During abiotic stress, Trichoderma play an important role in plant growth promotion through mobilization of various nutrients. Presently Trichoderma is used as an effective biocontrol agent against plant parasitic nematodes. It is also used for one of the alternate remedy for improving the quality of the soil by removing the heavy metal in agricultural field, makes them suitable for cultivation.

1. Introduction

Trichoderma is one of the genus of fungus species which belongs to Ascomycetes (Order Hypocreales) present in diverse soil ecosystems, colonise under various agro ecological niches and most of the prevalent are culturable microorganism. They are primarily used as efficient biocontrol agents against a variety of soil-borne plant diseases. However, they have also shown potential in processes like bioremediation, promoting plant growth, and managing nematode populations.

Insect pests are responsible for 10.8% of crop losses on an average. Their management is crucial in agriculture to protect crops and boost output. In organic farming systems, preventative measures are taken more often than curative. Understanding the impacts that the local climate, topography, soils, and all other facets of the production system are expected to have on crop performance and potential host/pest complexes is essential for developing successful organic crop protection techniques. Crop rotation, soil health management, host plant resistance, field location, monitoring pests and their natural enemies, vegetation management to enhance natural enemies and exert direct effects on pest populations, releases of bio-control agents and use of approved insecticides of biological origin are highlighted in organic farming in order to reduce pest damage. The safe and environmentally friendly methods for managing the pests in organic farming are discussed in this chapter.

1. Introduction

The fundamental tenet of organic pest management is the use of environmentally sound measures as outlined by worldwide and national organic agricultural standards. The emphasis of organic farming's pest management strategies is on the employment of numerous and diverse strategies integrated into the cropping system, which ultimately lowers the pest incidence. Pest and disease options mainly dependent on preventive measures in organic farming rather than curative and maintaining healthy ecosystems is priority. The farmer should have a better grasp of the pests and beneficial organisms that exist in the specific crop ecology when practising organic farming. The farmers must follow a monitoring mechanism in which they may able to act on the pest before they reach devastating levels.

Crop residues are valuable natural resources that may be managed to maximize various input use efficiencies. These are a great source of organic materials for improving the soil structure, water holding capacity, the soil's ability to withstand pH variations, increasing the cation exchange capacity, reducing the phosphate fixation, as a storehouse for micronutrients and secondary nutrients especially in organic farming. Organic matter serves as a source of energy for soil fauna and microbes, which are the main agents controlling the decomposition and release of mineral nutrients in organic soil ecosystems. Crop leftovers are frequently burned by farmers, especially after harvest, which depletes the soil's nutrient content and microbial population and produces greenhouse gases. Each year, a sizable amount of crop residue is produced and if used efficiently, they may provide partial or full amount of the nutrient budget required under organic farming for the production of annual or perennial crops besides achieving resource conservation and environmental sustainability.

1. Introduction

Crop residues are the non-economic plant parts like straws, stubble, stover etc., that remain in the field after harvesting the economic product. Crop remains from threshing sheds such as groundnut shells, oil cakes, rice husks, corn and sorghum cobs or discarded during crop processing can also be utilized in organic farming. India produces 108.75 MT of wheat, 121.46 MT of rice seed, 30.24 MT of maize seeds, 49.66 MT of millets seeds (jowar, bajra, ragi, and small seed millets), 392.8 MT of sugarcane, 46.11 million bales of fibre crops (jute, mesta, cotton), 25.58 MT of pulses and 36.57 MT of oilseed (Agricultural statistics at a glance, 2021).

Organic liquid formulations (OLFs) are agricultural inputs derived from natural sources, designed for use in organic farming. These formulations, consisting of liquid solutions or suspensions containing organic compounds, nutrients, and beneficial microorganisms, play a crucial role in enhancing soil fertility, plant nutrition, and pest management, while promoting environmental sustainability and ecosystem health. Despite their eco friendly nature, OLFs demand careful consideration for their environmental impact and safety. They biodegrade readily, reducing long-term persistence and are less harmful to non-target organisms. While OLFs offer numerous benefits, they also face limitations in potency and effectiveness compared to synthetic pesticides, often requiring more frequent applications and leading to increased labor costs. Their impact can vary with pest species and environmental conditions, and they generally provide gradual rather than immediate pest control. Availability and accessibility can be limited, posing challenges for some farmers. This chapter explores the role of OLFs in achieving success in organic farming, highlighting their benefits and limitations, and emphasizing the importance of Integrated Pest Management strategies and careful consideration of various factors to optimize their use in promoting sustainable agriculture.

Increased awareness of the importance of quality and nutrient-rich food among the majority of the population created a need for the development of organic production systems and suitable varieties/hybrids for cultivation. The quality of soil, water and air is affected by the overuse of agrochemicals in agriculture. The use of organic varieties helps in reducing the use of various agrochemicals and high-quality pesticides. Organic varieties can address environmental issues and climate change. The world organic seed market is valued at USD 4.2 Bn in 2022 and it is expected to grow at an annual rate of around 8.7% between 2022 and 2031. The demand for organic seeds in the market has created new opportunities for organic farmers. By following standard organic crop production practices and seed certification guidelines, they can produce quality organic seed or planting material on their own farm.

1. Introduction

Worldwide, organic agriculture is a rapidly growing sector. The demand for organic food markets is increasing recently with the fast-growing movement of community support for organic agriculture. A total of 96.4 m-ha were grown organically with 2% of the worldwide agricultural land. The region with the most organic agricultural land is Oceania (53.2 m-ha) followed by Europe (18.5 m-ha), Latin America (9.5 m-ha) Asia (8.8 m-ha), North America (3.6 m-ha) and Africa (2.7 m-ha). Australia stands first in area with 53.0 m-ha followed by India (4.7 m-ha) and Argentina (4.1 m-ha) (FiBL & IFOAM, 2024). The global organic farming market will grow from $169.04 billion in 2022 to $287.83 billion in 2027 at a Compound Annual Growth Rate (CAGR) of 11.3% (Organic Farming Global Market Report, 2023).

All hybrids and varieties perform better under conventional farming in response to excess use of chemical fertilizers and pesticides, which are harmful to humans, animals and environment. Hence, there is a need to develop varieties/hybrids exclusively for organic farming. Breeding aspects of organic farming include breeding tools/methods which are used to breed varieties/hybrids including testing and multiplication under organic conditions duly following the principles of organic farming as defined by IFOAM. These cultivars should have high nutrient use efficiency, resistance to diseases and pests, competitive ability against weeds, higher yield and stability across environments along with enhanced nutritional quality. This book chapter briefly discusses the aspects of breeding that are involved in generating cultivars suitable for organic farming.

1. Introduction

Currently, organic farmers rely heavily on conventionally developed and produced varieties. Nevertheless, in order to optimize their production under organic agriculture, it is necessary to develop cultivars that are more suitable for organic cultivation. According to some studies, the naturalness of organic agriculture should go beyond simply by avoiding chemical inputs and substituting natural and organic components during the transition from conventional to organic farming.

Organic farming necessitates a shift from conventional to non-chemical agricultural methods and practices. For this, it needs creation of facilities for the production of organic inputs, adoption of crop rotation, green manuring and other best management practices for the organic production of crops and livestock. Further, the ‘towards organic approach’ in intensive agricultural areas and ‘scientific organic farming’ in niche areas have to be implemented for development of an organic farm. The synthesized information on how to convert an inorganic farm into an organic farm followed by its sustainable maintenance is the need of the hour. This chapter holistically deals with designing and maintaing the whole ecosystem organic.

1. Introduction

Nowadays, the growers, policymakers and consumers are talking about organic farming (OF) across the globe. For practitioners, it is still a confusion regarding what and how to practice OF. There is a wrong notion that simple addition of organic manures and the use of chemical pesticides for growing different crops is considered as organic farming. In sense real, organic farms are the cultivated fields without addition of chemical fertilizers, pesticides, livestock additives, etc., and only organic and (or) non-chemical methods are practiced, and the concept or practice is known as organic farming. A large number of farms have been converted from conventional into chemical farms during the last more than 50 years by using synthetic chemicals. In view of the increasing demand for organic products and spiraling soil and human health problems, there is need to transform them gradually into organic farms. So that, it can help enhance soil organic carbon status and fertility which in turn can support crop growth and produce healthy foods besides protecting the environment. However, the extent of chemical used might be varying from one farm to another depending on the crops cultivated, nutrient requirement, pest/ disease severity, availability and accessibility to chemical use, socio-economic condition of the farmers, geographical location, etc.