eChapters

Introduction 
Chapter 16, “Global Warming and Food Security” delves into the intricate relationship between global warming and food security. The chapter opens by defining the multifaceted concept of food security, which includes availability, access, utilization, and stability. It emphasizes the critical importance of these components in ensuring a stable and reliable food supply. The chapter then explores various challenges to food security, highlighting the impact of rapid population growth, climate change, land and water scarcity, poverty, inequality, and conflicts. It underscores how these challenges are compounded by global warming, which exacerbates environmental stressors such as rising temperatures, altered weather patterns, and extreme weather events. The implications for agriculture are profound, affecting crop yields, livestock health, and overall food production. The section on the causes and consequences of global warming outlines key phenomena such as risi ng temperatures, changing weather patterns, melting glaciers, and ocean acidification. It illustrates how these factors disrupt agricultural systems and food distribution networks, leading to increased food insecurity. To address these issues, the chapter discusses various strategies for enhancing food security in a changing climate. These include adopting climate-smart agricultural practices, diversifying crop and livestock systems, developing climateresilient crop varieties, and implementing efficient water management strategies. It also highlights the importance of policy and institutional interventions, supportive measures for smallholder farmers, and research and development initiatives. The chapter concludes with a discussion on the need for collaboration and partnerships among various stakeholders, including governments, international organizations, and the private sector, to effectively address the dual challenges of global warming and food security. Global warming, a consequence of human-induced climate change, has emerged as one of the most pressing challenges of our time. As the Earth’s average temperature continues to rise, it brings about far-reaching impacts that extend to various sectors, including food and agriculture. The intricate relationship between global warming and agriculture is of paramount importance, as agricultural systems are both vulnerable to climate change and significant contributors to greenhouse gas emissions. Understanding the impacts of global warming on

Biotech crops or genetically modified (GM) crops or the transgenic crops are those crop plants into which certain genes have been introduced from unrelated sources beyond the boundary of sexual compatibility using techniques which bypass the normal sexual cycle. The transgenic production technology uses recombinant DNA technology where a recombinant DNA molecule is a vector into which the desired DNA fragment has been inserted to enable its cloning in an appropriate host. The recombinant DNA technology has opened up the flood gate of plant biotechnology to produce plants which are equipped with novel genes to produce products never heard of that a plant will do. Now transgenics in several crops have been commercialized globally. The importance and potential of GM crops can be realized from the fact that acreage under such crops at global level has reached to 189.8 million ha covering 24 countries in 2017. One can have a feel of this huge acreage under commercialized GM crops globally if it is compared with about total cultivated area of 143 million ha in India.

Over the last 30 years field of agricultural biotechnology has expanded rapidly due to greater understanding of DNA as the chemical double helix code from which genes are made. Genetic engineering is one of the modern biotechnology tools that are based on recombinant DNA technology. The term genetic engineering, often interchanged with terms such as gene technology, genetic modification, or gene manipulation, is used to describe the process by which the genetic makeup of an organism can be altered using “recombinant DNA technology.” This involves the use of laboratory tools and specific enzymes to cut out, insert, and alter pieces of DNA that contain one or more genes of interest. The ability to manipulate individual genes and to transfer genes between species that would not readily cross is what distinguishes genetic engineering from traditional plant breeding and opens up a huge opportunity to create crop plants equipped with desirable genes from the sources which cannot be sexually crossed. With conventional plant breeding, there is little or no guarantee of obtaining any particular gene combination from the millions of crosses generated. Undesirable genes can be transferred along with desirable genes or while one desirable gene is gained, another is lost because the genes of both parents are mixed together and re-assorted more or less randomly in the offspring. These are the major limitations of conventional crop breeding.

Gomphrena (Gomphrena globosa), commonly called globe amaranth, globe flower or bachelor’s button, is an important loose and dry flower crop. Its spherical, long-lasting flower heads make it particularly valuable in the dry flower industry. The chapter describes its origin, distribution, genetics, botanical characteristics and important cultivars. Gomphrena is also notable for betalain pigments and its C4 photosynthetic pathway, which contributes to heat tolerance and moderate drought resistance. Production practices covered include climate and soil requirements, propagation, nursery management, land preparation, nutrient management, irrigation and intercultural operations. The chapter also addresses pest and disease management, harvesting for fresh and dried flowers, postharvest handling and yield.

1. Introduction:- Ensuring Quality and Success in Assisted Reproductive
Technology through Good Laboratory Practices Assisted Reproductive Technology (ART) in animals has become an increasingly vital set of techniques with wide-ranging applications across agriculture, wildlife conservation, and biomedical research. These technologies, encompassing procedures such as in-vitro fertilization (IVF), embryo transfer, and cryopreservation of gametes and embryos, offer solutions to infertility, enable genetic improvement in livestock, and play a crucial role in preserving endangered species. As the application of ART expands throughout the globe, the need for stringent quality control and standardization becomes paramount to ensure the reliability and reproducibility of outcomes. Good Laboratory Practices (GLP) represent a well-established quality system that provides a framework for the organizational processes and conditions under which non-clinical studies are planned, performed, monitored, recorded, reported, and archived. Originally developed to ensure the integrity of safety data for pharmaceuticals and other regulated products, the fundamental principles of GLP are highly relevant to the field of animal ART. This report aims to explore the application of GLP in ART and to thoroughly investigate its contribution to achieving successful outcomes in various ART procedures and across different animal species. By examining the core principles of GLP and their practical implementation in animal ART laboratories, this analysis will highlight the critical role of standardized practices in enhancing the reliability, ethical conduct, and overall success of animal reproductive technologies.
2. Good Laboratory Practices (GLP) in Reference to ART
Good Laboratory Practices are broadly defined as a quality system that governs the organization and conditions under which non-clinical health and environmental safety studies are planned, performed, monitored, recorded, reported, and archived. This system is designed to ensure the quality and

Introduction
Defining GLP: Good Laboratory Practices (GLP) are a comprehensive set of quality system principles designed to ensure the reliability, reproducibility, and integrity of non-clinical health and environmental safety studies. These principles establish a framework for planning, performing, monitoring, recording, reporting, and archiving studies. Adherence to GLP is crucial for generating data that can be trusted and utilized for regulatory submissions and scientific advancements.
Purpose of GLP
• To ensure the quality and integrity of non-clinical and clinical laboratory studies.
• To provide assurance that data submitted to regulatory authorities is truly reliable.
• To standardize procedures and practices in non-clinical and clinical studies.
Scope of GLP
• Primarily applies to non-clinical health and environmental safety studies.
• These studies often support applications for research or marketing permits for regulated products (e.g., pharmaceuticals, pesticides, food additives).
Key Elements of GLP
• Organizational structure and personnel responsibilities.
• Standard operating procedures (SOPs).

Introduction 
Toxicological studies play a crucial role in assessing the safety and potential hazards of chemicals, pharmaceuticals, and environmental pollutants. To ensure the reliability, consistency, and integrity of such studies, the concept of GLP has been established. GLP is a set of principles that govern the planning, execution, monitoring, recording, and reporting of laboratory experiments, particularly those related to safety assessments. The primary objective of GLP in toxicological studies is to ensure that the data generated is of high quality, reproducible, and acceptable to regulatory agencies worldwide. This is essential for evaluating the potential risks associated with exposure to various substances, aiding in the development of safer drugs, chemicals, and consumer products. Compliance with GLP guidelines minimizes errors, prevents fraudulent practices, and enhances transparency in research, ultimately contributing to public health and environmental safety. The assessment of potential hazards posed by chemical, pharmaceutical, agrochemical, and other substances to human health and the environment lies at the heart of toxicological studies. These investigations, conducted in non-clinical settings, provide crucial data that informs regulatory decisions, guides product development, and ultimately safeguards public well-being. The consequences of inaccurate or unreliable toxicological data can be far-reaching, potentially leading to the approval of unsafe products or the unwarranted restriction of beneficial ones. Recognizing the critical importance of the integrity of these studies, the concept of Good Laboratory Practices (GLP) has emerged as a cornerstone, establishing a robust framework for their planning, conduct, monitoring, recording, reporting, and archiving

1. Introduction: Setting the Stage for GLP in Artificial Insemination
Artificial Insemination (AI) stands as a cornerstone technology in modern animal agriculture, playing a pivotal role in the genetic enhancement of livestock across a diverse range of species. This technique, particularly prevalent in cattle and swine, allows for the widespread dissemination of superior genetic traits from carefully selected sires, leading to significant improvements in productivity, such as increased milk yield in dairy cattle and enhanced growth rates in beef cattle. Beyond genetic advancement, AI offers considerable advantages in disease management by mitigating the risks associated with natural mating, thereby controlling the transmission of reproductive tract infections. Furthermore, AI provides economic benefits to livestock producers by reducing the need to maintain live bulls, which require substantial resources, and by offering access to a broader spectrum of genetics than would be feasible through natural service alone. The application of AI is not limited to traditional livestock; it is increasingly employed in the breeding of horses and smaller ruminants, as well as in the management of pet populations, indicating its growing importance in animal reproduction across various sectors. The expanding scope of AI underscores the necessity for robust quality control measures to ensure its efficacy and safety across different animal species and production systems. The success of any AI program is intrinsically linked to the quality of the semen used, making the operational standards of AI laboratories paramount. Optimal conception rates rely on semen with high viability, motility, and morphological integrity, which can be compromised by inadequate handling and unsanitary 130 Concepts of Good Laboratory Practices (GLP) conditions during collection, processing, storage, and insemination. Poor semen management can lead to reduced fertility and the potential spread of diseases, thereby undermining the benefits of AI. To ensure consistent and successful outcomes, standardized procedures throughout the AI process are essential, providing a framework for optimizing techniques and minimizing the risk of errors. In this context, Good Laboratory Practices (GLP) emerges as a critical quality paradigm. Defined as a managerial quality control system, GLP encompasses the organizational processes and the conditions under which non-clinical health and environmental safety studies are planned, performed, monitored, recorded, archived, and reported. While traditionally applied to the safety testing of chemicals and pharmaceuticals, the core principles of GLP, with their emphasis on systematic processes, controlled conditions, and rigorous data management, hold significant relevance for ensuring the quality and reliability of operations within animal AI laboratories. The genesis of GLP regulations in response to concerns about the integrity and consistency of scientific data further underscores its fundamental importance in any laboratory setting where the trustworthiness of results is paramount. This report aims to provide a comprehensive analysis of the GLP paradigm within the context of animal AI laboratories. Its objectives include defining GLP and its core principles, investigating the specific application of these principles in the various stages of animal AI, exploring the benefits and challenges associated with GLP implementation, reviewing relevant regulatory guidelines and standards across different regions, analyzing the impact of GLP adherence on AI techniques and outcomes, identifying effective data representation strategies, comparing the operational differences between GLP and non-GLP compliant laboratories, and discussing emerging trends and future perspectives on the role of GLP in advancing the field.

Eswaran (2007) made graphic analysis with the model proposed by Jinks and Hayman (1953). He evolved 30 hybrids from six parents in a diallel fashion. The results are presented in Tables 71-74

After the DNA is run on the gel, the polymorphic bands or the bands cosegregating with a target trait are tagged. The bands identification is either done by calculating their relative mobilities (Rm / Rf values in case of isoenzymes) or by calculating their molecular weights (in case of proteins and DNA).

There are several methods to calculate molecular weights of DNA bands on the gel. Graphical approach is one of them. The approaches include (1) use of computer software to generate molecular weights and (2) running unknown DNA fragments with the fragments of known molecular weights (standard markers available from private companies, see examples in the figure). An example is given here (see figure) to illustrate the method to calculate molecular weights of unknown DNA fragments. This method is usually called as Graphical Approach.

Green gram or mungbean (Vigna radiata (L.) Wilczek, var. radiata, 2n = 2x = 22, a self-pollinated crop belonging to Family Leguminosae or Fabaceae) occupies globally 7.3 million ha area with production of 5.3 million tons (2015-17) resulting into a productivity of 726 kg/ha with India and Myanmar each supplying about 30% of the global production. China contributes about 16% and Indonesia 5% of the global production. It is relatively tolerant of heat and drought and the grains are a good source of protein and iron for human nutrition. In East and Southeast Asia, it is consumed as nutritious bean sprouts and in South Asia as dahl.

Introduction

In an era increasingly defined by environmental consciousness and the imperative for sustainable practices, the sports industry emerges as a pivotal arena where innovation in green intellectual property (IP) holds transformative potential. At the forefront of this movement are patents, which not only safeguard inventive ideas but also serve as catalysts for integrating eco-friendly technologies into sports equipment. This chapter explores the profound impact of green patents within the sports sector across four key dimensions, illuminating their role in driving sustainability initiatives and reshaping industry dynamics.

The integration of sustainable technologies in sports equipment represents a paradigm shift towards greener practices. From advanced materials in athletic apparel that reduce environmental impact to the design of energy-efficient stadiums, innovations in sports equipment are diversifying to align with global sustainability goals. Cutting-edge developments include biodegradable materials, solar-powered facilities, and water-saving technologies, each contributing to minimizing ecological footprints across the sports industry. By examining these advancements, we uncover how green patents not only spur technological advancement but also foster a culture of environmental stewardship among sports manufacturers and stakeholders.

Introduction

Green Intellectual Property Rights (IPR) is a relatively new and evolving concept that emerged in response to the growing global environmental challenges, including climate change, biodiversity loss, and resource depletion. It is an intersection between traditional intellectual property rights and environmental concerns, aiming to promote and protect innovation and technologies that have a positive impact on the environment and contribute to sustainable development.

The concept of Green IPR gained momentum as the world recognized the need for sustainable practices and solutions to address the adverse effects of industrialization and economic growth on the environment. Intellectual property rights, such as patents, copyrights, trademarks, and trade secrets, have long been used to incentivize and protect innovations in various fields. However, the conventional application of IPR did not explicitly consider environmental considerations.

With the rise of environmental consciousness and the acknowledgement of the limited nature of natural resources, there was a call for integrating environmental sustainability into the intellectual property framework. The idea behind Green IPR is to encourage the development and dissemination of eco-friendly technologies, products, and processes while safeguarding the rights of innovators and creators.

Introduction

As a new decade begins, the effects of climate change are being felt all around the world. Storms, floods, droughts, and wildfires are examples of events that may already be linked to climate change and that are expected to occur more frequently and intensely as well as the destruction they inflict virtually every day. The state of the world’s climate is a serious issue that requires attention. In order to create a future that is more environmentally friendly, addressing this issue is urgently required, and everyone must take this into consideration as their shared goal. Since technology is increasingly being seen as a part of the outcome.

To this end, the strengthening of national innovation systems and ensuring that people have access to effective IPPI management programmes need to be stepped up with a view to improving research and development in technologies, products and services which are needed for transformation into a more environmentally sustainable future. This crisis can’t be solved, unless there is a breakthrough technology that will make the goals achievable. This is why innovation in the field of “green” technologies will be needed and intellectual property rights will play an important role. Intellectual property rights may ensure that technological progress can be sold to allow for the continuation of research and development investment but they could also cause problems and constraints. The impact and opportunities that “Green IP” can have are therefore considerable. Regardless of their distinctions, “Green IP” will have an impact on companies from different industries, sectors, and locations. The consumer goods sector needs to improve how they go about changing the specifications for designing products that can be easily recycled and repaired.

Biological synthesis of Zinc Oxide (ZnO) nanoparticles

Aim

To synthesize nano ZnO particles using fungal isolates.

Introduction

The ZnO nanoparticle are effective anti-bacterial and antiodur agent. Biological synthesis of ZnO nanoparticle is a new approach for environmentally benign protocol in context to green nanotechnology, (Raliya and Tarafdar, 2013).

Aim

To synthesize Zero valent (Fe) (nZVIs) iron using tea leaf extract.

Introduction

In this approach extracts of natural products (in most cases green tea leaves) with high antioxidant capacities are used. The compounds present in these extracts react with Fe (III) in solution to form nZVIs (Nadagouda et al., 2010).

Introduction

Western world started paying attention to climate change after the Industrial Revolution when collateral environmental problems began appearing with the development. But in India, many shastras gave philosophy of sustainable development before the evolution of many civilizations.

It means that “All this is for habitation by the Lord, whatsoever is individual universe of movement in the universal motion. Man should use all resources by renunciation, he should not see them with feeling of lust”. Here, renunciation means controlled use of resources. It is known as Green Application of the resources nowadays.

Whenever the term ‘green’ is used as an adjective with certain phrases, the said phrase is considered to depict a friendly character with the environment. In this sense, the Cambridge Dictionary defines the word ‘green’ as “relating to or believing in the protection of the natural environment.” For instance, Green Technology, one of those concepts towards which this paper is concerned, will refer to those technologies which are environment friendly. But this won’t help us understand what green technology actually means.

Introduction

The recognition of environment as the desired precondition for human existence and development both by Millennium Development Goals (MDG) as well as Sustainable Developmental Goals (SDG) unquestionably shows its importance and necessity. The impact of climate change is fast getting into our understanding and are realizing the enormity of the situation. Consequently, global environmental issues are a growing concern among the people and communities of various regions today. The impending ecological disasters have forced the right-thinking people and organizations to seek an alternative in the form of managing natural resources without jeopardizing the developmental activities. The challenge is to enhance the standard of living compatible with ecology and environment. This underlines rather unquestionably the need to pursue a line of lifestyle and development design that is compatible with nature and the issue of the environment cannot left to languish at the bottom of priorities.

Groundnut also known as peanut or monkey nut (Arachis hypogaea L. 2n = 4x = 40, allotetraploid, a species of the legume or bean family, Fabaceae, essentially self-pollinated, with genome 1C=2891 Mbp) is one of the five major oilseeds, namely, soybean, sunflower, groundnut, cottonseed and rapeseed. The global acreage, production and yield during 2018-19 have been 27.49 million hectares, 46.81 million tons and 1700 kg per hectare. The preliminary corresponding figures for 2019-20 have been 26.75 million ha, 45.87 million tons and 1710 kg per ha (USDA, 2000). India and China with more than 4.5 million ha each account for nearly one third of total global acreage and fifty percent of global production (China, 17 million tons and India, 6.69 million tons). Other countries in descending order in terms of area are Sudan, Nigeria, Senegal, Myanmar, Niger, Chad, Guinea, Uganda, Congo and Mozambique. Productivity-wise, USA tops the list (4480 kg/ha) followed by China (3750 kg/ ha). India with 1400 kg/ha is at the average position.

•    A corn plant requires a certain number of growing degree units (GDUs) to reach maturity, regardless of the number of calendar days it takes to accumulate.
•    The relationship of GDU accumulation and corn development, along with utilizing the estimated number of days to reach a certain growth stage, can help predict when important growth stages will occur.
•    Growth stages can be used to help growers make timely applications of herbicides and fungicides. The following information is on corn growth and development from emergence to R6 growth stage.
•    Corn growth stage development can vary according to corn maturity. An early maturing product may produce fewer leaves or develop through growth stages faster than a slower paced late maturing product. This is important to remember when staging corn in relation to accumulated GDUs.

Gypsophila, commonly known as baby's breath, is an important filler flower used extensively in bouquets, floral arrangements and export markets. This chapter covers its origin, classification, genetics, botanical features and commercially important varieties. Production practices include climate, soil, propagation, planting, spacing, irrigation, nutrition, pruning, crop regulation and growth regulators. Pest and disease management is followed by harvesting, grading, postharvest treatment, cold storage and drying. The chapter emphasizes the importance of ethylene management, silver thiosulphate treatments and proper grading for extending vase life and maintaining export quality. Protected cultivation can significantly improve yield and production efficiency.