eChapters

Composting means decomposing organic wastes. It is a safe, non-polluting and microbiological method for disposal and recycle of organic wastes by converting those to balanced plant food materials, commonly known as compost, the organic fertilizer. In other words, the mineralization and partial humifi cation of organic materials by the action of microorganisms under suitable condition is called composting (Figure 6.1). The organic wastes undergo different physical and chemical changes with the help of microbes like bacteria, fungi, actinomycetes, etc. During composting the population of pathogenic microorganism reduces while that of benefi cial microorganism increases.

A system is a unit which possess a group of interacting components, operating together for a common purpose, capable of reacting as a whole to external stimuli. It is unaffected directly by its own outputs and has a specified boundary based on the inclusion of all significant feedbacks. For example, the human body is a system-it has a boundary (skin) enclosing a number of components (heart, lungs) that interact (the heart pumps blood to the lungs) for a common purpose (to maintain and operating the living body).

Ecosystem: Any collection of organisms that interact or have the potential to interact along with the physical environment in which they live form an ecological system or ecosystem. Ecosystems are not static entities but, they are dynamic systems with characteristic pattern of energy flow, nutrient cycling and structural change.

Agro ecosystem: Agro ecosystems are ecological systems modified by human beings to produce food, fibre or other agricultural products. Like the ecological systems, agro ecosystems are structurally and dynamically complex. But their complexity arises from the interaction between socio economic and ecological processes.

Crop system: An arrangement of crop population that transform solar energy, nutrients, water and other inputs into useful biomass that produce food, feed, fuel and fibre. Crop system comprise of soils, crop, weed, pathogen and insect subsystems. The crop can be of different species and variety, but they only constitute one crop system if they are managed as a single unit.

Cropping systems: It is defined as the order in which the crops are cultivated on a piece of land over a fixed period of time. Cropping system is the way in which different crops are grown. In the cropping systems, sometimes a number of crops are grown together or they are grown separately at shorter intervals in the same field.

Agricultural professionals continuously confront challenges in preventing pest infestations and managing temperature and moisture levels to protect grains from decay. They recognize the critical importance of safeguarding these valuable resources and rely on quick, dependable solutions to tackle common grain storage issues. Let’s take a closer look at the challenges faced by growers, handlers, transporters, and processors in long-term grain storage, and the strategies they employ to overcome these obstacles.
ABIOTIC FACTORS
There are also abiotic factors, which are non-living elements, that influence the quality of stored grains. Factors such as air, humidity, and temperature play a significant role in grain storage. If these factors are imbalanced in terms of quantity or quality, they can have a detrimental effect on the stored grains.
SPACE CONSTRAINTS
As crop yields continue to rise, farmers face the challenge of finding enough storage space to accommodate the increased harvest. Often, last year’s grain still fills storage bins when the new crop arrives, prompting the agricultural industry to seek innovative storage solutions.
The most straightforward solution to a shortage of storage space is to build additional bins. However, this option is not always feasible for smaller farms or processing facilities with limited budgets. As a result, many choose to repurpose existing barns or store surplus grain outdoors in piles. Unfortunately, this outdoor storage method comes with its own set of challenges, including faster spoilage and pest issues. To counter these problems, some facilities use temporary storage options such as grain bagging systems or outdoor storage tents. Mechanical ventilation systems are also employed to ensure proper aeration, reducing the risk of spoilage before the grain is moved to its final destination.

Fungi

Definition

Fungi are eukaryotic, spore bearing, achlorophyllus, heterotrophic and thallophytic plants with varied forms and habitats, representing heterothallic or homothallic types of sexuality with characteristic sexual and /or asexual means of reproduction without tissue differentiation.

All animals have a range of ambient environmental temperatures termed as thermo-neutral zone. This is the range of temperatures that are conducive to health, performance and well-being. The upper critical temperature is the point at which heat stress begins to affect the animal adversely. There are a number of climatic factors like temperature, humidity, wind speed and radiant energy/sunlight that influence the degree of heat stress. Heat is also produced by metabolism within the body, which includes maintenance, growth and production. Heat production is affected by body weight, species and breed, level of production, level of feed intake, feed quality and, to a lesser extent, by the amount of activity and exercise. Excluding temperature of the air ventilating the house, heat is also added from the roof and walls. Heat stress can be defined as the point where the animal cannot dissipate adequate quantity of heat to maintain body thermal balance. During the periods of heat stress, most of the productive energy is diverted to thermoregulatory adaptations that results into decreased weight gain, poor immunity, oxidative stress predisposing animals to various infectious diseases and high mortality rates. In order to characterize and quantify thermal comfort zones according to animal species, several thermal comfort indices or heat stress indices were developed.

The primary focus for livestock and poultry has been on heat stress indices to provide guidelines for environmental management and risk assessment for losses through linkages with physiological responses (Eigenberg et al., 2005) or performance (Baccari, 2001). The linkage is based on observations of a selected performance criterion (e.g., growth, milk or egg production) made concurrently with measures of the warm environment. These serve as inputs for the selected heat stress index and thus an empirical relationship can be developed which is termed as ?biological response function?. These indices recognize the ability of the animal to cope with environmental stressors by adjusting physiologically, behaviourally and immunologically to minimize adverse effects or even compensate for reduced growth and production performance during moderate environmental challenges. When the intensity and duration of potential stressors exceed thresholds, coupled with limited opportunity for recovery, animals are unable to cope and therefore are affected adversely. Nevertheless, the heat stress indices have served as useful surrogates for the complex interactions between the physical and biological components (Hahn et al., 2003).

Studying livelihood systems requires a multidimensional approach, as livelihoods are shaped by a variety of social, economic, environmental, and institutional factors. To understand how individuals and communities sustain
their lives, researchers and policymakers use a range of indicators that help analyze both the opportunities available and the vulnerabilities faced by people. These indicators provide insights into the resources people use, the strategies they adopt, and the outcomes they achieve in their pursuit of a secure and dignified living. One of the foundational frameworks for analyzing livelihoods is the Sustainable Livelihoods Framework (SLF), which identifies five core categories of capital or assets: human capital, natural capital, financial capital, physical capital, and social capital. Indicators related to each of these asset types are commonly used in livelihood studies.
Apart from these core assets, livelihood outcome indicators are also important. These include levels of food security, poverty status, employment stability, quality of life, savings and investment behavior, and ability to withstand shocks. These outcomes provide a picture of whether the livelihood strategies adopted are sustainable and equitable. Institutional and policy indicators are equally significant. These include access to government schemes, land rights, legal entitlements, effectiveness of rural development programs, and availability of extension services. The role of markets, financial institutions, and governance structures must also be considered when evaluating livelihood systems. In the context of vulnerability, indicators like frequency of crop failure, income variability, health risks, and exposure to natural disasters are used to assess how secure or fragile a livelihood is. Coping strategies, such as migration, asset liquidation, or diversification of income sources, are also analyzed.

Introduction
Liposomes as Drug Delivery Vehicles
Liposomes, first described by Alec Bangham in 1961, are self-assembled vesicular structures composed of one or more lipid bilayers surrounding an aqueous core(Nakhaei et al., 2021). These lipid bilayers typically consist of natural or synthetic phospholipids, which can spontaneously form closed vesicles in an aqueous environment due to their amphiphilic nature. The resulting liposomal structure resembles a miniature cell membrane, with hydrophilic heads facing outward towards the aqueous environment and hydrophobic tails facing inward, forming the bilayer structure(Nogueira, Gomes, Preto, & Cavaco-Paulo, 2015). Liposomes are important in the field of drug delivery due to their unique structural properties, which enable them to encapsulate a wide range of therapeutic agents, including hydrophilic, hydrophobic, and amphiphilic compounds. (Guimarães, Cavaco-Paulo, & Nogueira, 2021) The size of liposomes can vary from tens to hundreds of nanometers, making them suitable for both systemic and targeted drug delivery applications. Liposomes can be formulated to exhibit specific properties such as prolonged circulation time, enhanced stability and targeted delivery.(Simões, Moreira, Fonseca, Düzgünes, & De Lima, 2004) The versatility of liposomes is due to their ability to encapsulate drugs within the aqueous core, embed drugs within the lipid bilayers, or attach drugs onto the liposomal surface through chemical conjugation or targeting ligands. This flexibility allows for the development of multifunctional liposomal formulations capable of encapsulating multiple drugs which facilitate combination therapy and theranostic applications.(Cheng et al., 2021; Eloy et al., 2014) Liposomes also offer several advantages over conventional drug delivery systems, including biocompatibility, biodegradability, and low immunogenicity. These characteristics minimize the risk of adverse reactions and systemic toxicity which makes the liposomes suitable for repeated dosing and long-term therapeutic applications.(Al-Jamal & Kostarelos, 2011; Alavi, Karimi, & Safaei, 2017; Goyal et al., 2005) However, liposomal drug delivery systems are also associated with several challenges which include issues related to stability, scalability, and manufacturing consistency.(Kraft, Freeling, Wang, & Ho, 2014)

1. Introduction

Among three major functions identification, classification and nomenclature of taxonomy (Fig. 1), identification is a core activity and one of the major objectives of taxonomy, which determines whether other two elements are the same or different. Classification and nomenclature are two separate methods in taxonomy, however, both are totally dependent on the correct identification of the objects. The identification of an unidentified plant with a correctly identified specimen also involves classification. So, both identification and classification, involve comparison and judgment of similarities and differences. Therefore, the identification is a primary function in classification involving nomenclature which performs an essential role as a means of communication. According to Blackwelder (1967) “identification enables us to retrieve the appropriate facts from the system (classification) to be associated with some specimen at hand” and is “better described as the recovery side of taxonomy.” The identification of plants is very important for proper assessment and characterization of biodiversity on which the whole life of human beings is dependent starting from birth to death. The use of biodiversity for various purposes like food, nutrition, pharmacognosy etc. requires accurate and reliable identification and naming of plants (Nesbitt et al. 2010).

Poultry rearing systems vary in scale and complexity, each suited to different production needs and environments. This chapter explores the main poultry housing systems, detailing their advantages and disadvantages to help in selecting the most appropriate method for various farming scenarios.

Housing Systems of Poultry

Generally, there are four types of housing systems in poultry, they are

1. Free range or extensive system,

2. Semi-intensive system,

3. Folding unit system and

4. Intensive system.

1. The plaster-bandage wrap cast :(Negative cast)

The amputee was restrained on lateral recumbency keeping the amputed leg upwards.

A thin, moistened stockinet was pulled over the stump and it was maintained snugly in place by tying with a string at the top.

The moistened cast stockinet was marked with indeliable pencil indicating prominences with a cross and other sensitive areas with a circle (Fig.1).

Plaster bandages were then wrapped as pen requirement unit I the shell has a thickness of approximately 3mm in proximal third.

After plaster hardened, it was removed either by pulling out or longitudinal splitting with a cutter (Fig.2).

All over the world, garden designing has a historical back ground. Every continent has a definite style based on cultural heritage, agro-climate and the rulers. There are influences of one style over the other and subsequent change in gardening style also. However, there are some recognized orthodox styles like ‘English Garden’, ‘French Garden’, ‘Japanese Garden’, ‘Italian Garden’, ‘Dutch Garden’, ‘Mughal Garden’ etc. These are unique and true to their specific characters. Modern gardens all over the world have been greatly influenced by all these styles.

History and characteristics of these gardens are given below in order to make one acquainted with these styles.

Dutch Garden

Initially, gardening in The Netherlands was started in the form of abbey and monastery gardens (middle ages 500-1500 A.D.). Design of the medieval gardens usually was elongated rectangle, sometimes square, also divided with cross paths. These gardens were mainly meant for production of vegetables, medicinal herbs and fruits besides flowers.

During the Dutch renaissance (1500-1650 A.D.) further gardening activities initiated. After independence in 1609, it gained momentum and the change of garden style also noticed. Gardens became more open without walls. However, the basic design was on the basis of geometrical patterns - rectangular divided into small separate square. Axis of the garden was not in relation to the building. Leafy walk path (berceaux) was main structural elements created between various sub-divisions. Bulbous plants specially tulip was most preferred in the garden besides marigold, carnation, poppy, rose etc.

Introduction Fruits and vegetables are basic foods for human physical health since they have a wide range of flavours and are linked to a higher quality of life. Horticultural crops are known to reduce the risk of a variety of chronic diseases. Recognizing the importance of fruits and vegetables in the human diet, demand for these horticulture food products has skyrocketed. The demand for fruits and vegetables has expanded significantly as a result of greater consumer awareness of dietary habits, the benefits of eating fruits and vegetables, and an increase in the global population. According to research by the Food and Agriculture Organization (FAO), horticulture product production for 2019 is expected to be 314.5 million tonnes, which is roughly 1% more than the global fruit and vegetable (F&V) production in 2017–2018. (FAOSTAT-FAO statistical database, 2019). Over 67 % of the world’s horticulture produce is produced in China, India, the United States, Turkey, Russia, Vietnam, and Mexico (Paggiola et al., 2016).

For the accurate identification and diagnosis of plant disease and plant problems a foundational knowledge of terms and definitions is vital for developing concepts, doing research, discussing and communicating issues and providing clarity to your work. The following terms and definitions are basic to the study of plant pathology. They are, however, just a brief introduction to the vocabulary of the science. If you have limited or no background in the subject and you are just getting started, the concepts and terminology of plant problems can seem somewhat daunting. However, your vocabulary and skill will develop through exposure to diagnostics, experience and correct use of the appropriate terms.
Plant pathology (gr., path -“suffering”- “logy”, the science of) is the study of plant diseases and the abnormal conditions that constitute plant disorders. Etiology is the determination and study of the cause of disease. A pathogen can be living or non-living, but usually refers to a live agent. A pathogen is an organism which causes a disease. Pathological is a condition of being diseased. Pathogenic is having the characteristics of a pathogen and pathogenicity is the capability of a pathogen to cause a disease.

Advertising is a crucial component of marketing, designed to promote products, services, or brands to target audiences. A well-planned advertising strategy enhances brand visibility, attracts potential customers, and drives sales. Various advertising strategies exist, each tailored to achieve specific business objectives and cater to different market segments. This chapter explores the different types of advertising strategies used by businesses to maximize their reach and impact. 1. Print Advertising: Print advertising involves placing ads in newspapers, magazines, brochures, flyers, and billboards. It is a traditional form of advertising that continues to be effective for local and niche markets. Advantages • Tangible and long-lasting: Print materials can be kept for future reference. • Targets a specific readership: Newspapers and magazines cater to specific demographics. • Builds brand credibility: E

3a. Sources and problems of agricultural wastes
3b. Waste Reduction
3c. Waste Treatment
3d. Waste Disposal
3e. Clean Technology

Different Kinds of Agricultural Wastes
Table 1: Common Hazardous Wastes: Community Source

Introduction

In agricultural extension and education, video production plays a pivotal role in disseminating information, training farmers, and promoting best practices. The effectiveness of these videos is often determined by the quality of their scripts. This chapter explores three primary types of video scripts: basic production scripts, storyboard scripts, and camera scripts. Each type fulfills a distinct role in the production process, and understanding their unique functions is crucial for creating engaging and informative content. By examining these script types, this chapter aims to provide a comprehensive guide to the scripting process, helping to enhance the quality and impact of educational and promotional videos.

Script

A script is the written content for visual stories, such as plays, television shows, or movies. While scripts often include stage directions and production notes for performers and crew, their primary focus is on the dialogue between characters. Scripts serve as a blueprint for the entire production, guiding actors and technical crew through their roles and responsibilities. For example, a script for a stage play will detail character interactions, emotional tone, and specific actions, ensuring that all elements of the performance align with the director’s vision.

4.1 Introduction

There are some mathematical tools that are applicable in solving the mathematical problems related to the subject matter on “Economic Theory”. Differential calculus is one of those mathematical tools. Hence the useful theory of differential calculus will be discussed in this chapter.

4.2 Differentiation

The mathematical term “Differentiation” is involved in finding the rate at which a variable quantity changes.

In the theory of “Differential Calculus” we are concerned fundamentally with the “Rate of Variation” in a function y = f(x) with respect to the change in other variable (Independent Variable X) on which the dependent variable ‘Y’ depends through a relation Y = f(x).

Integrating the function f (x) = 1 + e−x sin (4x) over the interval [0, 1]

using Simpson’s 1/3rd rule gives

(A) 1.021         (B) 0.091

(C) 1.321         (D) 2.642