eChapters

Introduction

Understanding the variation in grain protein content is the pre-requisite of its improvement in modern rice varieties. The measure of quantitative and qualitative aspects of grain storage protein content includes estimation of soluble and total grain protein, quantifying various fractions, viz. glutelins, prolamins, globulins and albumins and their profiling through SDS-Page and  estimation of amino acid. As traditional chemical methods for protein content determination are destructive in nature. All these estimates comprehensively give insight into the diversity of storage protein in rice germplasm. The standard procedures followed for all these estimates are briefly stated in the  following sections.

Estimation of Total Grain Protein Content in Rice

The total protein is estimated via estimation of total N through the Kjeldahl method whereas soluble protein is estimated through Lowry method, Dumas method and Bradford method. But for estimation of large number of genotypes all these processes are tedious, time-consuming, and costly. Near-infrared spectroscopy (NIRS), as a non-destructive detection technique, can achieve rapid quantitative determination of protein contents and become an important development direction to replace traditional chemical detection methods.

12.1. Variety release

Superior cultivars are to be purified by breeder and tested for genuiness in 7 generations.

Then, they are forwarded to MLT after RYT, RRYT, PYT and CYT in respective research station.

Based on results of the MLT, strain is forwarded to Adaptive Research Trials (ART).

Population expansion, climate change, diminished rainfall, and escalating food demand are adversely affecting agriculture, resulting in alterations to crop practices. Consequently, to enhance yields and obtain precise data, it is imperative to implement modern precision farming techniques and deploy diverse sensor technologies.
• In light of the current circumstances and their adverse effects on conventional farming methods, agriculture must be conducted more wisely, employing advanced and cutting-edge technologies. This is the sole method to deliver a solution and address the incessant and expanding demands of the global population.
• Precision agriculture sensors are highly effective in agriculture as they relay data that enables farmers to monitor, enhance their goods, and stay informed about changes in the field and ecosystem.
• Advanced agricultural sensors efficiently identify animals, detect estrus, and monitor health, so enabling the isolation and treatment of ill cows through the identification, detection, and tracking of herds.
• Farmers can now utilize smart sensors in agriculture to monitor their crops remotely, assess their efficacy, manage pest infestations, and promptly implement measures to safeguard their crops from environmental threats.
• A sensor is a device that detects and reacts to specific inputs such as light, movement, pressure, temperature, or humidity, converting them into representations or signals that can be interpreted by people for further analysis and processing.
• They are frequently utilized in many applications, ranging from motion detection in security systems to temperature measurement in HVAC systems. They are also utilized in commonplace items such as smartphones, automobiles, and appliances.

Vector data analysis is performed to convert raw input vector data to output that provides new and meaningful information which ultimately supports decision making and disclose hidden patterns. There are various techniques to analyse vector data like buffering, intersect, union, and so on. Some of the most commonly used techniques with their R-code examples are explained in this chapter.

First of all, you need to import all the packages which are required for performing this exercise. These packages include rgdal and sp for importing and re-projecting vector data as well as raster and rgeos for performing vector analysis operations.

Vector data consists of points, lines and polygons with x, y coordinates known as vertices representing the geographic location i.e. latitude and longitude. Vector data depicts the shape of the spatial feature. Points consist of single x, y locations. Examples of points are tower location, sampling location, etc. Lines represent 1 – dimensional features like roads, streams, etc., and are composed of many or at least two connected points or vertices. Polygons denote 2 – dimensional features like boundaries with three or more vertices that are connected and closed. The vector data are represented in the following figure (fig. 5.1).

Vegetable refers to the edible parts of plant such as leaf, root, stem, fruit, rhizome, corm or seeds consumed directly or after cooking. Vegetables are an important constituent of balanced diet taken for good health. Vegetables are good source of dietary fibre, protein, essential vitamins, minerals and antioxidants. Hence, vegetables play a vital role for human health. In urban areas, vegetables can be grown in the backyard, rooftop and terrace. Harvesting vegetables from own garden has a separate satisfaction. The vegetables produced in home gardens are of superior quality as those do not contain any harmful toxic substance. Growing vegetables in the home premises will reduce the daily expenditure of a family. In urban areas, vegetable can be taken in small patches in the backyard to fulfil the family requirement. In absence of surplus land area, it can be grown in pots, containers or polythene bags placed on the rooftop or terrace. Some vegetables can also be grown on the rooftop in a specially prepared bed with shallow depth of soil. In this chapter, discussion is made for cultivation of vegetables in small patches.

Vegetables: Three conditions shoul1d be met to be called a horticultural produce as a ‘vegetable’ viz.

• Vegetables are herbaceous plants
• They mostly serve culinary purpose
• They are also used in small quantity in a raw form.

Scenario

Area

• India is the second largest producer of vegetables in the world, next to China. India’s share of the world vegetable market is around 14%.
• India produces 188.28 m tonns

SYNOPSIS

Food is any substance consumed to provide nutritional support for the body. It is usually of plant or animal or fish origin. Plant foods are the most abundant sources of nutrition on earth. Only plants contain powerful substances called phytochemicals, which protect us from cancer, heart disease, and an array of other serious illnesses.

Vermicompost is the result of the biooxidation and stabilization process of organic wastes by joint action of earthworms and microbial decomposers. In this process all nutrients present in organic wastes are transformed to plant available forms. Earthworms also secret various plant growth hormones along with polysaccharides, proteins and other nitrogenous compounds. Vermicompost, therefore, improves aeration, soil structure, nutrient availability, water holding capacity, ground biodiversity and nutrient efficiency, enhancing germination, growth and yield of crops. As compaired to farm yard manure, vermicompost contains 40 to 60% higher levels of humic substances and is superior in quality than conventional composts. The effect of humic substances is more prominent in stimulating root respiration, formation and growth, which in turn improves upper growth including the shoots, leaves, flowers and fruits (Theunissen et al., 2010).

Ever increasing use of chemical fertilizers without an adequate organics has deteriorated the fertility and productivity of soil and also aggravated multi-nutrient deficiencies in soil and plant system (Gupta and Singh, 2006). Further, change in the cropping pattern, intensive cultivation and indiscriminate use of pesticides with an objective to obtain more and more crop yield, has not only made agriculture a profitable commercial venture but has also brought in several problems of pests and diseases, and ecological crises. As the nitrogenous fertilizers are soluble and as such they may leach down into ground water as for example presence of nitrate in underground waters of some parts of UP, Haryana, Punjab, Gujarat, has become a potent source of blue baby disease (Gupta, 2005).

Municipal solid wastes (MSW), the wastes generated in municipality area, are complex heterogenous in nature due to its collection from different places like residence, markets, institutes, hotels, etc., together before disposal. As per Hazardous waste (Management & Handling) Rules, 1989 and Bio medical wastes (Management & Handling) Rules, 1998, the industrial wastes generated in various factories and biomedical wastes generated in hospitals and nursing homes should not be dumped in MSW collection site as disposal process for those wastes are different as directed by Government of India in those rules. But those wastes produced by smaller units are discarded in street dustbin, which make disposal problematic.

Abstract
Vermicomposting, the process of producing organic manure through earthworm activity, offers a sustainable solution for enhancing soil fertility and agricultural productivity. Vermicompost, often termed "Black Gold," is rich in plant nutrients, growth-promoting hormones, enzymes, and beneficial microorganisms, improving soil's physicochemical and biological properties. In Chhirauta village, Banda district, a group of eight farmers adopted vermicomposting as a livelihood, producing 20 tons of vermicompost and 1 ton of vermiculture annually after training from Banda University of Agriculture & Technology in 2019. By incorporating leguminous crop residues and maintaining optimal moisture (45- 65%) and neutral pH, they enhanced compost quality. Vermiwash, a nutrient-rich liquid byproduct, is also produced and sold. This initiative not only addresses waste management but also promotes organic farming, reduces greenhouse gas emissions, and provides economic opportunities for rural youth. The success of this model highlights vermicomposting's potential for agri-entrepreneurship and sustainable agriculture.
Keywords: Vermicompost, Vermiwash, Organic Farming, Earthworms, Soil Fertility, Agri-Entrepreneurship, Sustainable Agriculture, Waste Management, Black Gold, Chhirauta Village

Introduction

For the majority of people on the planet, especially in developing and undeveloped nations, agriculture is their main source of income (Barragan Ocana and Del-Valle-Rivera, 2016; Guo and Liu, 2022). Additionally, agriculture provides majority of the world’s food and waste (Fróna et al., 2019). The environment, the agriculture sector, and ultimately the food chain are suffering irreversible harm due to the fast eroding agricultural soil (Chalise et al., 2019). Excessive waste production is one of the main issues of this sector (Bahrololoum et al., 2022). Failure to promptly manage this organic waste can lead to environmental contamination, endangering not only human health but also the well-being of other organisms. Additionally, its wastes resources nutrients, water, and land (Munir et al., 2018).

Abstract
The widespread use of chemical fertilizers since the Green Revolution has boosted food production but at the cost of environmental degradation, reduced soil fertility, and compromised food safety. Indiscriminate application has led to groundwater contamination, loss of beneficial soil organisms, and increased crop susceptibility to pests, posing health risks. Organic farming, particularly vermicomposting, emerges as a sustainable solution, utilizing biological nutrients to enhance soil fertility and produce safe, high-quality food. Vermicomposting offers social, economic, and environmental benefits, creating low-skill jobs, requiring minimal investment, and reducing waste through recycling. Techniques like Rhino Vermi Bed and Matka Vermicomposting enable small-scale farmers, women, and rural youth to engage in profitable agripreneurship, fostering economic growth and ecological sustainability despite challenges like market awareness and infrastructure limitations.
Keywords: Vermicomposting, Organic Farming, Food Safety, Environmental Sustainability, Agripreneurship, Soil Fertility, Rural Development, Waste Recycling, Small-Scale Farming, Economic Growth

Vermicomposting is the process of turning organic debris into worm castings by earthworms.

Earthworms feed on decaying material, pass through alimentary canals and excreted as castings.

pH of the castings is 7 (neutral) and the castings are odourless.

Contain high amounts of nitrogen, potassium, phosphorus, calcium, and magnesium.

Contains 5 times the available nitrogen, 7 times the available potash, and 1 ½ times more calcium and rich in humus.

Improves aeration, porosity, structure, drainage, and moisture holding capacity.

Vermicomposting is the rapid aerobic non-thermophilic composting technique for decomposition of various biodegradable wastes using epigeic earthworms in comparison to other conventional pit or heap composting techniques. Earthworms fragment the half decomposed organic material, mix and promote microbial activity. Worm utilizes 5-10% of food for its body growth and excretes remaining portion as vermicompost. The action of earthworm is both mechanical and biochemical. Mechanical fragmentation of the half decomposed organic material to finer particles by earthworm in its gizzard helps to increase surface area of action by microbes and aeration inside bed. Biochemical action improves the enzymatic digestion, nutrient enrichment and change in organic and inorganic contents.

Earthworms have been on the earth for over 20 million years. In this time they have faithfully done their part to keep the cycle of life continuously moving. Their purpose is simple but very important. They are nature’s way of recycling organic nutrients from dead tissues back to living organisms. Many have recognized the value of these worms. Ancient civilizations, including Greece and Egypt valued the role earthworms played in soil. The Egyptian Pharaoh, Cleopatra said, “Earthworms are sacred.”