eChapters

Introduction

Fruit and vegetable development starts with formation of an edible part fruit setting, seedling emergence, tuber development and ends with loss of edible character, or spoilage through physiological deterioration, development of fibrous character or spoilage through microbiological intervention . The state of maturity of a fresh horticultural commodity is therefore is a continuum process along the development scale. The term mature implies that point in the development scale when the horticultural commodity in the state that is ready to use (consume, process, store). For the packing house, maturity means suitability for storage followed by sufficient shelf life to assure profitable supply to markets. On the other hand, the retail consumer may value colour, flavour, or textural attributes. This implies that maturity and an appropriate compromise must be achieved through the marketing process.

Quality, on the other hand, relates to the degree of the satisfaction that the consumer or customer is likely to obtain through the use of mature commodity. Maturity and quality are interrelated with market expectations or requirements. These expectations or requirements are expressed through regulations or guidelines of grower groups or through legislative authority expressed as quality standards or grades and enforced through inspection agencies associated with government departments.

Abstract

Grains in present context are food grains. The PFA Act includes cereals, millets, and pulses in food grains. At times, seeds of certain oilseeds like soybean are also referred to in the discussion of food grains. Grains have been cultivated for thousands of years. We have Grain Standards as established by the International Organization for Standardization (ISO), which are considered as International Standards. Another source is Codex Alimentarius Commission (Codex) under the aegis of FAO (UN), which operates a Committee to formulate standards that are referred to as Codex Standards. Many countries have a National Standards Institution, which develops National Standards for their main grain crops and other commodities and issues specifications along with methods of testing and analysis. Several countries, which are in developing status, adopt or modify international standards into their national system. The Grain Standards have been evolved and established for a variety of purposes but primarily to grade produce in agricultural marketing largely to facilitate the movement of grain, provide both sellers and buyers with guidelines to support financial transactions, and ensure that the produce will meet up with end-use requirements, or, increasingly to protect the consumers.

Grading and Standardization

Grading and standardization is marketing function which facilitates the movement of produce. Grading standards for commodities are laid down first & then the commodities are sorted out according to the accepted standards.
Grading means grouping the products into different classes (which posses the same characteristics) in accordance with the predetermined standards. Grading as the division of products into/commodities into classes made up of units possessing similar characteristics of size and quantity. Grading follows standardization. It is a sub function of standardization.

Grafting is a horticultural technique. It is used commercially for many woody plants and some herbaceous plants. The purposes of grafting include asexual propagation, obtaining resistance to soil borne diseases, nematodes and unfavorable conditions, and improving fruit quality. Although there are advantages to grafting, graft incompatibility often prevents its practical use. Graft incompatibility occurs when the combination of scion and rootstock is inappropriate. The enormous range of genotype varieties used in grafting results in a wide range of physiological, biochemical and anatomical interactions between graft partners. Therefore, the causes and mechanisms of graft incompatibility vary according to graft combinations. Garner (1979) defined graft incompatibility as the failure to unite into a strong union, the failure to grow in a healthy manner, or premature death, when such failures could be attributed to differences between rootstock and scion.
 
The purpose of this review is to understand graft incompatibility as an aid to solving graft incompatibility problems. The symptoms and types of graft incompatibility are described, the causes and mechanisms of graft incompatibility are explored, and directions for future research are identified.

Underutilized crops can be found in many different agricultural ecosystems, but they are mainly grown by small landholders in the marginal areas especially in hill agriculture. Some crops remain underutilized because they are in some way not competitive with other species in the same agricultural environment. They are usually characterized by having local importance in consumption and production systems, requiring relatively low inputs, adapting to specific agro-ecological niches, receiving scarce attention by national agricultural and biodiversity conservation efforts, mainly consisting of local types or landraces, and being cultivated with indigenous knowledge. Many underutilized species are adapted to low-input agriculture and depended on by a large number of people in marginal areas in hill agriculture of developing countries.

This chapter attempts to provide a detail picture of one such underutilized crop i.e. Grain Amaranth. In an effort to explain the decrease in grain amaranth cultivation, fanciful myths have arisen. The mystery is especially intriguing when one considers that maize, with which amaranth co-evolved, was selected and developed into a major world crop. The small seed size of amaranth may have been a partial cause for the reduction in amaranth cultivation. A small seeded crop, such as amaranth, requires greater attention to detail in the early parts of the growing season than does a larger seeded crop, such as maize.

This chapter discussed all the factors related to its cultivation, the constraints in the production and importance of grain amaranth in the economy of hill agriculture etc.

Abstract
 
Grains are usually harvested above 20% (wb) moisture level and they are prone to microbial attack at high moisture level. In order to avoid both qualitative and quantitative losses that arise from microbial growth, grains are usually dried to safe moisture level. The safe storage moisture content may vary from 8-16% (wb), depending upon the grain and climate type. Therefore, drying is a necessary step in preventing these losses. Drying also reduces the bulk weight of the materials, thus easing transportation and storage. Drying can occur in thin layer or in deep bed. Different drying theories are proposed to characterize these drying processes. Theoretical as well empirical drying equations have been developed.

Grain engorgement syndrome, also known as grain overload, lactic acidosis, ruminal acidosis, or carbohydrate overload, is a metabolic condition primarily affecting ruminant animals such as cattle, buffalo, sheep, and goats. It occurs when animals consume excessive amounts of readily fermentable carbohydrates, commonly found in grains such as wheat, barley, and corn, or feed concentrates. The sudden overload leads to rapid fermentation in the rumen, causing a cascade of physiological disturbances that can be lifethreatening if not promptly managed.
This condition is of significant importance in livestock farming, particularly where intensive feeding systems, grain supplementation, or unintentional access to stored grains occurs. Proper understanding of the pathophysiology, clinical signs, diagnosis, and nutritional management is crucial for preventing mortality and economic losses in affected herds.
Pathophysiology
Ruminants rely on a microbial ecosystem in their rumen to digest fibre and carbohydrates. The rumen contains a diverse population of bacteria, protozoa, and fungi that ferment ingested feed, producing volatile fatty acids (VFAs) such as acetate, propionate, and butyrate. These VFAs provide energy to the animal. When ruminants ingest a sudden excess of high-starch grains or other fermentable carbohydrates, the balance of the rumen ecosystem is disrupted:
Rapid fermentation: The high starch content is rapidly fermented by grampositive bacteria such as Streptococcus bovis. This leads to a sudden and excessive production of lactic acid.

Q. 1 While operating a combine harvester, the grain not collected by the
machine is called
(A) Field loss         (B) Shattering loss
(C) Gathering loss (D) Reel loss

Abstract
Grain legumes, also known as pulses, are vital to sustainable agriculture due to their roles in enhancing soil fertility, providing essential nutrition, and supporting environmental sustainability. By establishing symbiotic relationships with nitrogen fixing bacteria, legumes naturally enrich soil with nitrogen, reducing reliance on synthetic fertilizers and fostering sustainable farming practices. Their inclusion in crop rotations not only boosts soil health but also supports food security, especially in developing countries where they are a key source of plant based protein and nutrients. The impact of climate change, including rising temperatures, altered precipitation patterns, and increased frequency of extreme weather events, presents significant challenges to agriculture. In this context, grain legumes demonstrate considerable climate resilience. Their drought tolerance, heat resistance, and ability to fix atmospheric nitrogen make them well-suited to withstand climate stress. Legumes exhibit mechanisms such as deep root systems, efficient water use, and adaptability to diverse environmental conditions, contributing to their robustness in the face of climate variability. To bolster the role of grain legumes in climate-resilient agriculture, climate-smart practices and technological advancements are essential. These include optimizing planting strategies, adopting water-efficient methods, and breeding for improved resilience traits. Addressing challenges such as climate variability, pest pressures, and resource limitations is crucial for maintaining the benefits of legumes. Future efforts should focus on developing robust management
practices and improved varieties to ensure the continued contribution of grain legumes to food security and environmental sustainability.
Keywords: Climate Resilience, Drought Tolerance, Grain Legumes, Heat Resistance, Sustainable Agriculture, Water Use Efficiency

Abstract
Grain legumes, a group of crops which belong to Fabaceae family, are primarily grown for their edible seeds. Pulses contain a high amount of protein (20-25%), vitamins, and minerals. Consumption of pulses can be beneficial for cardiovascular health, weight management, for diabetics, cancer management, bone health etc. So, grain legumes can play a significant role to address future global food security, environmental sustainability, and nutritional needs. The nutritional value of grain legumes can be significantly enhanced through biofortification, agronomic intervention, processing, and value addition. So, diversification of food habit with pulses and cereals can solve the prolong problem of malnutrition in developing countries including India. Despite such great importance, global food legume production has
been found to increase at a very slow pace. Keywords: Biofortification, Environmental sustainability, Food security, Grain legumes, Nutritional security
Introduction
Grain legumes or pulses are a group of crops which belong to family Fabaceae, are primarily grown for their edible seeds. The common examples of grain legumes include: bean (Phaseolus spp.), lentil (Lens culinaris), chickpea (Cicer arietinum), pea (Pisum sativum), soybean (Glycine max), lupin (Lupinus spp.), broad bean (Vicia faba), igeon pea (Cajanus cajan), grass pea (Lathyrus sativus), black gram (Vigna mungo), green gram (Vigna radiata). Grain legumes can play a significant role to address future global food security, environmental sustainability, and nutritional needs. Pulses are the second most important food crop after cereals and an important source of proteins, vitamins, and minerals. Pulses are popularly known as “Poor man’s meat” and “Rich man’s vegetable”. Pulses contain a high amount of protein (20-25%), which is almost double and triple of the protein content of wheat and rice, respectively and so can contribute significantly to the nutritional security of the country. Besides, they may serve the purpose of protein rich fodder and good quality green manure crop. Pulses can thrive well in low and marginal land with less external inputs. They act as erosion resisting crops because of its deep tap root
system, leafy growth, and close spacing. Pulses can also be grown as paira crop or inter-crop in different growing situations. Being a leguminous crop, it can fix atmospheric nitrogen with the help of its root nodules, resulting in low requirement of external fertilizer. Keeping the importance of pulses in mind, United Nation’s Food and Agricultural Organization (FAO) also declared 2016 as the ‘International Year of Pulses’.

3.1 Introduction

The production of food grains in India is around 200 million tonnes and most of the grains are converted to primary products after primary processing such as threshing, dehulling, de-branning. Some of the grains are converted to secondary products such as flour or grits. The yields of primary and secondary products range between 65-80% indicating a wastage of 20-35%. These wastes lead to unclean surroundings and air pollution due to fine dust. Hence, proper waste management/utilization of food grain processing industries has become a societal need for a clean environment.

The term ‘waste’ has different meanings to different people. It can be retractions from the main process or less utilizable by-products or undesirable waste material depending on the commodity. All food-processing industries generate wastes and create problems for its management. The best way the food processing industry can treat its waste is to avoid producing it. Much of the waste now being produced or generated in some food processing plants can become a managed resource for producing economic credits. In fact, waste utilization is one of the world’s prominent industries and its activities cut across the normal divisions into which industries are placed. Similarly, there will be wastes from agriculture, animal and meat industries, textile, rubber etc. Even the local governmental activities that collect and dispose the household wastes become apparent in terms of the huge size of it.

Abstract

Grain size distribution patterns of five rivers – Hooghly, Bhagirathi, Damodar, Ajoy and the Usri, were critically analyzed and compared with three model distributions: log-normal, log-hyperbolic and log-skew-Laplace. The log-normal and log-skew-Laplace are the limiting distributions of log-hyperbolic family. The Hooghly-Bhagirathi river system from where the sand samples were collected is tidal in nature whereas the other three rivers are non-tidal. The tidal effect on grain size distribution patterns was also studied. Bed load samples were collected from the foreset of different bedform sizes. A total number of 126 sediment samples were collected from different sections of the rivers under study.

It is observed that the grain size distribution pattern of the tidal stretch of the Hooghly-Bhagirathi river system has a tendency of attaining a log-skew-Laplace distribution model whereas the other three non-tidal river sediments show a clear log-normal distribution pattern as a best-fit statistical model.

A possible reason has been attributed. During prolonged transport of bed material, the coarser and finer sediments are separated in the following manner: coarser sediments are buried below the advancing ripple fronts whereas the finer sediments are transported further downstream as suspension load. As a result, sediments of a narrow range of size classes are active in the distribution pattern giving rise to symmetric and unimodal distribution patterns which are the main criteria of log-normality. On the other hand, due to the upstream and downstream movement during sediment transportation in tidal reaches, the same sediments are constantly reworked and the segregation of different size fractions is hindered causing a log-skew-Laplace distribution pattern.

Food is a vital requirement for all living beings, as it provides the essential nutrients necessary for growth, development, and recovery. Humans depend on both plants and animals for nourishment, which we acquire through agricultural practices and animal farming. With the increasing global demand for food, crop yields have risen, which has led to a greater reliance on warehouses for grain storage. However, merely increasing food production is insufficient to combat hunger and malnutrition, as food security also heavily depends on ensuring that food is accessible to everyone. Crops, however, are exposed to various threats, such as pests, weeds, and diseases, which can drastically reduce yields if not managed adequately.
A significant issue is storage losses, which are driven by both biological elements (such as fungi, insects, and rodents) and environmental factors (such as unsuitable storage conditions or extreme temperatures). These losses result in various negative consequences, including:
• Reduced food quality
• Lower seed germination rates
• Loss of weight in crops
• Discolored produce
These problems can impede the marketing of harvested crops, leading to unsold goods and considerable losses for farmers and distributors.
To reduce these losses, it’s crucial to adopt proper measures like efficient treatments and continuous monitoring of storage conditions. Grains should be stored in environments that prevent deterioration. This can be achieved by ensuring thorough cleaning before storage, drying grains thoroughly (both under the sun and in the shade), and taking steps to control pests, including fumigation.

11.1 Grainage
Grainages are establishments where disease free and quality seeds are produced on scientific lines.
11.2 Grainage Activities
• Procurement of seed cocoons
Within the cocoon market, the government can buy the necessary number of multivoltine cocoons from the seed cocoon market. The purpose of a grainage is to produce attractive seeds. This method involves unique procedures, such as the manufacture of silkworm seeds for the market. Half of the bivoltine cocoons should also be obtained from bivoltine cocoon marketplaces to guide hybrid seeds.
• The seed cocoons are packed
Loosely in perforated packing containers or bamboo baskets in small portions and are transported all through cooler hours of the day. Initially the seed cocoons arriving on the grainages are subjected to inflexible selection. In selection only sound and uniform cocoons conforming to the characteristics of the race are selected and defective cocoons and so forth., are rejected. Strengthen detection of pebrine disease, if any before the commencement of operation of each batch enables in keeping off excellent loss to the grainages.

15.1 Fondant

The word fondant is said to come from the French verb fondre to dissolve. Confectionery fondants are normally made by boiling a sugar and glucose syrup in order to concentrate it before the mixture is cooled with beating to produce fine sucrose crystals. Some fondants used in baking are made by mixing icing sugar with a sucrose and glucose mixture. The icing sugar has a small particle size because it has been milled whereas the sucrose in a crystallised fondant has small crystals. It is possible to make a fondant using dextrose instead of sucrose. Crystalline dextrose has a positive heat of solution, i.e. heat is absorbed, and this produces a marked cooling effect which goes well with a peppermint flavour, but one which is not particularly attractive economically, but they can be in some other countries.

1.    The outer layer of cereals is called

(a) Pericarp

(b) Germ

(c) Seed coat

(d) Endosperm

2.    The grain or edible seed of a cereal is known botanically as a

(a) Testa

(b) Caryopsis

(c) Seed coat

(d) Endocarp

Cereals and pulses are the staple food in India, thus it has to be stored by producers in their homes and by traders and government agencies. Variations in the season i.e., warm and high humidity weather is highly conducive to proper development and rapid multiplication of storage insect pests. Almost all insect pests of stored grains have a remarkably high rate of multiplication and within one season, they may destroy 9-10% of the grains and contaminate the rest with undesirable odors and flavors. The type of insects infesting grains vary and include weevils, moths and beetles. Apart from this it is necessary to control or kill egg, larval, pupal and adult stages of the insect. After proper cleaning and drying the produce is stored where damage can be caused due to cross-infestation or infestation already left in the produce. Grains are stored in different types of receptacles and to protect it, different protectants are being used since from the early days. The success in the use of these protectants (organic, inorganic or inert) depends upon the effect on the grain, killing of the insects, practicability, period of storage and lastly the physical and chemical state of treated seeds.

1. Inert dusts

Inert dusts are fine powders chemically inactive but cause considerable insecticidal activity by mechanical abrassing and physical absorption of moisture proofing layers of insect integument. The use of inert dust was initiated sometimes during World War II. Some common inert dusts are ashes, clays, gypsum, lime, magnesite, Nakki, silica, talk, phosphates, diatomaceous earth. It was reported that though most of the dust proved effective and convenient to use but it is difficult to remove it and clean as it goes inside the infested and damaged grains. The dust can only kill larvae and adults moving in between the grains. Once any stage of insects entered inside the grain, it is beyond the reach of the dust.

Ascochyta Blight
Diagnostic Symptoms
• All above ground parts of the plant are infected.
• Round or elongated lesions, bearing irregularly depressed brown spot and surrounded by a brownish red margin on leaf.
• Similar spots may appear on the stem and pods.
• Spots on the stem and pods have pycnidia arranged in concentric circles as minute black dots.
• When the lesions girdle the stem, the portion above the point of attack rapidly dies.
• If the main stem is girdles at the collar region, the whole plant dies (Fig.1).
Etiology
Scientific Classification
Kingdom : Fungi
Division : Eumycota

Properties

1. Bacteroides, Dichelobacter and Fusobacterium are major gram negative anaerobes isolated from human and animals. Other gram negative anaerobes are listed below (Table-1).

       2.   They are tolerant to oxygen in comparison to strict anaerobes. They do not die after oxygen exposure

       3.         They naturally inhabit the intestine and mucosal surfaces of human and animals. Majority of them are opportunistic pathogens. Often they cause mixed bacterial infection along with aerobes. Aerobes remove oxygen and create an anaerobic condition favourable for their growth. Aerobes may also supply other growth requirements. For e.g. Porphyromonas asaccharolytica requires vitamin K for its growth, supplied by another bacterium, not the host.

1. Downy mildew
Diagnostic Symptoms
• Symptoms appear on all aerial and tender parts of the vine.
• Irregular, yellowish, translucent spots on the upper surface of the leaves.
• Correspondingly on the lower surface, dirty white, powdery growth of fungus appears.
• Affected leaves become, yellow and brown and gets dried due to necrosis
• Premature defoliation.
• Dwarfing of tender shoots.
• Infected leaves, shoots and tendrils are covered by whitish growth of the fungus.
• White growth of fungus on berries which subsequently becomes leathery and shrivels. Infected berries turn hard, bluish green and then brown.
• Later infection of berries results in soft rot symptoms. Normally, the fully grown or maturing berries do not contact fresh infection as stomata turn non-functional.
• No cracking of the skin of the berries (Fig.1). 

Grape cultivation is one of the most remunerative farming enterprises in India. Considered the “Food of Gods” by the ancients, the little juicy ball holds more mysteries than we can think of. Classified by biologists as a ‘true’ berry, it has fleshy insides all the way to the tiny seed, making it a strong powerhouse of nutrition and energy. As one of nature’s richest source of antioxidants, the grape is priceless in its nutritional value. In fact many dieticians believe that it helps lower the incidence of two of the deadliest diseases in the urban world- coronary disease and cancer. In its juice form, the grape is known to cleanse the liver and remove excess uric acid from the body. One interesting but little known fact is that grape seeds are healthier than the fruit itself. They contain powerful antioxidants serving to prevent premature ageing, disease and decay. Grapes, one of the most delicious fruits, are rich sources of vitamins A, C, and B6. In addition to this they contain essential minerals like potassium, calcium, iron, phosphorus and magnesium.

Grapevine stem girdler:  Sthenias grisator : Cerambycidae

This is a pest that can also survive on mango, rose, cocoa, coffee, almond, and mulberry. The ovipositing adult causes wilting of branches and then the entire vine. Adults are medium-sized, grey coloured beetles with a white spot at the center of each elytron. They are active at night.

Eggs are deposited in clusters of 2-4, underneath loose bark of girdled branches. Eggs are oval and enveloped in a white parchment like covering. Adults emerge out and start ovipositing individual eggs at a point in the vine in a circular fashion so that the vine dries up above this point. Egg period takes about 8 days. The grub has dark brown head and mouth has a pair of prominent mandibles, each with two teeth. The grub continues its life as a semi saprophyte and pupates in the same tunnel. A single generation can occupy one year.

Introduction: Grape is an important sub-tropical fruit crop in India. The plant of Vitaceae family divided into two important groups first is Euvitis which have 60 species; some important species which are commercially grown are i.e. Vitis vinifera, Vitis raperia, Vitis rupestris, Vitis labrausca and Vitis champini. Second group is Muscadiana and in this group the important crops are Muscadiana rotendifolia, Muscadiana popenoii and Muscadiana munsoniana. The chromosome number of this group is 2n = 40.

Grape was known to grow in India from ancient time but its commercialization is relatively recent, with the discovery of, Anab-e-Shahi’ variety by Mr. Shanker Pillay in 1930 from the bungalow of Nawab Baquer Ali Khan. This variety performed very well in the Hyderabad region of Andhra Pradesh and in fact gave initial boost to the Indian viticulture. It was initially known as ‘Malta’ and proved to be a pioneer in revolutionizing grape industry in south Indian.

Grape growing in north India received impetus from its success in south Indian. The commercial grape growing in north India dates back to early sixties when the ‘Pusa Seedless’ variety was released by the Indian Agricultural Research Institute, New Delhi. Latter on, the Punjab Government imported 100,000 cuttings of early-maturing variety ‘Perlette’ from California (USA). This variety acclimatized well and proved good for commercial cultivation.

In western Rajasthan the grape was introduced around 1960, which became popular among the growers. The fruit yield declined slowly thereafter and the grape cultivation was almost abandoned by 1971–72, particularly in the arid district. The problem of the drop of flower and flower-bud has been over of the major constraints in grape growing in western Rajasthan.

The disease attacks all the growth stages of plant affecting all above-ground parts. Plant covered with powdery patches leads to distortion, malformation and discolouration of leaves especially young leaves. Powdery patches gradually turn to grey and fi nally dark colour. Affected fl ower fails to develop fruit. Young berries turn black, irregular in shape and develop cracks. Sometimes berries ripe partially and rot. Vines get wilted.

Grapes belongs to the family Vitaceae and genus Vitis. The region between Black and Caspian Sea is considered to be the origin of grapes. Its association with man is believed to be older than that of rice or wheat. Viticulture and wine-making started in Egypt at about 3000-4000 BC. It is presumed that it spread to India in 620 B.C. The medical treatises written by Charaka and Sushruta in the 1^st century AD reveal use of grapes for medicinal purpose. Viticulture in India started in early 1960 and today assumes an important position in horticulture crop in view of its area occupied, production, value addition and job creation in both rural and urban areas.

Popular Varieties of Grapes

Thomson Seedless and its clones viz.; Tas-A-Ganesh, Sonaka and Manik Chaman; Perlette, Banglore Blue (Isabella), Kishmish Chernyi (Sharad Seedless), Muscat Hamburg (Gulabi), Flame Seedless, Red Globe, Crimson Seedless and Manjri Naveen (A clonal selection from Centennial Seedless).

Uses

Grapes has several uses like table purpose, raisin, juice, wine making and canning, etc. It has several medicinal and curative properties. It is used in Ayurvedic preparations for making Kada or arishtam (herbal tonic or medicine). The grapes which are used as a fresh fruit are designated as table grapes. These are having attractive appearance, and good eating and shipping quality and long shelf-life. The grapes that can be dried are included in the Raisin grapes. Wine grapes which are primarily used to produce wine are known as wine grapes. In many parts of the world, grapes are grown for wine preparation. Grapes with high acid and low sugars contents are suitable for wine preparation.

Genus : Vitis 
Species : vinifera L.
Family : Vitaceae
Chromosome No. : 2n=38, 40

Grapes are considered to be the oldest plants on earth which dates back to 90-95 million years, a time when dinosaurs ruled this planet, hence grape is as old as mankind. Grape is one of the most ancient crops. The Aryans knew grape cultivation as well as to prepare beverages from it. Grape cultivation in India dates back to 11th century BC. Later Muslim invaders from Iran and Afghanistan in the 12th century also introduced grapes to India, further in the 16th century Emperor Akbar the Great introduced and encouraged grape cultivation in various parts of India.

• The skin of grape berry is covered with a wax-like layer which is called cutin
• Fe deficiency is very common in black soil
• Thompsom seedless variety with its done occupies 55 % area under grape cultivation
• Rains during ripening cause berry cracking and rotting
• Pruning
  • North India- December-January
  • South India- April and October
    • April- Back of foundation pruning
    • October- Fruit or forwarded pruning
• Mg deficiency is universal in grape cultivation
• CCC- for suppressing vigour of wine and increasing fruit fullness of bud
• GA3- For increasing berry size

Grape, Vitis vinifera are cultivated mainly in the sub-tropical and tropical regions, however, it can also be grown in the temperate regions. Telangana, Andhra Pradesh, Karnataka, Maharashtra, Tamil Nadu are the main grape growing states. In India, the grapevine cultivation is mainly for producing fruits for the table purpose. Around 80 insect pests and mites cause damage in the grape vine yards directly or indirectly, of which few are of major importance. The damage can be checked if the details of the major pest problems are known in advance. The details about major insect pests and mites are given hereunder:

Thrips, Rhipiphorothrips cruentatus Hood (Thripidae: Thysanoptera)

It is a polyphagous pest feeding on number of hosts like rose, jamun, guava etc. but grapevine is the most preferred host. This pest is prevalent in all grapevine growing regions of the country. The eggs are bean shaped and dirty white. The nymphs are yellowish brown with reddish brown abdomen. The pupa is brownish and have irritative movements on

Solution:

Steps used for plotting the bar graph are as:

Step 1: Open Excel sheet and feed the above data as given in figure. 9.1.

Step 2: Select data and go to insert menu and select column chart. (figure 9.2)

Step 3: Select 2-D column, option first from dialog Box (figure 9.3).

Step 4: The desired output will be as shown (figure 9.4).

Remark The data labels, axis name, title of the graph etc. can be inserted through selecting option formatting chart area and add data labels by right clicking on the graph output (figure 9.5).

The growing demand for sustainable materials has encouraged the development of green composites based on bio-based polymers and renewable reinforcements. This chapter explores advanced carbon nanomaterials, including graphene, graphene oxide, carbon nanotubes, carbon nanofibers, and carbon quantum dots, as functional reinforcements for green composites. It discusses their synthesis, functionalization, incorporation into biopolymer and bio-based matrices, and influence on mechanical, electrical, thermal, and barrier properties. Particular attention is given to green synthesis approaches using biomass-derived resources, surface modification, dispersion, environmental considerations, scalability, cost, and life-cycle assessment. The chapter also considers future opportunities for multifunctional and commercially viable sustainable nanocomposites.

Graphene and related carbon nanomaterials have attracted considerable attention as reinforcements for high-performance green composites. This chapter examines graphene, graphene oxide, reduced graphene oxide, carbon nanotubes, and graphene nanoplatelets and their integration with bio-based polymers and natural fibres. It discusses synthesis and fabrication methods, characterization techniques, mechanical properties, electrical and thermal performance, barrier properties, and applications. The chapter also considers dispersion and compatibility challenges associated with incorporating nanomaterials into green matrices. Graphene-based composites are explored for energy storage, environmental treatment, biomedical applications, sensors, packaging, automotive, and aerospace uses. Emerging trends focus on multifunctionality, scalable production, cost reduction, and sustainable processing.

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.

5.1 Graphical Representation of Data

Diagrams are generally useful for the purpose of publicity and propaganda. No statistical conclusion can be drowning as these provide only an approximate and rough expression about the phenomenon. Thus for a more rigorous and improved representation of numerical statements graphs and charts are used.

Graphs are generally drawn with the help of two perpendicular lines known as x-axis and y-axis. The following are the various types of graphs, which are in common use:

Like all the carbons, this remedy is an antipsoric of great power, but especially active in patients who are rather stout, of fair complexion, with tendency to skin affections and constipations, fat, chilly, and costive, with delayed menstrual history, take cold easily.

Children impudent, teasing, laugh at reprimands. Anaemia with redness of face. Tendency to obesity.

By and large, Graphites is a skin remedy. Eruptions oozing out at thick honey - like fluid require Graphites. Such eruptions may be on any part of the body. These would be especially found on or beyond the ears, on the head, the face and the genitals or on the eyelids.

Graphites is indicated in eczema of the legs where there is a thick oozing of sticky fluid. Eczema of the eyelids, where the eruptions are moist and the margins of the eyelids are fissured, also requires Graphites.

Gravimetric analysis

Techniques – analyte is determined by quantitative isolation of substance by precipitation and weighing the precipitate

Gravimetric analysis describes a set of methods in analytical chemistry for the quantitative determination of an analyte based on the mass of a solid. A simple example is the measurement of solids suspended in a water sample. A known volume of water is filtered, and the collected solids are weighed.
 
In gravimetry, the analyte needs to be first converted to a solid by precipitation with an appropriate reagent. The precipitate can then be collected by filtration, washed, dried to remove traces of moisture from the solution, and weighed. The amount of analyte in the original sample can then be calculated from the mass of the precipitate and its chemical composition.

In some cases, it is easier to remove the analyte by evaporation. The analyte might be collected—perhaps in a cryogenic trap or on some adsorbent material such as activated carbon—and measured directly. Or, the sample can be weighed before and after it is dried; the difference between the two masses gives the mass of analyte lost. This is especially useful in determining the water content of complex materials such as foodstuffs.

Scientific name: Dioscorea alata L.
Family: Dioscoreaceae
Dioscorea alata, commonly known as water yam or purple yam, is a species of yam belonging to the family Dioscoreaceae. Native to Southeast Asia, this tropical and subtropical crop has gained popularity worldwide for its edible, nutrient-rich tubers. The plant's unique characteristic is its purple-colored tubers, which owe their distinct hue to anthocyanins, powerful antioxidants that provide numerous health benefits. With its exceptional nutritional profile, Dioscorea alata has become an attractive alternative to other tubers, offering a valuable addition to various culinary dishes.
Origin and distribution
Dioscorea alata, a yam species, exhibits a widespread geographical distribution, with its origin tracing back to Southeast Asia. Phylogeographical studies indicate that the species has undergone extensive dispersal and cultivation, resulting in its presence globally in tropical and subtropical regions. Notably, D. alata has become naturalized in the southeastern United States, the Caribbean, and parts of Africa, where it is widely cultivated for its edible tubers.

INTRODUCTION

Nowadays, any issue related to “information and communication technologies in agriculture (ICTs)” is extremely interesting and it belongs to the modern subject-matters of the agricultural economics science. Unambiguously the above phrase is the buzz remark for the agricultural extension scientists considering that the process of communication is fundamental to extension, training and passing on information. Thus, learning processes, dissemination of innovations and social change cannot be explained without reference to communication (Albrecht et al., 1989).

An efficient communication strategy, especially when combined with a wide range of available ICTs, utilises the advantages of both personal and impersonal media communication. This can be achieved by building up, promoting and using communication networks and modern technologies. Under the term “network” we understand the complex of communication channels which ensure that all members of the target group receive the message more than once, both from various personal contacts and media. This calls for the use of existing communication relationships, the dissemination of information by multipliers and influential individuals and a range of media which are appropriate to the type of information and for reaching the target groups. As well thought out, communicative approach can partly compensate for the often lamented shortage of advisers provided that one is in a position to communicate a message in various ways, to evaluate feedback and then to take action accordingly.

ABSTRACT

Green technologies are required in the field of food processing and production in order to achieve food security and to reduce adverse environmental impact. Application of nano technology in food processing and production can advance the food safety and quality, increase the bioavailability of nutrients and thereby improving human health. Nanotechnology can be applied to achieve green perspective like development of biodegradable packaging materials thereby reducing adverse environmental effect. Use of naturally occurring nanoparticles as additives can reduce the use of chemicals in food products. This chapter deals with the potential of nanotechnology to achieve green aspects in food processing and production.Main focusses are on achieving food security and environmental sustainability. Chapter also describes about the principles of nanotechnology and methods to achieve green aspectin food sector with the application of nanotechnology. Application of nanotechnology in food processing and production along with safety, regulations and accompanying laws are discussed in this chapter.

Plants play an important role in maintaining ecological balance by actively participating in the cycling of nutrients and gases like carbon dioxide, oxygen and air pollutants. Sensitivity and responses of plants to air pollutants is variable. Some plants are sensitive and act as bio indicators of air pollution (Kozhouharov et. al. 1985, Guderian, 1998). Others which are tolerant may act as sink to air pollutants. However this aspect needs more investigation for their use as indicators of air pollutants and in abatement of air pollution.

The green buildings are the needs of present day in India as well in the world. The easy availability of most of the green materials and equipments in the country has made it easier for designers to adopt local materials to a very large extent in the construction of green buildings. Now, there is an imminent need for service providers, who would be required in large number, not in hundreds but in thousands, as the movement is heading to reach greater heights. The green building movement is here to stay for the benefit of individuals, society and the country at large in the era of climate change.

With increase in the urbanization and industrialization, there is more pressure on available land and natural resources. In coming era, there will be only limited space available for city dwellers. In buildings one can grow a wide range of flowering and foliage plants. Plants not necessarily one confined to the outdoor only but bed room, kitchen, staircases, patios, windows and other locations can be made green with suitable plants. Indian Council of Green Building (ICGB) has developed the rating system.

Green Building in Santiago, Chile

A large amount of materials are used and energy consumed in construction and operation of average building. Many steps have been taken to reduce consumption of energy by developing new types of vehicle, energy sources, recycled materials and designing environment friendly buildings. These buildings are also known as green buildings or green construction or sustainable building.

Green business, is enterprise that has no negative impact on the global or local environment, community, society, or economy—a business that strives to meet the triple bottom line. Often, sustainable businesses have progressive environmental and human rights policies. In general, business is described as green if it matches the following four criteria:

1. It incorporates principles of sustainability into each of its business decisions.

2. It supplies environmentally friendly products or services that replace demand for non-green products and/or services.

3. It is greener than traditional competition.

4. It has made an enduring commitment to environmental principles in its business operations.

A sustainable business is any organization that participates in environmentally friendly or green activities to ensure that all processes, products, and manufacturing activities adequately address current environmental concerns while maintaining a profit. In other words, it is a business that “meets the needs of the present world without compromising the ability of the future generations to meet their own needs.” It is the process of assessing how to design products that will take advantage of the current environmental situation and how well a company’s products perform with renewable resources.

Green composites are emerging as promising alternatives to conventional synthetic composites in response to climate change, resource scarcity, environmental degradation, and increasing demand for sustainable materials. This chapter reviews the current landscape of green composites and examines the challenges associated with their broader adoption. It discusses technological innovations, smart sustainable materials, bio-based nanocomposites, hybrid systems, environmental and economic implications, and the relationship between green composites and sustainable development. Processing limitations, high costs, regulatory uncertainties, and commercialization challenges are considered alongside opportunities for technological advancement. Life-cycle assessment and supportive policies are important for evaluating environmental impacts and accelerating the transition toward circular and sustainable material systems.

Green energy can be classified as any form of energy resource that results in zero greenhouse gas emissions and zero toxic byproducts. These constitute the alternate source of energy such as Solar, Bio, Hydrogen, Wind, Water etc. Renewable Energy is energy that is not depleted or expen- ded. Previously the pressure to reduce CO2 emissions dictated the energy sourcing. With recent findings from experimental evidence, global warming may not be attributable to CO₂ emissions in relation to other over-weighing causes. However the pressures to develop renewable sources continue since the cost of Oil is increasing in many countries. It is desirable and a necessity to develop renewable non-toxic energy resources. The global economy and welfare of all earth depends on it even if CO₂ is not the cause of global warming (GW). There are some factors not in the control of even the most technologically advanced society. These are solar activity such as sun spots which have huge and tremendous influence on the Earth’s climate. However we should strive not to cause any undue imbalances in the proportion matter and composition of Earth’s atmosphere. Although CO2 is a small contributor to GW in comparison to H₂O, we still have responsibility to maintain the right balance of the gases in the atmosphere by not causing undue changes to the Carbon, Nitrogen and Oxygen cycles! We are far way off from a Oil-free technology. Most transportation is still petrol driven.

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.