eChapters

5.1. Introduction

Food processing units range from home-based businesses to large-scale processing plants. The food processing sector is a highly fragmented industry which includes fruit, vegetables, dried, preserved, canned, pulps, pickles, chutneys, milk, dairy products, ready-to-serve products, frozen desserts, meat, poultry, marine products, grain processing, beer and alcoholic beverages, consumer, convenience and packaged food, soft drinks etc.

The main objective of fruit and vegetable processing is to supply wholesome, safe, nutritious and acceptable food to consumer throughout the year. Fruit and vegetable processing also aim to replace import of products such as squashes, jams, tomato sauces, pickles, etc., besides earning foreign exchange by exporting finished or semi-processed products. The fruit and vegetable processing industries are also established in the developing countries due to following reasons:

• Reduction in fruits and vegetables post harvest losses

• Industrialization policy of the government

• Generate both rural and urban employment

• Improve farmer s nutrition by self consumption of processed fruits and vegetables during off season

I have known Dr R.S. Chauhan al through his professional carrier. I came in his contact when he was a student, a research worker, a professional colleague. He is very hard working, sincere and dedicated scientist and teacher. I observed his remarkable skills, unwavering dedication and strong commitment for upliftment of research and the profession. He is known as an excellent teacher. He devised simple understandable means for complex topics.
His work on Panchgavya has won lots of appreciation at all levels. In fact he is a person who proved scientifically the application of components of Panchgavya on control of some untreatable disease like cancer.
I have absolutely no hesitation in saying that he is the “Father of Cowpathy”. He proved the efficacy and application of products of cow origin with scientific validation.
To be true, even today whenever I have some query, I invariably consult him because I am of the opinion that he has a very strong basic background. May God always shower his blessings on him.

Abstract

C. albicans is a diploid, dimorphic yeast producing three morphologic forms: yeast cells, pseudohyphae and true hyphae. It is an opportunistic pathogen causing various types of candidiasis which are on the increase around the globe. It is a polymorphic yeast with its genome organized in eight diploid chromosome with its genome size ranging between 14.3 and 16 Mb having 5,733 to 6, 318 genes. It has two mating-type like (MTL) alleles that control the mating behavior. In its genetic makeup it resembles with Saccharomyces cerevisiae hence classified in the Saccharomycetales. The chromosome number from tetraploid to diploid is brought about by the parasexual mechanism. Keeping in view the increase of incidence of candidiasis due to C. albicans around the globe, it is important to identify the causative organisms to the species level correctly. Morphological, biochemical, germ tube test and growth on different media are often used for identifying isolated yeasts which sometimes takes days to week to develop in culture hence, rapid identification of Candida species in clinical laboratory is becoming increasingly important. Molecular techniques utilizing amplification of target DNA or PCR amplification of conserved regions of the genome and sequencing of the resulting PCR product and restriction fragment length polymorphism (RFLP) analysis of the ribosomal DNA, provides quick and precise methods for diagnostics or, identification of Candida species.

ABSTRACT

The paper gives a comprehensive detail of the state with regards to its inception, socio-economic, climatic and edaphic conditions. In addition states agroclimatic zones along with their characteristics have been described in the paper. Extent of agriculture crops, horticulture, animal husbandry, fisheries and forestry along with their production and contribution to national pool is provided elaborately. Details of agroforestry systems like silvipastoral and agrisilvipastoral for land with very high erosion and hortisilviculture and hortiagrisilviculture, aquaforestry, entomoforestry recommended for land with moderate to low erosion had been explained in details. Significant results obtained in agroforestry research under AICRP on Agroforestry and Horticulture and Agroforestry Research program have also been presented in this paper. Finally some tips to make agroforestry successful and future strategies have been given.

INTRODUCTION

Jharkhand state evolved as 28^th State on 15^th November 2000 from the southern part of Bihar, with a total area of 79.5 lakh ha and population density of 274/Km² consisting of 28 per cent schedule tribes and 12 per cent schedule caste population. A total of 29.61 per cent of the geographical area of the state consists of forest area with 28.4 per cent actual forest cover (Annon., 2001). Most of the forest area of the state consists of mines, which do not allow any agriculture. The continued large-scale mining operations of Coal and Iron ore are generating serious threats for the area coming under down streams. The areas lying under sharp undulating topography are under threats of soil erosion, which in turn affect the low lying water body’s carrying capacity i.e. due to continuous siltation, all such anomalies emphasizes the need to improve the water and land use efficiency in order to ensure better storage and retention of the rain water, for improving the productivity of the land.

Laburnum anagyroides Med. (Fabaceae): Eng.- Golden Rain Tree [NI]. An upright, small sized ornamental tree with hairy, grey-green young shoots. Leaves dark- green above and grey-green beneath, having 3-elliptic-obovate leaflets. In late April to early May, produces bright yellow flowers in dense racemes

6.1. Introduction

Chemical preservatives are those substances which minute organoleptic and physico-chemical properties . Preservation of food products with chemical preservatives is usually based on the combined or synergistic activity of several additives, intrinsic product parameters (e.g. composition, acidity, water activity) and extrinsic factors (e.g. processing and storage temperature).

Many chemical substances are added to the food for functional purposes and are called as additives and in many cases these are found to occur naturally in some foods. An additive is defined as a substance or mixture of substances other than basic food ingredient present in a food as a result of any aspect of production, processing or packaging.

The term Geographical Indications (GIs) attained significant status in trade agreement negotiations after the establishment of World Trade Organization (WTO).Under WTO, Agreement on the Trade Related aspects of Intellectual Property Rights (TRIPs) sets forth standards to regulate international intellectual property protection and enforcement and establishes international minimum standards for GIs. Geographical Indications identify goods that have a specific geographical origin and possess a quality, reputation or other characteristics which are due to that place of origin. Geographical Indications are now widely accepted as valuable marketing tools in the global economy and are useful to protect rights of communities. Geographical Indications are not granted to individuals but are granted to the group/association of producers as the symbol of collective ownership.

4.1    Essential Plant Nutrients
    Macronutrients
    1. Nitrogen
    2. Phosphorus
    3. Potassium
    4. Calcium
    5. Magnesium
    6. Sulphur
    
Micronutrients
    
    1. Iron
    2. Zinc
    3. Boron
    4. Manganese
    5. Molybdenum
    6. Chlorine
    7. Nickel
    8. Sodium
    9. Cobalt
    10. Silicon

ABSTRACT

West Bengal is the gateway to North-East and has diverse vegetation and social strata. The paper presents the agroclimatic zones of the state along with their characteristic features. The scenario with regard to agriculture, forest cover and livestock shows that practicing agroforestry is the need of the state. For the sake of convenience the state has been divided into two parts: south Bengal and north Bengal. In the tribal dominated parts of the state home gardens are prevalent. Possible interventions in the present land use along with strategies to increase tree cover under agroforestry has also been discussed.

INTRODUCTION

Cultivation of tree species and agricultural crops in intimate combination had been a practice through out the world at one period or another. Trees were integral and important component of the farming system. However, in the middle ages the concept changed and agriculture, forestry and animal husbandry were separated under a monoculture management system. This in long run led to an incredible reduction in forest cover and ecological imbalance. Scientists and managers once again began to think about changing the land use system and integrating trees with agriculture crops (Panwar et al., 2004). In India, research work on agroforestry was initiated during the late 1970’s by Indian Grassland and Fodder Research Institute, Jhansi; Central Soil and Water Conservation Research and Training Institute, Dehradun; Central Arid Zone Research Institute, Jodhpur and ICAR Research Complexes in isolation. National commission on agriculture also emphasized starting of agroforestry education in all agriculture university. The formal research activities related to agroforestry started in a big way with the initiation of All India Coordinated Research Project on Agroforestry (AICRPAF) from 7^th Feb., 1983 with 20 centers, of which 12 were in State Agricultural Universities and rest in ICAR Institutes. Later more centers were added. The major emphasis was to have research centers in all the major ecological zones of India. In this venture in the first phase AICRPAF was initiated in West Bengal at Jhargram, Distt. Midnapore under the auspices of the then only Agricultural University in West Bengal - Bidhan Chandra Krishi Viswavidyalaya, Mohanpur representing Humid and Subhumid zone of West Bengal.

Agriculture Scenario

It has been seen since last few decades there is huge decrease in the production of the agricultural production. Three factors which can be held responsible for the increase of agricultural production per hectare:

1. Overall increase in efficiency due to the merger of farms and a more efficient redistribution of farm land.
2. More efficient cultural practises and better quality and availability of inputs (fertilizer, pesticides).
3. Genetic improvement of crops.

At this moment over 6 billion people need to be fed and it is expected that in the year 2050 more than 10 billion people will inhabit the earth (FAO, 1996). Moreover, demands per capita will rise when standards of living in developing counties improve. As a consequence there will be a huge increase in the demand for food, and production will need to triple in the coming 40 years. A continued effort to secure agricultural production in the future will therefore be vital. Reduction of losses caused by a-biotic and biotic stress will be a key issue. Scenario studies on world food security generally assume that a large increase in production will be achieved by genetic improvement of crop species and biotechnology. History has indeed shown a continuous increase in crop yields, resulting from plant breeding efforts. However, in the light of the speed at which the human population develops, and taking into account the expected reduction of available arable land due to climate change and human intervention, it may be necessary to accelerate the rate at which genetic improvement is achieved. Modern biotechnology provides new tools that can facilitate development of improved plant breeding methods and augment our knowledge of plant genetics. The knowledge that is obtained with these new tools can be used to contribute to an enhanced food security throughout the world.

In spite of development of irrigation and expansion in transportation and communication; the risk or we can say threat in agriculture sector such as its production and yield has increased in the country. The risk is much higher for farm income than production, as is evident from lower risk in area and higher risk in production. It has been reviewed from the state wise results of area and production which shows that only in the states where irrigation is very consistent; it helped in plummeting the risk and vice-versa. In some states farmers face twin problem of very low productivity accompanied by high risk of production. Also, with the course of time, neither technology nor any other measure helped in reducing production risk in all over the country. Therefore, there is strong need to plan and broaden insurance products or we can say insurance policies for agricultural crops and their production. No doubt various insurance schemes has been launched by the Government of India for covering various agricultural crops in the country as well as in the states but agriculture insurance has served very limited purpose. The coverage through insurance schemes in terms of area under crops, number of farmers and value of agricultural output obtained is very small and the payment of insurance based on area approach fail to notice affected farmers outside the compensated area, and most of the schemes are not workable. It has been viewed in most of the parts of the country. So there is a need to restructure the programme vigilantly to make it feasible and to increase its prospects for future expansion to impact more farmers. This whole process is in immediate need of rehabilitated efforts by Government of India as well as state governments in provisions of introducing new crop insurance policies with full financial support. The government should also extend support to private stakeholders for providing agricultural insurance which in turn will help in increasing insurance coverage and in improving viability of the insurance schemes over time. Moreover the crop insurance policies shouldbe simple in plan so that they are easily understood to the farmers. At last we can say that, good insurance products with good management are key for successful operation of an agriculture insurance scheme all over the India.

Introduction

Though, India is bestowed with large livestock population (512.05 million) to which cattle buffaloes, goats and sheep contribute 190.90, 108.70, 135.2 and 65.07 numbers in millions, respectively (DADF, 2018), but at the same time, facing with a great shortage of crop residues, greens and concentrates for animal sustainability (NIANP, 2013). The shortage of these conventional feeds and fodders tropical and sub-tropical regions has already been documented and well recognized (Maneerat et al., 2015). The feed and fodder resources are gradually decreasing throughout India owing to many factors like shrinkage of common property resources and shift towards the cultivation of commercial crops etc. (Biradar and Kumar, 2013). Based on feed production and feed requirement calculated as above, India falls short by 219.2 Mt of green fodder and 226.73 MT of dry fodder (Earagariyanna et al., 2017). India faces a green fodder shortage of 63.5 percent and a dry fodder shortage of 23.5 percent and if the current situation continues then India's green fodder shortage will reach 66 percent and dry fodder will reach 25 percent by 2030 (Jitendra, 2017). This scenario demands the utilization of alternate non-conventional feed resources to sustain and economize livestock farming. The issues can be addressed by those unconventional resources like agricultural wastes which are widely available at low or zero cost and too with minimal treatment may serve as potential nutritional feeding material for animals.

Cereals are cultivated grasses grown for their edible starchy grains. Larger grains used as staple food – Rice, wheat, maize, barley, oats etc.

Okra (Abelmoschus esculentus Moench), known in many English-speaking countries as lady’s finger or gumbo, belongs to family Malvaceae. The geographical origin of okra is disputed and supposed to be South Asian, Ethiopian and West African origins (Anonymous, 20013a). Its proposed parents are reported to be in South Asian; therefore, it is believed that perhaps it is of South Asian origin. However, because of greater diversity in okra in West African region, it is considered to be originated in West Africa. Masters (1875) proposed that it originated in India.
Okra is cultivated in tropical, subtropical and warm temperate regions, including the Middle East, Africa, Brazil, Turkey and southern states of USA (IBPGR, 1990; Jideani and Adetula, 1993; Acquistucci and Francisci, 2002). In tropics it is cultivated during summer and in the warmer parts of the temperate regions. It is an annual or perennial plant, growing up to 2 m height. The leaves are 10–20 cm long and broad, palmately lobed with 5-7 lobes. The flowers are 4–8 cm in diameter, with five petals which are generally yellow, but often white with a red or purple spot at the base of each petal. The fruit is a capsule which may attain length up to 18 cm containing numerous round seeds. Okra is an allopolyploid of uncertain parentage (proposed parents include Abelmoschus ficulneus, A. tuberculatus and a reported “diploid” form of okra).

The contribution of agro biodiversity to world agricultural production is immense. The world agricultural landscape is now dominated by few crops and varieties. This agricultural scenario is suicidal because the homogeneous plant population is vulnerable to biotic and abiotic stresses. The ecosystems rich in biodiversity possess greater resilience and hence able to recover more readily from biotic and abiotic stresses, such as drought, environmental degradation, pests, diseases, epidemics, etc. Hence, a decline in biological diversity puts the functioning of ecosystems at risk. The cultural value of biological diversity conservation and sustainable management for present and future generations is another important reason for conserving it for posterity. To tide over the precarious condition of food insecurity, rich crop germplasm must be sustainably managed to tap the potential of crop genetic resources. The sustainable management of agrobiodiversity is therefore very essential for developing adaptation strategies in the era of global climate change.

The analysis of chromosome behaviour at meiosis can provide valuable information about the genomic composition of both species and hybrids. The basis for this analysis is the idea that chromosomes that pair and undergo chiasma formation are homologous. Where two genomes are present, as in diploids, the expectation is that only bivalents will be observed and where there are multiple genomes, as in polyploids, two general patterns of pairing are possible. In autopolyploids, configurations of multiple chromosomes are to be expected since all the component genomes are homologous and have the possibility of pairing with each other, whereas in allopolyploids, with different genomes, bivalent formation is the expectation. Thus, meiotic analysis can provide an oversight for genome analysis to investigate genetic relationships between the species. Further, chromosomal rearrangements are correlated with pollen fertility in species and F₁ hybrids.  Observations on pollen formation, size and viability can provide useful information, as low pollen viability is often indicative of meiotic irregularities and large sized pollen can indicate the formation of unreduced gametes. In addition, the occurrence of nucleolar dominance has been recorded in many interspecific hybrids.

ABSTRACT

Orissa is traditionally an agrarian state. It is endowed with vast natural resources, diversified agro-edaphic conditions,rich flora and fauna, wide range of land holdings, various socio-cultural groups and people with multiple economic strata. These factors have led to evolve a variety of agroforestry systems and practices. The traditional agroforestry systems which are prevailing in the state since time immemorial are broadly agrisilvicultural, silvipastoral and agrisilvipastoral systems. The prominent agrisilvicultural systems include podu/jhum cultivation, multipurpose trees on farm lands, multiple species tree gardens and agroforestry for fuel wood production. The important silvipastoral systems are trees on pasture, fodder trees and shrubs on forest land and live fence of fodder trees and shrubs. The very old agrihortisilvicultural system prevailing in the state is homegarden. Interventions of Orissa University of Agriculture and Technology and various Government and Non-Government agencies have resulted in the development of some improved agroforestry practices in recent years. Some of the improved agroforestry practices are Acacia mangium based agrisilvicultural practices, Guava based agrisilvicultural practices, coconut based agroforestry practices, Eucalyptus (Clonal) based agrisilvicultural practices, windbreaks, timber tree based agrisilvicultural practices, Sesbania grandiflora based agrisilvicultural practice, Acacia mangium based silvipastoral system, mangium-guava based silvipastoral practices, improved homegardens, commercial block plantations on farmlands and apisilvicultural practice.

Weeds are diverse plant species of the ecosystem which can survive adverse condition and reproduce quickly. The global compendium of plants has listed 28000 species as weeds. According to Holm et al (1977) about 8000 weeds species have been reported from agricultural fields in 124 countries and of these, 250 species are considered to be problematic. It is also to be noted that weeds from 12 families constitute 68% of the world’s worst weeds. Within these 12 families, weeds from poaceae, asteraceae and cyperaceae constitute 44% of the world’s worst weeds.

Coconut

 Kingdom: Plantae

 Phylum: Magnoliophyta

 Class: Liliopsida

 Subclass: Arecidae

 Order: Arecales

 Family: Arecaceae

 Genus: Cocos

 Species: Cocos nucifera Linnaeus

 1. Bud Rot

The fungus Phytophthora palmivora is responsible for the ailment known as “bud rot.” Butler first mentioned bud rot in India in 1906. Due to a number of factors, the disease has recently spread to practically every region of the state in a very serious manner.

Climate and weather strongly influence annual fluctuations in agricultural insect-pest populations. As ectothermic organisms, insects respond rapidly to variations in temperature, humidity, rainfall and wind. Climate change can modify their development, survival, reproduction, adaptation and geographical distribution. It may increase the number of generations, improve overwintering survival, alter host synchronization, encourage invasive species and reduce the effectiveness of natural enemies and existing control methods. Indirect effects also occur through changes in host-plant growth, resistance and nutritional quality. This chapter examines the responses of important agricultural insect pests to changing climatic conditions and discusses their implications for crop productivity and sustainable pest management.