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Rose (Rosa centifolia Linn) belongs to the family Rosaceae is known as flower of love which is cultivated throughout the world. The traditionally grown rose f lowers are fragile wild, bloom only for a limited period. They are found in a few colours of red, pink, deep crimson vis-a-vis white colour. However, with the development of the clonal technology, tissue culture and hybridization, a wide variety of roses can be grown having different colours, fragrances, blooms and shapes. It is point to mention that from the 200 species of roses originally found there are more than 30,000 varieties available these days.

The cultivation of rose is believed to have started about 5.000 years ago in China. Initially, Romans started to cultivate the rose flower using organic manures for medicinal purposes and then tor aesthetic values. Briefly their medicinal values have been mentioned separately as reported by Gupta et al 2016. It is not until late 8th century that cultivation of roses was introduced into Europe. Unlike Europe and America where rosses have limited flowering period during the summer.

Globally saffron (Crocus sativus L.) is cultivated in regions spanning from the Mediterranean in the west to Kashmir in the east. Countries like Iran, Spain, Italy, India, Greece, Turkey, Afghanistan, Morocco and Azerbaijan harbour suitable climatic and soil conditions required for its growth and harvesting (Mehdi and Reza, 2012). However, the crop is also cultivated on small scales inFrance, Switzerland, Israel, Pakistan, China, Egypt, United Arab Emirates and Japan. Recently its cultivation has been introduced in non-traditional countries like Australia, New Zealand, USA, Argentina and Chile (Fernandez, 2004). Globally, about 85 thousand hectares of land is under saffron cultivation, giving a produce of 288 MT. Iran leads with 90 per cent of total global share for saffron production (Baghalian et al., 2010) and 70% of global export earning a revenue of US$ 51million. India’s global share is about 4.5 per cent in production followed by Greece (2.5%), Morocco (0.9%), Spain (0.8%), Italy and China (0.3% each), Afghanistan (0.2%) and Azerbaijan (0.06%).

1. INTRODUCTION

Green Revolution Technologies (GRT) such as greater use of synthetic agrochemicals like fertilizers and pesticides, adoption of nutrient responsive high yielding varieties, greater exploitation of irrigation potentials etc. have boosted the production output in most cases. However, continuous use of these high energy inputs indiscriminately now leads to decline in production and productivity of various crops as well as deterioration of soil health and environment. The most unfortunate impacts of GRT on Indian Agriculture are imbalance in production, dependency on synthetic chemical fertilizers, increase in secondary and micronutrient deficiencies, increase in pesticide use, unscientific water management and distribution, reduction in productivity, reduction in quality of the produce, extinction of gene pool, environmental pollution and imbalance in social and economic status.

Moreover, today the rural economy is now facing a challenge of over dependence on outside inputs and day-by-day increase in price of these inputs. Further, Indian Agriculture will face the market competition due to globalization of trade as per World Trade Organization (WTO). Thus, apart from quantity, quality will be the important factor. Such varieties of concern and problems of modern Indian Agriculture gave birth to various new concepts of farming such as organic farming, natural farming, biodynamic agriculture, do-nothing agriculture, eco-farming, etc. Therefore, for sustaining the productivity of the crop, maintaining the soil health and healthy ecosystem, there is a need for adoption of an alternative farming system, may be the organic farming.

Organic farming is not new to Indian farming community. Several forms of organic farming are being successfully practiced in diverse climate, particularly in rainfed, tribal, mountain hills and resource poor areas of the country. It safeguards/improves quality of resources and environment. It is labour intensive and provides an opportunity to increase rural employment.

For a product to be called and labelled “organic”, it should have been produced from start (seed) to end (the produces, the consumer is buying) in an organic way. International Federation of Organic Movement (IFOAM) has clearly laid down the condition that in order to get organic certification to the produces, the seed used for sowing should also have been produced organically. To enter into organic agriculture, timely research has been warranted to study the strategies and efficacies of organic seed production to fulfill the global organic seed demand.

Organic seed production system involves use of organic seed quality enhancement treatments, integrated organic nutrient management practices viz., organic manures, green manures and biofertilizers etc., and integrated organic plant protection viz., agronomic practices, crop rotation, growing border/trap crops and use of botanicals, biopesticides and biocontrol agents apart from encouraging natural parasites, predators and parasitoids etc.

Introduction

Seed technology improves seed genetics and physiology. Variety creation, release, seed production, processing, storage, and certification are included. (Feistritzer, 1975). Organic farming began in the early 20th century due to constantly changing farming practices. Over 50 million hectares of certified organic agriculture are in Australia. “That discipline of study having to do with seed production, maintenance, quality and preservation” is seed technology. Organic seeds are fully produced with organic matter practices made with proven organic function and natural seed production, including seeding plants, with a set of guidelines prohibiting the use of manufactured products or chemicals to be sold as such. They must be produced by an accredited institution by an authorized person government agency. Organic seed is created by a planted crop and organically raised at least one generation for annual crops and two generations for annual and perennial plants. Organic farming is sustainable and eco-friendly. Farming needs better norms and standards to achieve biological goals. It is usually cold and people need lots of vegetables but have few organic, clean supplies. Organic farming in India needs a certain space and high-yield vegetable crops in national marketplaces to produce high-quality products. Indian agriculture uses chemical fertilizers, which can be minimized. Experiments have shown that it works well in conjunction. Inorganic and biological fertilizers boost yields, soil quality, and productivity.

Organically produced seeds are obtained by adapting the organic crop production system. Organic seed is a critical input but specialised efforts to produce organic seeds are not adequately and systematically followed. Accredited organic farming standards recognises the organic seed production as a prerequisite to organic farming. Seed health is important in organic seeds since seeds are not treated with chemical fungicides.

Soil is a living system and soil fertility is the key to agricultural productivity. Any input that destroys this living system and undermines soil health basically undermines the agricultural productivity. The maintenance of the fertility of soil is the primary step in any permanent system of agriculture.

Fertile land and sufficient water are vital for sustaining agriculture and livelihoods. Fertility of a soil is defined by its ability to provide all essential nutrients in adequate quantities and in the proper balance for the growth of plants – independent of direct application of nutrients – when other growth factors like light, temperature and water are favorable. This ability does not depend on the nutrient content of the soil only, but on its efficiency in transforming nutrients within the farm’s nutrient circle.

In transformation of nutrients soil organisms play a key role. They break down biomass from crop residues, green manures and mulch and contribute to build up of soil organic matter, including humus, the soil’s most important nutrient reservoir. They also play an essential role in transferring nutrients from the soil organic matter to the mineral stage, which is available to plants. Soil organisms also protect plants from disease and make the soil crumbly.

A fertile soil is easy to work, absorbs rainwater well, and is robust against siltation and erosion. It filters rain water and supplies us with clean drinking water. It neutralizes (buffers) acids, which pass through contaminated air to the soil surface, and decomposes pollutants such as pesticides rapidly. And last but not least a fertile soil is an efficient storage for nutrients and CO₂. In this way a fertile soil prevents the eutrophication of rivers, lakes and oceans and contributes to the reduction of global warming.

In the context of biological agriculture soil fertility is thus primarily the result of biological processes, not of chemical nutrients. A fertile soil is in active exchange with the plants, restructures itself and is capable of regeneration. The biological properties can be observed in the soil’s conversion activity, in the presence and the visible traces of the organisms in it. The communities of microorganisms are robust and active at the right moment. In the self-regulating ecological equilibrium animals, plants and microorganisms all work for each other.

It is the responsibility of farmers to understand soil ecology to the point that they can create or restore the conditions for a robust balance in the soil. If a soil does not regularly bring good yields, farmers should investigate the reasons for it.

India is the second largest producer of vegetables after China. The diverse agro climatic conditions of India offer an immense scope for production of organic vegetables throughout the year. The increase in area, production and productivity associated with nutrition and health security awareness demands lot of promotion of organic vegetables cultivation in the region since these products sell at the premium prices in the domestic and overseas market (Sandhu and Khera, 2008). It is because the major contribution of vegetables to human health is the large amount of Vitamin C and A as well as folic acid and good number of dietary fibres and minerals (Sanwal, 2008). Apart from this, the phytochemicals in vegetables protect the human body from cancers and cardiovascular diseases. Under organic mode of cultivation one can get an average yield of 25-30 tonnes of good quality potato vegetable crop per hectare (Sachan et al. 2008). It is worthwhile to mention that the potato is a key world food vegetable crop which is produced in 130 nations. It is grown from sea level to 3900 m elevation and its edible dry matter accounts for a higher volume of the food consumed in the world than fish and meat combined together (Sachan et al. 2008). More potatoes are consumed by the world’s population than any other vegetables.

Introduction

Organic farming per se is not a new concept rather is an age old practice of cultivation crops without synthetics. However, in modern usage it is a type of farming without synthetics but at the same time taking advantage of all the modern agriculture technologies like soil testing, nutrient management, ecofriendly pest management, etc. developing and developed world have different incentives for taking up organic farming. Growing health consciousness among the people of developed world is the prime motive behind interest in organic farming. However, conversion of “by default” organic agriculture into “certified organic” is perspective in the developing world so that farmers get price premium. Whatever the case may be, the area under organic farming as well as demand for organic food/product is increasing both in developing as well as in the developed world.

Organic production is a systems approach. Although many aspects of vegetable production remain the same in both “organic” and “non-organic” or “conventional” systems, there are differences. The major components of production which differ between these two systems include transplant production, soil fertility management, and insect, disease, and weed management. “Organic” usually refers to a crop management system that promotes biodiversity, biological cycles, and soil biological activity. Organic production concentrates on natural processes and how to manage them. Other materials and products are additions to, not replacements for, management. An organic system takes time to develop. It may be achieved in stages, for example by starting with organic soil amendments and other soil improving procedures. Then, try biological control of pests, some companion plants, etc. Eventually, the entire system will be changed. It will take years to convert to a healthy organic system.

Introduction

During the past 60 years, conventional agriculture has become increasingly dependent upon petroleum-based. Chcmically-synthesized fertilizers and pesticides for crop protection and to supply plant nutrients. Certainly, these energy intensive technologies have contributed greatly to this Nation’s agricultural productivity. However, sharply escalating production costs associated with the increasing cost and uncertain availability of energy i.e., fuel and fertilizers, have generated considerable interest in less expensive and more environmentally compatible production alternatives such as organic farming (USDA, 1980). The apparent decline in soil productivity throughout the world from excessive soil erosion, nutrient runoff and loss of soil organic matter; the impairment of environmental quality from sedimentation and pollution of natural waters by agricultural chemicals and the potential hazards to human and animal health and food safety from heavy use of pesticides, have also stimulated interest in organic farming systems of food production.

Use of organic wastes and residues in agriculture

Most countries have traditionally utilized various kinds of organic materials to maintain or improve the fertility, and productivity of their agricultural soils. However, several decades ago organic recycling practices were largely replaced with chemical fertilizers which were applied to high yielding cereal grains that responded best to a high level of fertility and adequate moisture, including irrigation. Soil cultivation was also intensified to improve weed control and seedbed conditions. Consequently, the importance of organic matter to crop production received less emphasis, and its proper use in soil management was neglected, or even forgotten. As a result of this and failure to implement effective soil conservation practices, the agricultural soils in a number of developed and developing countries have undergone serious degradation and decline in productivity.

The soil microorganisms thrive on organic matter in soil by feeding readily on soluble substrates and rather slowly on insoluble substrates. Organisms derive carbon and energy during the process of organic matter decomposition and release organically-bound carbon, thereby decrease C :N ratio and utilize nutrients. Any decrease in organic matter content in soil is likely to affect the microbial biomass and their activities thereby influence the soil fertility and productivity. It is, therefore, imperative to recycle the organic matter in soil in whatsoever form it may be. The raw organic matter requires appropriate treatment to boost decomposition process.

Solid wastes, which are left after the fermentation process is complete, may be potential sources for use as fertilizers and feed stuffs.

I. Antibiotic Fermentation Wastes

Antibiotics are produced by microoganisms and have capacity, in dilute solution, to inhibit the growth or even destroy the other microorganisms. They are produced on a large scale using fermentation process except chloroamphenicol which has been produced synthetically since 1948. Solid wastes remaining after the liquid containing the antibiotic has been extracted from the fermentation broth need to utilised. This is usually done by filtration. The solids are a heterogeneous mixture of hyphae of the producing organism, unused media, defoaming oils and metabolic products of the micro-organisms, the most important of which is residual antibiotic. The levels of residual antibiotic can vary a great deal.

Sustainable horticulture seeks to produce nutritious and economically valuable crops while conserving soil, water, biodiversity, and other natural resources. This chapter examines organic, natural, and broader sustainable production systems and their underlying principles. Topics include organic inputs, compost, biofertilizers, biological pest management, crop diversification, mulching, recycling, soil-health improvement, and reduced dependence on synthetic inputs. Certification systems and market requirements are also considered, including Indian and international organic standards. The chapter distinguishes different production philosophies while emphasizing practical sustainability. Successful systems must maintain productivity, profitability, environmental quality, and consumer confidence. Sustainable horticulture therefore combines ecological principles with sound crop management, market awareness, and responsible resource use

Indian agriculture has grown over past 50 years from subsistence type of farming to a market surplus one with the present food grain production above 250 million tones (Fig. 1) which was only 50 million tones in 1950. At the same time the country has struggled over the years to meet the fertilizer requirement. More than 50 per cent fertilizer consumption is imported.

Exhibition

An exhibition is a public display of works of art, artifacts, products, or other items of interest. Exhibitions are typically organized in galleries, museums, trade shows, or public spaces and can be focused on a single theme or a wide range of subjects. They aim to inform, educate, and engage the audience, offering an opportunity for visitors to experience and interact with the displayed items.

Audio Visual Aids

Audio visual (AV) aids are tools that use both sound and visual components to enhance the communication of information. Examples include videos, slideshows, interactive displays, projectors, speakers, and digital screens. These aids are used in various settings, such as classrooms, corporate presentations, and exhibitions, to make the content more engaging and easier to understand.

Integration of AV Aids in Exhibitions

Integrating AV aids in exhibitions involves incorporating technologies like projectors, speakers, touchscreens, and interactive kiosks to enhance the visitor experience. This integration can bring static displays to life, provide deeper insights into exhibits, and create an immersive environment. Proper integration requires careful planning to ensure that the AV aids complement the exhibits and do not overshadow them.

Microbiology is a branch of science dealing with the study of organisms which are too small to be seen clearly by unaided eye. Roughly the organisms with a diameter of 0.1mm or less, which can not be seen by the human eyes unaided, come under the domain of microorganisms.

Thus, the laboratory work dealing with the microorganisms needs special care to avoid infection and infusion for maintaining good health. In fact all microorganisms should be treated as potential pathogens. Thus, for working with microorganisms aseptic techniques must be followed by students as well as by the laboratory assistants and teachers.

Organizational communication can be defined as the process of the flow (Transmission and Reception) of goal oriented messages between sources, in a pattern and through a medium or media. And organizational communication is the study of how people communicate within an organizational context, or the influence of, or interaction with organizational structures in communicating / organizing.

An additional elements in organizational communication (not present in interpersonal communication) is the flow pattern of messages. Thus here are 6 elements in organizational communication.

1. The transmitting source

2. The receiving source

3. Source (the target)

4. The transmitted message

5. The goal of the message

6. The medium or media and the flow pattern (which is called network). The transmitting and receiving sources are the people sending and receiving the message.

Organizational communication can be defined as the process of the flow (Transmission and Reception) of goal oriented messages between sources, in a pattern and through a medium or media. And organizational communication is the study of how people communicate within an organizational context, or the influence of, or interaction with organizational structures in communicating / organizing.

An additional elements in organizational communication (not present in interpersonal communication) is the flow pattern of messages. Thus here are 6 elements in organizational communication.

1. The transmitting source

2. The receiving source

3. Source (the target)

4. The transmitted message

5. The goal of the message

6. The medium or media and the flow pattern (which is called network). The transmitting and receiving sources are the people sending and receiving the message.

Abstract

Stress can be due to both positive as well as negative experiences, which also forms a necessary part of our daily lives. If we consider an evolutionary standpoint stress was necessary for survival (i.e., imagine hunting large prey on which one’s entire tribe is dependent) and in our modern lives also stress is important as it motivates us for the fulfillment of tasks and changes. Pressure is felt from the environment during transition period ( like at the time of high school graduation) and in preparation for some events (like job interview). Although stress can be a motivation tool, too much stress or inability to cope up with stress can have an adverse effect on the health of an  individual. This chapter represents the study on stressors, various sources of stress, outcomes of stress, and various strategies which will help an individual to cope up with stress. The study is supported by case studies which helps in understanding the chapter more clearly.

Introduction Organizational structure and management represent fundamental dimensions of community mobilization that determine how collective efforts are organized, coordinated, and sustained over time while building institutional capacity for effective action and long-term development success. The design and implementation of appropriate organizational arrangements significantly influence the ability of community groups and development organizations to achieve their goals while maintaining community ownership, democratic participation, and adaptive capacity that can respond to changing circumstances and emerging opportunities. The complexity of contemporary community challenges requires sophisticated organizational approaches that can coordinate diverse activities and stakeholders while maintaining flexibility and responsiveness to local conditions and community preferences. Effective