eChapters

Potting and repotting is an essential practice to be done in a nursery to maintain the expected vigour of the plant. When a seedling from a seedbed or plant from a flat bed or raised bed is planted in a pot, it is called potting. The same term is utilized when the bulbs of bulbous plants are planted in a pot. When a plant is transferred from one pot to another pot, it is called repotting. At the time of repotting the plants may be planted in a large pot or in the same sized pot. Repotting is necessary when

1. Plant is grown for a season or a year in the same pot and becomes pot bound resulting in extensive growth of roots in rooting media and there is very little scope for further fresh growth.
2. When a plant is overgrown and requires separation or division.
3. When soil gets depleted of its nutrients.
4. Repotting affords an opportunity to the roots to form a new root growth, as repotted soil contains sufficient amounts of nutrients and good aeration.

44.1. Aim

To conduct practical on processing of tea and coffee.

44.2. Theory

Tea is an evergreen woody perennial grown in many Asian countries including China, Japan, Java, Sumatra and India. The plant produces dark green, small shiny leaves with white blossom. In post harvest and manufacturing practices for tea, only mechanical and physical processes are allowed with natural fermentation. It can be manufactured by orthodox, CTC (crush, tear and curl) processing.

Coffee is an important beverage used all over the world. Brazil and Columbia are the largest coffee producers in the world. Coffee is harvested in one of two ways; strip picking (entire crop is harvested at one time either by machine or by hand); selective picking (only the ripe berries are picked individually by hand) during dry season when cherries are bright red, glossy and firm. After picking, the coffee can be prepared either by dry method which produces natural coffee or by wet method which produces washed coffee.

Scientific name: Ammi majus L.
Family: Apiaceae
Ammi majus L., a member of the Apiaceae family, is a valuable medicinal plant. Its botanical name is derived from the Greek words "Ammi" and "majus," meaning "sand" and "larger," respectively. This plant has been used for centuries in traditional medicine, particularly for its antispasmodic and anti-inflammatory properties.
Origin and distribution
Ammi majus L. is native to Egypt and is now cultivated in various parts of the world, including India, Europe, and North Africa. It has been introduced to many countries for its medicinal and ornamental value.
Botany
This herbaceous annual plant grows up to a height of 0.75 to 1.15 meters. It has a round, erect, and solid stem with a tap root system. The large leaves are 5-8 cm long, alternate, and light green, with a compound, pinnately divided, and lanceolate shape.
The inflorescence is an umbel, axillary, and terminal in position, bearing white flowers. The calyx tube is adnate to bracts, with 5 teeth. The petals are 5 in number, epigynous, distinct, and bifid. There are 5 stamens, epigynous, and alternate with petals. The ovary is inferior, 2-celled, disk epigynous, 2-lobed, with a solitary ovule in each cell. The style has 2 branches, with a minute and capitulate stigma.

It is difficult to ascertain which came first, food or human being. It is the same situation as chicken and egg where we lack evidence to indicate which came first on earth.

It does not matter which came first but we know for sure that human being needs food and he or she needs everyday and throughout his or her life. In other words, a human being cannot survive without food indicating permanent unbreakable bondage between food and human being. It supports the basics of human civilization-food, agriculture and humanity.

On the basis of a proposal I had made three years ago, the Food and Agriculture Organisation of the UN (FAO) launched a Global Soil Partnership for Food Security and Climate Change Adaptation and Mitigation at a Multi-stakeholder Conference held in Rome in September 2011. Even with all the advances made in capture and culture fisheries, nearly 90 per cent of human food requirements will have to come from the soil. Land is becoming a diminishing resource for agriculture, inspite of the growing understanding that the future of food security will depend upon the sustainable management of land resources as well as the conservation of prime farm land for agriculture. The National Commission on Farmers emphasised in its report submitted in 2006 the urgent need for replacing the 1894 Land Acquisition Law with a twenty-first century legislation that safeguards the interests of farmers and farming.  Jairam Ramesh is to be complemented for introducing in Parliament a National Land Acquisition and Rehabilitation and Resettlement Bill which pays attention not only to acquisition, but also to the rehabilitation and resettlement of the affected families.

A hybrid is the first generation progeny of a cross between two genetically different identical inbred lines. The individual lines are known as inbreds.  Ineffective cross-pollination is a major constraint in a commercial production of hybrid seeds in many crop species. In such crops manual pollination is the way to produce hybrid seeds. Eg. Cotton. In the case of rice it is highly self-pollinated crop and cross-pollination is a big problem. The increased vigour, uniformity and yield of F1 hybrid have been exploited in most crops where the pollination system allows for convenient and economic cross hybridization.  This system is called breeding tool in exploiting the hybrid vigour.

The term heterosis from Greek means hetero different, osis-condition was coined by skull (1914).

Heterosis or hybrid vigour, refers to the increase or decrease in vigour of off spring (hybrid) over parents. Usually, theses two terms are used synonymous.   But hybrid vigour refers to increased vigour; Heterosis both increased and decreased vigour.

Superiority of the hybrid as hybrid vigour and the mechanism by which this superiority is developed is heterosis (Rangaswamy, 1998).

Introduction

Eggplant or aubergine {Solanum melongena L. Solanaceae), is indigenous to a vast area stretching from northeast India and Burma, to Northern Thailand, Laos, Viet nam and Southwest China and wild plants can still be found in these locations. There is a wealth of eggplant common names. Eggplant is a major fruit vegetable with world production exceeding 31 million tonnes (Mt). Leading producers are China (17 Mt) and India (8 Mt), Egypt (1 Mt), Turkey (0.9 Mt), Japan and Italy (0.4 Mt). Eggplant is particularly favoured in Asia where it has been cultivated for millennia, and in India it is considered King of Vegetables. Brinjal, native to India, shares 31 % area (5.1 × 10⁵ ha) and 28% production (82 × 10⁵ t) of the world (Anon., 2003). It contributes 9% of the total vegetable production in the country. Three states/provinces viz. Orissa (1.41 × 10⁵ ha), West Bengal (1.29 × 10⁵ ha) and Bihar (0.72 × 10⁵ ha) cover 67% of total brinjal area in India (Anon., 2006). It is widely adaptive and highly productive (17.78 t/ha) crop of tropical and sub-tropical regions. It is comparable with tomato for nutritional values like vitamin C, iron and fiber, thereby, can play an important role in combating malnutrition in under-nourished regions (Singh et al., 2001). However, genetic improvement, production technology, post harvest handling and plant protection measures are important for increasing the production, productivity and consumption of brinjal.

6.1. Principles of farm finance

6.1.1. Five Cs’

Agriculture is the backbone of India. Evolution in technology is bringing new dimensions of conventional agriculture. Looking towards the current food demands it is very crucial to maintain the food supply. According to UN (United Nations), by 2050 the world population will be increased to around 9.3 billion which increases the food need. As the technology in agriculture evolving it seems that we could be able transform conventional farming to unconventional and traditional to modernization by the help of agriculture robots. Agri-bots can be autonomous with human intervention that could perform the task precisely. Chapter illustrates the applications in agriculture seeding. These robots are efficiently used in crop seeding.

7.1 Introduction

The very first agriculture robots were used in the early 1920s along with autonomous vehicle development.

Agro robots are becoming an ongoing pattern in farming with lots of research advancement and business models [1]. Agrarian robots have huge focal points as far as adaptability, flexibility and ecological advantages contrasted with customary horticultural apparatus and speak to an extraordinary resource for cutting edge precision agribusiness. Numerous advances in machine vision with imaging and otherworldly cam-periods for distinguishing weeds, vermin and infections, supplement inadequacies in soil or plant leaves have given profound applications to be mounted on independent vehicles for exploring soil and crops and for additional downstream choice help and control [2]. The mechanical network has additionally made earth shattering upgrades and advancements as far as utilizing a far reaching working framework, the Robotic Operating System (ROS), just as applying strong stages and route calculations.

Comparable to horticultural robots, the attributes of the central framework of robots are the lightweight, little size and lively self-governance [3]. Lightweight implies that the vehicle requires lower impetus vitality and incites less soil compaction while simultaneously the vehicle must be little for security reasons, for accomplishing more noteworthy accuracy during execution of assignments and having more maneuverability inside the field to limit turning delays.

Introduction

Sapota is a delicious fruit introduced from tropical America. It is also known as sapodilla or chiku in India. Sapota fruits are recommended to adult patients ailing from tuberculosis and children from primary complex. This offers high economic returns even under marginal land and low input management.

Equatorial Asia is home to winged beans (Geneva). On atrip to Thailand, Baker Creek’s founder, Jere Gettle, first observed flying beans. Because the winged bean is a tropical crop from the tropics, it takes a long time to flower, setting pods right before frost in our Missouri environment. The winged bean (Psophocarpus tetragonolobus) is a tropical herbaceous legume plant also known as cigarillas, goa bean, four-angled bean, four-cornered bean, manila bean, princess bean, asparagus bean, and dragon bean. From the Philippines and Indonesia to India, Burma, Thailand, Vietnam, and Sri Lanka, winged bean thrives in hot, humid equatorial climates. It’s well-known, yet it’s only farmed in limited quantities in Southeast Asia and Papua New Guinea.

It is not just enough to produce fruit and ornamental plants in a nursery, but it is also very much important to consider the post production management practices like harvesting, packing, storage and marketing of nursery plants for successful industry.

Harvesting: Harvesting is one of the important factors considered, when nurserymen are producing seeds, bulbs, etc. The seeds or bulbs should be harvested at proper maturity stages depending on the plant species.

Seeds are generally harvested when they are fully ripe. In some of the annuals and perennials, seeds are likely to fall from the plant at ripening either due to bursting of the fruit/ capsule or due to wind. (calendula, balsam). In such cases, it is better to cover with muslin cloth or butter paper bags. Bulbs, corms and tubers are carefully dug out without injury, along with cormels or bulblets.

Packaging: The package should provide a convenient mode used for marketing and distribution. It protects the contents from undue damage during distribution. It is important that appropriate packaging should be used to preserve quality of material along with maximum survival during transit. Proper packaging of plant material (fruit plants/ ornamental plants/seeds) ensures quality during storage, distribution and transport.

Prologue: The Issues

Farmers lose a significant portion of their income when their crops and products become infested with various insects, diseases and weeds, resulting in much lower crop productivity and lower actual yields than the attainable yield of crops. Yield losses due to pests, pathogens and weeds are responsible for 20-40% losses in global agricultural productivity. India reports crop losses of 20-25% annually due to pest infestations. Without the use of crop protection solutions, there could be a 78% loss in fruit production, 54% loss in vegetable production and 32% loss in cereal production. According to the Ministry of Agriculture, India loses INR 1.48 billion worth of agricultural production annually due to pests, weeds and plant diseases.

Scientific name: Cymbopogon spp.
Family: Poaceae
Citronella was first introduced in India in 1959 from Indonesia, specifically from Java Island, which is why it is also known as Java citronella. This fragrant grass, belonging to the Poaceae family, yields essential oils when steam-distilled. The resulting citronella oil (Cymbopogon winterianus Jowitt) is widely used globally in various industries, including flavoring, soap, perfumery, and cosmetics. There are two main types of citronella: Ceylon and Java. The species C. nardus yields Ceylon-type oil, while C. winterianus yields Java-type oil. Java-type oil
is preferred over Ceylon-type oil due to its higher citronellal content, ranging from 30-38% compared to 20-25% in Ceylon-type oil.
Origin and distribution
Citronella originated in tropical Asia, specifically in Indonesia (Java Island) and Sri Lanka. Today, it is cultivated in many tropical and subtropical regions worldwide. In India, citronella is grown in several states, including Maharashtra, Uttar Pradesh, and Madhya Pradesh. It is also cultivated in other parts of Southeast Asia, such as Malaysia, the Philippines, and Thailand. Citronella is also grown in Africa, Central and South America, and the Pacific Islands, where the warm and humid climate provides ideal conditions for its growth.

Infectious diseases are illnesses caused by pathogens such as viruses, bacteria, fungi and parasites. Infectious diseases usually spread in animals through contact, contaminated food or water and through bug bites. Some infectious diseases are minor while others are very serious. Infectious diseases in the production animals are of great economic concern owing to losses though morbidity, mortality, reduced production, increased food insecurity, public health concern, increased cost of veterinary care etc. Therefore, prevention and control of infectious diseases of animals is very important for food security and safety, public health, animal welfare, access to market and alleviation of rural poverty. Key Factors for Effective Pevention and Control of Infectious Diseases The key factors for effectiveness of prevention and control strategies of infectious animal diseases are, (i) effective surveillance (active i.e. planned; or passive i.e. event based), (ii) an early detection of infection (making an early diagnosis with laboratory support), (iii) transparency and rapid response mechanism; and(iv) good governance.

Till twentieth century information technology was restricted to European and American countries but entering in twenty first century witnessed passage of this technology with a vast speed in all other countries making a spectrum of changes in communication and transmission of knowledge that has altogether changed scenario of whole world. Earlier communication to international scientists was costly, time consuming while now its only a click away. So is of transmitting reprints of research papers – earlier they were dispatched by mail, now these reprints and other matters are available in soft copy and are attached with e-mail that is transmitted instantly.

ABSTRACT

In 21^st century, the world has turned into a global village. This herculean task has been made possible with the advent of ICT tools. When we think of ICT, the most omnipresent tool that comes in our mind is mobile phones. With the increasing rate of mobile phone penetration in the urban as well as in rural areas, it is now possible to connect the farmers leaving in the far-flung areas with the institutes, who are working for the betterment of farming community. Today, mobile phones play a significant role in everybody’s life, besides being an efficient way to stay connected with the family; it also paves a way to bridge the gap between the availability and delivery of agricultural inputs and agricultural infrastructure. Mobile phones provide basic connectivity, mobility and security to owners, it works using the radio spectrum, so no need to rely on physical infrastructure, requires basic literacy only, also its services are available in local language; short message service (SMS), multi-media service (MMS) and voice communication are the added benefits. It allows transfer of data which can be used in the context of applications for the purpose of health, education, commerce and governance. Mobile phones are increasingly affordable due to factors like increased private sector competition and innovative payment methods. Due to high access, its reach, good adoption and real-time interaction mobile phones offer efficient solutions to governments’ communication challenges. Mobile phones helps the farmers in agriculture decision making, as they provide information related to crops, weather forecasting, seeds, fertilizers, bio-pesticides, soil fertility, pest and disease diagnosis, demand and supply of agricultural products, different schemes and technologies. Mobile based initiatives like SMS services related to weather forecast, disease forecast, and market information are issued to farmers by different organizations like IFFCO Kissan Sanchar Limited (IKSL) and Reuters Market Light (RML). Farmers can raise queries related to agriculture and allied sectors using their mobile phone to a farmer call centre which has been operating in every state of India. There are many such initiatives, which are working to provide valuable services, and also it provides opportunities to further explore the potentialities of mobile phones as a tool for transforming the farming scenario of India.

6.1 Kinetics of Rumen Digestion

The rate and extent of digestion of dry matter or organic matter in the rumen is regarded as the important parameter to predict voluntary feed intake (Khazaal et al., 1993; Blummel,1994). Voluntary feed intake is responsible for more than 50 per cent of the variations in animal response to the diet (Van Soest, 1994) and with low quality unsupplemented roughages, this can be as much as 93% (Blumme1,1994). Therefore, any parameter of feed evaluation that would indicate the voluntary feed intake would be a useful parameter to judge the quality of feedstuff. The rate of digestion of any feed component can be measured by determining extent of digestion at intervals of time. Therefore, the techniques for determining extent of digestion, such as the rumen in vitro techniques (Tilley and Terry, 1963; Goering and Van Soest, 1970) or the in situ Dacron bag technique have been adopted to derive rate of degradation of dry matter of any particular component of the feedstuff. However, unlike in determining the extent of digestion, wherein the incubation is turned off at one particular time (normally 48 hours), measurement of rate of digestion, requires termination of incubation at several points between the start of incubation and until at least 90% of the potentially digestible dry matter is digested (72 or 96 hours). This generates a large number of samples for analysis.

In gas production technique, since gas produced from digestion of substrate is accumulated in the incubations, measurement of gas at different times of incubation would reflect the extent of digestion at different times of incubation. Therefore, unlike with other in vitro / in situ techniques wherein, digestion is determined from the gravimetric disappearance of feed at different times of incubation, gas production technique offers the possibility of using cumulative gas production at different times of incubation to measure the rate of digestion. Thus, a single incubation of feedstuffs is adequate to measure the rate of gas production.

Introduction

In today’s world, the use of Information and Communication Technology (ICT) have become more common and part and part of human life. It plays many roles for a country’s overall growth and economic development. Among all developing countries, the presence of ICT is greatly felt in India. People here use ICT devices mainly to access and share data information available around the world from any part of the country and at any time with just one click. In the last fifteen years, India’s economic growth has been remarkable in trade and commerce, communication technologies, education, transportation, agriculture and administration mainly due to development of advanced software and service based applications. India stands as a role model for many other countries in framing ICT based policies and implementing independent strategies for global contracts (Carmel 2003; Heeks and Nicholson 2004). Since, its significance is highly realised by the Government, bureaucrats and policy makers’ efforts are now being carried out to utilize ICT tools for improving the lives of the Indian rural maases and people below poverty line.

Kewda is exclusively propagated through ground suckers and leaf bearing terminal cuttings. In kewda growing areas, predominantly the terminal shoot cuttings are used in commercial plantations. However, the seeds are also capable to germinate and give rise to plants, but it is not in practice due to hard mesocarp and seed coat (Bailey, 1950, Deshaprabhu, 1966, Mott, 1975, Maharana and Jagadev, 1993).

Seed propagation

In kewda, the flowers develop into berries, which fuse to form a multiple fruit. The receptacle and bracts are included in the fruit. The seeds are deep seated and very difficult to extract, hence seeds are sown along with the fibrous drupes. Each drupe contains 2-9 seeds. Seeds collected from ripe fruits are sown during spring. The seeds normally, take about 3 months for germination due to the hard seed coat and impervious fibrous covering. Experimentally, it was observed that one hour sulphuric acid scarification treatment of the drupes reduced the germination period by about one month increasing the germination percentage as compared to direct sowing, however, scarification for more than one hour was deterimental (Table 14) (Maharana and Jagadev, 1993). Bailey (1950) reported that seed soaking in tepid water for 24 hours would aid the germination. The seed propagated plants (Plate-27) take about 2-3 years more for flowering as compared to vegetatively propagated plants.