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Indian poultry industry has made a fastest and remarkable growth ever since its inception and is presently emerging as a sunrise sector with a growth rate of 6-8 percent per annum. Today India is third largest producer of chicken egg and fifth largest producer of broilers/chicken meat in the world (Food and Agriculture Organization Corporate Statistical Database (FAOSTAT), 2018), with estimated production of 103.3 billion numbers eggs and 4.06 million tonnes of poultry meat in year 2018-19. Poultry sector contributes Rs.1347.57 billion in total output of livestock sector which hold 12.91 percent share (Basic Animal Husbandry Statistics (BAHS, 2019). The Indian poultry market was worth Rs.1,750 billion in 2018 and was worth Rs. 2,049 billion in 2019. The market is further projected to reach Rs. 4,340 billion by 2024, growing at a Compound Annual Growth Rate (CAGR) of 16.2 percent during 2019-2024 (www.indianmirror.com). The major growth drivers for the sector are increasing incomes coupled by changing food habits, large un-penetrated market, growth in the processing sector, and awareness of the consumer about the safe and hygienic poultry products. The sector has provided direct employment to 40 lakh and indirect employment to 2.5 crore people (Khan, 2019). The annual per capita availability of poultry products has increased from 5 eggs and 400 gram chicken in 1950 to 79 eggs and 3.21 kg chicken in 2019. However, it is far below then recommended consumption of 180 eggs and 10.8 kg poultry meat per person per annum by Indian Council of Medical Research.

IoT networks and smart sensors enable continuous livestock monitoring, overcoming the delay and subjectivity associated with manual observation. This chapter reviews sensor types, communication systems, cloud and edge computing, and their applications in animal-health and behaviour tracking. It proposes a framework integrating multimodal sensors with IoT networks and machine-learning models such as CNNs and LSTMs. The system can detect abnormalities, predict health conditions and provide real-time decision support. Practical benefits include earlier intervention, improved welfare, reduced labour and more efficient production. The chapter also addresses implementation problems, costs, connectivity, data security, technical reliability and ethical considerations associated with constant digital monitoring of animals.

Reducing insecticide application to the lowest level is the motto of IPM in vegetables. Monitoring for the initial build up and timely mechanical removal of the first population is a must in vegetables. Always remove the first affected plants, by diseases like mosaic, and destroy them by burying or burning. Remove insect eggs, insect affected plant parts and adults and immature stages of insects, and destroy them every day. Do not throw them in the field. They will either come back, or pupate and attack later. During nursery stage, use wood ash, cow dung solution, and plant extracts to deter all pests. Use only low residual insecticides like Dichlorvos 1ml/l, Malathion 2ml/l, Endosulfan 2ml/l or Quinalphos 2ml/l, in spots, at the beginning of attack itself.

The cotton aphid: Aphis gossypii: Aphididae

Symptoms of Damage

Both nymphs and adults cause the damage by sucking the plant sap from shoot tips, pods and leaves. Severe infestation may result in complete drying of affected parts. Attacked leaves curl up, wither and fall. These are yellowish green or brown coloured aphids. The total life cycle from first instar nymph to adult occupies an average of 8-10days. It reproduces parthenogenetically and viviparously. The female may produce 10-30 young ones in a life span of 10-12 days. The nymphs transform into adult in 5-8 days after passing through four moults. 

For the first time, isotope dilution analysis was introduced by Hevesy and Hafer in 1934, but it was not until 1940, the usefulness of isotope dilution technique was revived by Rittenberg and Foster (1940). There are three general types of isotope dilution methods. These are (a) direct (b) inverse and (c) double isotope dilution. In general isotope dilution methods may be used for the following type of studies.

    (a)    In isolation purification and identification of unknown intermediate in a chain of metabolic reactions.

    (b)     To obtain evidence of synthesis (incorporation), and precursor-product relationships between known compounds.

    (c)    As an analytical tool in the assay of known compounds. In isotope dilution techniques, the labelled intermediate, which is being diluted by unlabelled carrier, is a known compound.

From very early times, humans were astonished, fascinated and frightened by the weather events and the dynamism of changes that weather brought around them. Human beings have attempted to predict the weather informally for millennia, and formally since the nineteenth century. He has tried to predict or forecast the weather mainly based on many indicators around. In the earliest record of weather forecast, the Babylonians have predicted the weather from cloud patterns as well as astrology in 650 BC. In 904 AD, Ibn Wahshiyya, an Iraqi alchemist and agriculturist in his work Nabatean Agriculture have discussed the behavior of plants and animals also along with atmospheric, planetary, solar and lunar signs in weather forecasting. This is perhaps the first work that have discussed about the animal and bird indicators for weather forecast. Though there are a variety of end uses to modern weather forecasts, indigenous knowledge and application of weather forecasts were mainly for agricultural operations. Farmers have to rely on weather forecasts to decide on what work has to be done on any particular day. They are astute weather watchers and are quick to recognize weather that is either favourable or unfavourable to their production systems. In traditional weather forecasting, the farmers has identified a set of indicators and developed a reliability factor for each of them. Predicting weather is also an important cultural component for farmers, as it is common for farmers to discuss weather indicators on the street, markets and with family members.

Farmers have used traditional knowledge to understand weather and climate patterns in order to make decisions about crop and irrigation cycles. This knowledge has been gained through many decades of experience, and has been passed on from previous generations, and the knowledge is also adapted to local conditions and needs. But the scientific forecasts are formulated at a much larger scale and so access to get location specific rainfall forecast to take proper decision at the farm level is very limited. Besides forecasting weather, the farmers has also evolved several coping strategies in rain-fed systems across the world and so today many international development agencies, universities and research institutions have started focusing on indigenous knowledge and have incorporated it in development perspectives.

Shoot and fruit borer : Diaphania (Margaronia) caesalis :  Pyraustidae

The shoot-and fruit-borer D.caesalis is a major pest of jackfruit in India. The larvae are reddish brown with pale brown head and thin hairs from black warts. The caterpillars bore into the shoots, buds and fruits.  Affected shoots wilt or dry up and the fruits rot and drop. The adult is brown with grey elliptical patterns on the wings.

Bud-worm : Hendecasis duplifascialis : Pyraustidae

This pest is serious on J.sambac. The larvae are dark green with black head which bores into immature buds.  They make a hole on the buds, and feed inside, leaving behind faecal pellets entangled in few silk strands. Webbing is seen in severe infestation and pupation takes place in soil.

Ketosis is a metabolic disorder that occurs when animals rely heavily on fat as an energy source due to inadequate glucose availability. This condition is common in high-producing dairy cows, small ruminants like sheep and goats, and occasionally other species. Ketosis is characterized by elevated levels of ketone bodies (acetone, acetoacetate and beta-hydroxybutyrate) in the blood, urine and milk. While ketosis can occur in various animals, it is most frequently observed during periods of negative energy balance, such as early lactation in dairy cattle. Proper understanding and management are critical to maintaining
animal health and productivity.
The economic repercussions of ketosis in dairy herds are substantial. Affected dairy animals often exhibit reduced milk yield, diminished reproductive performance and an increased susceptibility to other diseases. Financial losses are attributed to decreased productivity, treatment expenses, and potential culling of severely affected animals. Recent studies estimate that the economic losses per case of ketosis can reach up to Rs. 10000– Rs. 20000 per cow per lactation due to ketosis, making prevention critical and a figure that may double when associated diseases are considered.

Livestock entrepreneur is a person who undertakes livestock based activities such as livestock rearing, production of livestock/ livestock products, processing and other inputs of livestock business. He finds ways and means to create and develop a profitable livestock business. Livestock entrepreneurs see their farming as a business and as a means of earning profits. So they are willing to take calculated risks to make profits and to grow their businesses. They are also motivated to improve livestock production through mechanization and application of technologies in the field of dairy, small ruminant, poultry and allied enterprises. Livestock entrepreneur is determined and creative person, always looking for opportunities to improve and expand his business. He likes to take calculated risks, and assumes responsibility for both profits and losses. An entrepreneur is passionate about growing his business and is constantly looking for new opportunities.Enterprising farmers are also innovators. They always look for better and more efficient and profitable ways to do things. Being innovative is an important quality for a farmer-entrepreneur, especially when the business faces strong competition or operates in a rapidly changing environment. They look for better ways to organize their farms. They try, better animals, and alternative technologies to increase productivity, diversify production, reduce risk and to increase profits.

An animal, which has more or less of comparable (similar) physiology and body composition with various biological system as human beings, which are tiny, easy to handle, less expensive and co-operative are called as “Laboratory Animals”. Importance of Laboratory Animal in Bio-Medical Research Laboratory animals are used in basic biological research, disease diagnosis, immunology, virology, applied medicine and demonstration/teaching. Materials collected from diseased animals need confirmation through microbiological and pathological means of diagnosis. Rats, Beagle dogs and primates are engaged in toxicological research. These are used to study the functions of organs, response of a particular organ or the whole system to drug and the method of evolving surgical techniques and demonstration of experimental surgery need experiment animals. Hamster have cheek pouches which may extend to halfway down the length of the body, are used to temporarily store food and, when full, should not be mistaken for a tumor. An entire shelled peanut

Introduction
 
Animals used for experimental research purpose, which show results resembling to human beings are known as lab animals. They are mostly used because of their small size, lesser feed and space requirement. Furthermore, they are not natural host for most of the animal / human pathogens. The laboratory animal research is conducted at universities, medical colleges, pharmaceutical companies, farms, defense establishments and commercial facilities that provide animal-testing services to industry. It includes basic research in the area of genetics, developmental biology, behavioural science etc., as well as applied research in the area of biomedical science, xenotransplantation and drugs including cosmetics testing. Laboratory animals are also used for education, breeding and defense research. The common laboratory animals are mice, rats, hamsters, guinea pigs and rabbits. However, cats, dogs, monkeys, goats, sheep, cattle, pig, horses, fishes etc. can also be utilized as laboratory animals for experimental purpose in biomedical sciences.

The group of animals constantly used in laboratories for general research in all discipline of science is called as laboratory animals. Commonly, it includes rats, mice, rabbits and guinea pigs. However, under certain circumstances, additional animal species like hamsters, non-human primates, amphibians, fowl, sheep and pigs can also be included. This term incorporates traditional laboratory animals, farm animals, wildlife and aquatic animals. Nontraditional animals, inclusive of invertebrate species are also included where they are relevant to the unit’s mission. Generally, these animals come under vertebrate but broadly laboratory animals may be classified in two major groups i.e. laboratory mammals and non-mammalian laboratory animals. The laboratory mammals include mouse, rat, guinea pig, rabbit, cat, dog, ferret, gerbil, bats, hamster, mink and monkey (Rhesus). Beside these mammalians the large domestic animals/livestock are also used as laboratory animals (horse, cow, sheep, goat etc) for fulfilling the demands of various laboratories. Poultry is also used as non-mammalian laboratory animals and Specific Pathogen Free (SPF) chicks are at utmost demand for production and testing of biologicals. The other non-mammalian laboratory animals includes reptiles (tortoise, lizzards and snakes), insects (cockroach, drosophila, house fly, house cricket, locusts, tsetse fly, stablefly etc) pisces (fishes and snails) and amphibians (toad and frog). Laboratory animals have been used extensively for basic research in drug and bacteria screening, toxicology, antibiotic sensitivity testing, animal models of diseases and production/testing of biologicals. Laboratory mammals are also valuable for diagnosis of infectious diseases in man and domestic animals. In this chapter the most commonly used laboratory animals i.e. mice, rats, guinea pigs and rabbits will be discussed.

Haemostasis refers to the physiological process that prevents blood loss following vascular injury while maintaining fluid blood flow within the vascular system. It involves a complex interplay between the vascular endothelium, platelets, coagulation factors, and fibrinolytic proteins. In animals, laboratory tests for haemostasis play a critical role in diagnosing bleeding disorders, monitoring treatment, and investigating hypercoagulable states. This article discusses the principles, applications, and limitations of laboratory tests used to assess haemostasis in animals.
In veterinary medicine, laboratory tests for haemostasis are essential diagnostic tools for identifying bleeding disorders, hypercoagulable states, and monitoring therapeutic interventions. They are crucial in both emergency and routine clinical settings for animals. These tests provide insights into the functionality of primary haemostasis (platelet plug formation), secondary haemostasis (coagulation cascade and fibrin clot formation), and tertiary haemostasis (fibrinolysis and clot breakdown).

In economics, labour is defined as manual or mental work for acquiring income for their livelihoods. In farming domain, the agriculture labor is defined as labourers who earn their main source of income by working in farms of others for a wage. In this type, labours may classified in three namely skilled, semi skilled and unskilled labours based on their skill sets.

Skilled labour is a type of labour, who is having specific skills like carpentry, black smiths, drivers, masonry etc will be utilized to perform a specific function, and correspondingly their wages will be on the higher side than other two types. 

Biochemical and Physiological Role of Lactation is Tremendous

On a large scale, feed nutrients are converted into milk constituents by considerable biochemical and physiological processes. Ahigh yielder of dairy may produce five times dry matter in the milk, as is present in her own body, during a single lactation. Still there are records of cows, which have produced in a year’s milk over five times the organic matter of their own bodies. Certain other high yielders, which over a life time, have secreted organic matter in the milk equivalent to thirty five times that present in their own tissues. The noteworthy physiological performance is represented in the milk secretion of sownursinga largerlitter.Humanorganismiscapableofproducinganastonishing output of milk. Thefeed provides rawmaterials fromwhichthe milkconstituents are derived. Some of these milk components are synthesized in the udder, for which energy is supplied again byfeed. Therefore, the amount and composition of milk dictates feed requirement.

(Colorimetric Method of Barker and Summerson, 1941)
I. Method for Blood / Plasma
Principle

In this method, glucose and other interfering material of the protein free blood filtrate is removed by the Van Slyke-Salkowski method of treatment with copper sulphate and calcium hydroxide. A part of the resulting solution is heated with concentrated sulphuric acid to convert lactic acid to acetaldehyde, which is then determined by reaction with p-hydroxydiphenyl in the presence of copper ions.

Grasshoppers: Mecopoda elongata :Tettigonidae; Oxya velox: Acrididae

These pests occur both in nurseries and plantations. Both adults and nymphs feed on leaves by scrapping and eating outer tissues and margins. The emerging leaves are nibbled and the spot holes appear when the leaf unfurls. In severe conditions the entire leaf is eaten leaving behind only the midrib.

Introduction

Over the years, antibiotics have been used at sub therapeutic levels for enhancing the production and immunity of birds. The advantages of using antibiotics as feed supplements in terms of improvement of growth and feed efficiency have been well documented. However, the growing concern over the transmission and the proliferation of resistant bacteria via the food chain led to a ban on the use of antibiotic growth promoters (AGP) in livestock within the European Union in 2006.Thus, quest for alternatives to AGP gained momentum in the first decade of this century. There has been emergence of various feed additives like prebiotics, probiotics, organic acids, enzymes, essential oils, fatty acids, phytobiotics etc. Feed additives are used in to elicit the production performance and health of chicken.

For economical ration -preparation, selection of cheap feed amongthe locally available sources, is an important point to ponder. For this purpose, a list of available feeds is prepared alongwith their latest costs on dry matter basis. The cost per kgof dry matter is divided by the amount of the nutrient (as a decimal), it will give us a good idea of the :

• Cost of Crude Protein in ??Protein supplements and,

• Cost of Energy in ??Energy feeds.

For example, if alpha alpha hay costs Rs 3.93 per kgof dry matter, the cost per kg of Crude Protein = 3.93/0.171 = Rs 22.98 per kg.

In this way, it is possible to prepare a list of protein sources in the order of “Ranking” from which feeds can be selected at lower costs.

Effect of Differences in Dry Matter

Feeds are purchased on the basis of Dry Matter due to variation of moisture content. For example :

A Corn of 89 % Dry Matter costs Rs 7 per kg,

Another type of corn of 75 % Dry Matter can’t be comparable on this cost This can be done as following