
Laboratory Protocols in Applied Life Sciences
Prakash Singh Bisen(Author)
CRC Press
1st Edition
Published on 26. February 2014
Book
Hardback
1826 pages
978-1-4665-5314-9 (ISBN)
Article exhausted; check different version
Description
As applied life science progresses, becoming fully integrated into the biological, chemical, and engineering sciences, there is a growing need for expanding life sciences research techniques. Anticipating the demands of various life science disciplines, Laboratory Protocols in Applied Life Sciences explores this development.
This book covers a wide spectrum of areas in the interdisciplinary fields of life sciences, pharmacy, medical and paramedical sciences, and biotechnology. It examines the principles, concepts, and every aspect of applicable techniques in these areas. Covering elementary concepts to advanced research techniques, the text analyzes data through experimentation and explains the theory behind each exercise. It presents each experiment with an introduction to the topic, concise objectives, and a list of necessary materials and reagents, and introduces step-by-step, readily feasible laboratory protocols.
Focusing on the chemical characteristics of enzymes, metabolic processes, product and raw materials, and on the basic mechanisms and analytical techniques involved in life science technological transformations, this text provides information on the biological characteristics of living cells of different origin and the development of new life forms by genetic engineering techniques. It also examines product development using biological systems, including pharmaceutical, food, and beverage industries.
Laboratory Protocols in Applied Life Sciences presents a nonmathematical account of the underlying principles of a variety of experimental techniques in disciplines, including:
Biotechnology
Analytical biochemistry
Clinical biochemistry
Biophysics
Molecular biology
Genetic engineering
Bioprocess technology
Industrial processes
Animal
Plant
Microbial biology
Computational biology
Biosensors
Each chapter is self-contained and written in a style that helps students progress from basic to advanced techniques, and eventually design and execute their own experiments in a given field of biology.
This book covers a wide spectrum of areas in the interdisciplinary fields of life sciences, pharmacy, medical and paramedical sciences, and biotechnology. It examines the principles, concepts, and every aspect of applicable techniques in these areas. Covering elementary concepts to advanced research techniques, the text analyzes data through experimentation and explains the theory behind each exercise. It presents each experiment with an introduction to the topic, concise objectives, and a list of necessary materials and reagents, and introduces step-by-step, readily feasible laboratory protocols.
Focusing on the chemical characteristics of enzymes, metabolic processes, product and raw materials, and on the basic mechanisms and analytical techniques involved in life science technological transformations, this text provides information on the biological characteristics of living cells of different origin and the development of new life forms by genetic engineering techniques. It also examines product development using biological systems, including pharmaceutical, food, and beverage industries.
Laboratory Protocols in Applied Life Sciences presents a nonmathematical account of the underlying principles of a variety of experimental techniques in disciplines, including:
Biotechnology
Analytical biochemistry
Clinical biochemistry
Biophysics
Molecular biology
Genetic engineering
Bioprocess technology
Industrial processes
Animal
Plant
Microbial biology
Computational biology
Biosensors
Each chapter is self-contained and written in a style that helps students progress from basic to advanced techniques, and eventually design and execute their own experiments in a given field of biology.
Reviews / Votes
"This 1,700-plus page book is true to its title-it is a comprehensive book of laboratory protocols used in all applied life sciences. ... The purpose is to provide an integrated laboratory protocols book, `arranged and presented in a way comprehensible' to students of interdisciplinary fields (e.g., life sciences, biotechnology, etc.). The book meets these worthy objectives. ... While the book is intended for undergraduate or graduate students in interdisciplinary life sciences, it would be useful to a much wider audience-extending to junior and high school science teachers, as well as postgraduate (including practicing) practitioners in all life sciences fields. ... Wow-this book is unbelievable. For those of you who remember encyclopedias, this is the encyclopedia of laboratory protocols. It is overwhelming in the sheer breadth of the material it covers. ... Each section has a concise description of the technology, followed by a list of suggested readings and useful links. I started with the microscopy chapter. It was one of the most succinct, concise, and clear discussions I've ever encountered. The illustrations are self-explanatory. I feel confident I can now perform Kohler illumination successfully. ... Many of these protocols are being taught today in junior high and high schools, so this would be a great reference for these science teachers. The chapters and protocols covering conventional clinical laboratory protocols (bacteriology, virology, hematology, blood banking, etc.) are too simplistic for the typical clinical laboratory, but would serve as excellent introductory educational materials. Finally, the color inserts are simply fabulous. ... If you really want a single book containing pretty much all of the laboratory protocols for every aspect of the life sciences, get this one. ... Weighted numerical score: 91 - 4 stars."-Valerie L. Ng, Ph.D, MD, Alameda County Medical Center/Highland Hospital, Oakland, California, USA, from Doody's Book ReviewsTM
More details
Language
English
Place of publication
Bosa Roca
United States
Publishing group
Taylor & Francis Inc
Target group
Professional and scholarly
Graduate students and practitioners in a wide range of life sciences, as well as scientists and researchers in applied life sciences.
Illustrations
16 page insert follows page 742, 732 s/w Abbildungen, 142 s/w Tabellen
16 page insert follows page 742; 110; 142 Tables, black and white; 732 Illustrations, black and white
Dimensions
Height: 254 mm
Width: 178 mm
Weight
2631 gr
ISBN-13
978-1-4665-5314-9 (9781466553149)
Copyright in bibliographic data and cover images is held by Nielsen Book Services Limited or by the publishers or by their respective licensors: all rights reserved.
Schweitzer Classification
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Prakash Singh Bisen
Laboratory Protocols in Applied Life Sciences
Book
01/2018
1st Edition
CRC Press
€94.22
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Person
Prakash S. Bisen received his PhD in 1972 and his DSc in 1981. He is currently pursuing his research in the field of medical biotechnology as emeritus scientist at Defense Research Development Establishment, Defense Research Development Organization, Ministry of Defense, Government of India, Gwalior, India. He has also been elected fellow of the National Academy of Sciences, India, for his enormous contributions to the field of biology. Bisen is the external scientific advisor to a Barcelona-based multinational company, Biokit, which is involved in the manufacturing of diagnostic kits. He has to his credit 200 publications in indexed international journals of repute, six international patents, as well as six international books on contemporary issues in biological sciences.
Content
<P><STRONG>Microscopy</STRONG></P>
<P>Introduction</P>
<P>Light Microscopy</P>
<P>Atomic Force Microscopy</P>
<P>Bright Field Microscopy</P>
<P>Dark Ground Microscopy</P>
<P>Phase Contrast Microscopy</P>
<P>Confocal Scanning Laser Microscopy</P>
<P>Differential Interference Contrast Microscopy</P>
<P>Polarization Microscopy</P>
<P>Fluorescence Microscopy</P>
<P>Experiments on Microscopy</P>
<P>Electron Microscopy</P>
<P>Sample Preparation for Electron Microscopy</P>
<P>Dark Field Electron Microscopy</P>
<P>Crewe Microscope</P>
<P>Backscatter Scanning Microscope</P>
<P>Experiment on Scanning Electron Microscopy of Cyanobacteria</P>
<P>Transmission Electron Microscopy of Phages (Bacteriophage and Cyanophage)</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Microtome</P></STRONG>
<P>Introduction</P>
<P>Sectioning</P>
<P>Traditional Histology</P>
<P>Ultramicrotome</P>
<P>Cryostat</P>
<P>Incubation</P>
<P>Electron Microscopy Technique</P>
<P>Botanical Microtomy</P>
<P>Processing of Tissue</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>pH and Buffers</P></STRONG>
<P>Introduction</P>
<P>Acids and Bases</P>
<P>Hydrogen Ion Concentration and pH</P>
<P>Measurement of pH</P>
<P>Titration Curves</P>
<P>Buffer Solutions</P>
<P>What Is the pH of a Mixture of 5 mL of 0.1 mol/L Sodium Acetate and 4 mL of 0.1 mol/L Acetic Acid?</P>
<P>How the pH Changed on Adding 1 mL of 0.1 mol/L HCl in the Previous Mixture?</P>
<P>Buffers Used in Biochemical Experiments</P>
<P>pH and Life</P>
<P>Care and Use of the pH Meter</P>
<P>Titration Curves</P>
<P>Determination of pH Using Indicators</P>
<P>Titration of a Mixture of a Strong and a Weak Acid</P>
<P>Titration of a Strong Acid with a Strong Base</P>
<P>Titration of a Weak Acid with a Strong Base</P>
<P>Determination of pKa</P>
<P>pKa Values of a Dicarboxylic Acid</P>
<P>Acetate Buffers</P>
<P>Titration Curves of Amino Acids</P>
<P>Determination of pH of the Given Water/Soil Sample</P>
<P>Determination of pH of Fruit Juice</P>
<P>Measurement of pH of Soil Sample</P>
<P>Appendices</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Spectrophotometer</P></STRONG>
<P>Introduction</P>
<P>Beer-Lambert Law</P>
<P>Limitations of the Beer-Lambert Law</P>
<P>Measurement of Extinction</P>
<P>Colorimeter</P>
<P>Spectrophotometry</P>
<P>Infrared Spectroscopy</P>
<P>Fluorescence Spectroscopy</P>
<P>Sensitivity of Fluorescence Assays</P>
<P>Fluorescence Quenching</P>
<P>Measurement of ?-Naphthyl Phosphatase Activity</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Centrifugation</P></STRONG>
<P>Introduction</P>
<P>Centrifuges</P>
<P>Ultracentrifugation</P>
<P>Suspending Medium</P>
<P>Rotors</P>
<P>Fractionation of Rat Liver</P>
<P>Estimation of DNA, RNA, and Protein in the Isolated Cell Fractions</P>
<P>Enzyme Distribution in the Cell</P>
<P>Glucose-6-Phosphatase</P>
<P>Glutamate Dehydrogenase</P>
<P>Acid Phosphatase</P>
<P>Mitochondrial Swelling</P>
<P>Determination of Lysosomal Integrity</P>
<P>Effect of Detergents on the Stability of the Lysosomal Membrane</P>
<P>Density Gradient Centrifugation</P>
<P>Fractionation of Pig Brain by Density Gradient Centrifugation</P>
<P>Distribution of Enzymes in the Fractions Obtained from Pig Brain</P>
<P>Isolation of Chloroplasts</P>
<P>Isolation of Chloroplast DNA</P>
<P>Isolation of Mitochondria and Assay of a Marker Enzyme</P>
<P>Isolation of Genomic DNA</P>
<P>Isolation of Chloroplasts from Spinach Leaves by Differential Centrifugation</P>
<P>Isolation of Plasmid DNA by Centrifugation</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Radiation Biology</P></STRONG>
<P>Introduction</P>
<P>Radioisotopes</P>
<P>Sample Preparation</P>
<P>Autoradiography</P>
<P>Distribution of <SUP>14</SUP>CO<SUB>2</SUB> in Different Plant Parts </P>
<P>Photosynthetic Reduction of <SUP>14</SUP>CO<SUB>2</SUB> to Primary Metabolic Product</P>
<P>Incorporation of Labeled Acetate into Leucoplastic Fatty Acids of Developing Brassica Seeds</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Chromatography</P></STRONG>
<P>Chromatography</P>
<P>Paper Chromatography</P>
<P>Ascending Chromatography</P>
<P>Descending Chromatography</P>
<P>Separation and Identification of Amino Acids by Descending Paper Chromatography</P>
<P>Separation and Identification of Amino Acids by Ascending Paper Chromatography</P>
<P>Separation and Identification of Amino Acids in a Given Mixture by 2 D Paper Chromatography</P>
<P>Thin Layer Chromatography</P>
<P>Thin-Layer Gel Chromatography</P>
<P>Separation and Identification of Sugars by Adsorption Thin Layer Chromatography</P>
<P>Identification of Lipids in a Given Sample by Thin Layer Chromatography</P>
<P>Identification of Sugars in Fruit Juices Using Thin Layer Chromatography</P>
<P>Column Chromatography</P>
<P>Gradient Preparation</P>
<P>Adsorption Chromatography</P>
<P>Separation of Pigments from Leaves or Flowers by Adsorption Column Chromatography</P>
<P>Ion-Exchange Chromatography</P>
<P>Separation of Amino Acids by Ion-Exchange Chromatography</P>
<P>Separation of Proteins from Human Serum by Ion-Exchange Chromatography</P>
<P>Gel Filtration/Size-Exclusion Column Chromatography</P>
<P>Separation of Blue Dextran and Cobalt Chloride on Sephadex G-25</P>
<P>Desalting of Protein Sample by Gel Filtration</P>
<P>Determination of Molecular Weight of a Given Protein by Gel Filtration</P>
<P>Concentration of Dilute Protein Solutions Using Sephadex G-25</P>
<P>Affinity Chromatography</P>
<P>Hydrophobic Interaction Chromatography or Affinity Elution</P>
<P>Purification by Affinity Chromatography</P>
<P>Preparation of an Affinity Column</P>
<P>Preparation of Rat Brain Acetylcholinesterase</P>
<P>Acetylcholinesterase Assay</P>
<P>Purification of Acetylcholinesterase by Affinity Chromatography</P>
<P>MALDI-TOF</P>
<P>Nuclear Magnetic Resonance Spectroscopy</P>
<P>Maintenance of Enzyme Activity</P>
<P>Addition of Chaotropes</P>
<P>Role of Polyols/Hydrophilic Polymers in Stabilizing Structures</P>
<P>Stabilization by Side-Chain Modification</P>
<P>Criteria of Purity</P>
<P>Biuret</P>
<P>Folin (Lowry's Method)</P>
<P>Bradford</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Separation Technology</P></STRONG>
<P>Electrophoresis</P>
<P>Principle</P>
<P>Types of Electrophoresis</P>
<P>Separation of Amino Acids by Paper Electrophoresis</P>
<P>Cellulose Acetate Strip Electrophoresis</P>
<P>Gel Electrophoresis</P>
<P>Polyacrylamide Gel Electrophoresis</P>
<P>Polyacrylamide Disc Gel Electrophoresis</P>
<P>SDS Gel Electrophoresis</P>
<P>Slab Gel Electrophoresis</P>
<P>Native Disc Gel Electrophoresis of Proteins</P>
<P>SDS-Polyacrylamide Slab Gel Electrophoresis of Proteins Under Reducing Conditions (SDS-PAGE)</P>
<P>Slab Gel Gradient Electrophoresis of Protein and Multiple Molecular Forms of Acetylcholinesterase</P>
<P>Protein (Western) Blotting</P>
<P>Isoelectric Focusing</P>
<P>Agarose Gel Electrophoresis</P>
<P>Determination of Molecular Weight of Plasmid DNA by Agarose Gel Electrophoresis</P>
<P>Electrophoretic Evaluation of Quality of High Molecular Weight DNA Isolated from Plant Material</P>
<P>Large-Scale Preparative Electrophoresis</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Histochemical Techniques</P></STRONG>
<P>Introduction</P>
<P>Protein</P>
<P>Acidic Compounds</P>
<P>Carbohydrates-Polysaccharides</P>
<P>Lipids</P>
<P>Minor Compounds</P>
<P>Autoradiography</P>
<P>Enzyme Localization in Embedded Material</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Cytogenetics</P></STRONG>
<P>Introduction</P>
<P>Study Different Stages in Root Tip Cells of Plant</P>
<P>Preparation of Root Tips for Mitotic Studies</P>
<P>Preparation and Study of Slides for Mitosis Using Acetocarmine Squash Techniques from Onion Root Tips</P>
<P>Perform Carmine or Orcein Staining Techniques</P>
<P>Feulgen Staining Techniques</P>
<P>Preparation of Onion Flower Buds for Meiosis Studies</P>
<P>Fixation</P>
<P>Mounting and Making Temporary Slides Permanent</P>
<P>Study the Effect of Colchicines or Acenaphthene or Chloral Hydrate on Chromosomes of <I>Allium cepa</P></I>
<P>Estimate the Chiasma Frequency at Diplotene-Diakinesis</P>
<P>Study the Effect of ? Radiation on Chromosomes</P>
<P>To Prepare Slides Showing Diplotene Stages in Spermatocytes of Desert Locust (<I>Schistocerca gregaria</I>) or in Oocytes of the Newt (<I>Triturus viridescens</I>) Showing Lampbrush Chromosomes</P>
<P>Study Karyotypes of Allium cepa and <I>Vicia faba</P></I>
<P>Micrometry</P>
<P>To Demonstrate Reciprocal Translocation in Pollen Mother Cells of Rhoeo discolor (Tradescantia)</P>
<P>To Study the Spiral Nature of Chromosome Using Any Plant Material</P>
<P>To Show the Different Banding Patterns in Eukaryotic Chromosomes</P>
<P>Fungal Cytogenetics</P>
<P>Harvesting of Neurospora</P>
<P>To Study the Ordered (Tetrad) and Random Ascospore Analysis in Neurospora sp</P>
<P>To Demonstrate the Tetrad and Random Analysis</P>
<P>Tetrad Analysis</P>
<P>Pigmentation and Nutritional Requirement Analysis</P>
<P>Random Spore Analysis</P>
<P>Test for Nutritional Requirement</P>
<P>Suggested Media for Neurospora, Sordaria, and Aspergillus Experiments</P>
<P>Study of Heterokaryosis in Neurospora from the Nutritionally Deficient Mutants</P>
<P>General Information and Methods for Drosophila Experiments</P>
<P>Study of Salivary Gland Chromosomes of Drosophila melanogaster for Nature of Polyteny and Regions of Chromosome Puffs</P>
<P>Human Genetics</P>
<P>Human Sex Chromosomes and Barr Bodies</P>
<P>Autoradiography</P>
<P>Photomicrography</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Biomolecules</P></STRONG>
<P>Introduction</P>
<P>Carbohydrates</P>
<P>Amino Acids and Proteins</P>
<P>Lipids</P>
<P>Nucleic Acids</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Enzymology</P></STRONG>
<P>Introduction</P>
<P>Enzymes as Catalysts</P>
<P>Classification</P>
<P>Measurement of Enzyme Activity</P>
<P>Time Course Studies of the Reaction Catalyzed by Alkaline Phosphatase (EC 3.1.3.1)</P>
<P>Effect of Enzyme Concentration on the Rate of Enzyme-Catalyzed Reaction</P>
<P>Determination of Temperature Optima for Alkaline Phosphatase</P>
<P>Determination of Effect of pH on the Activity of Alkaline Phosphatase</P>
<P>Effect of Substrate Concentration on Activity of Alkaline Phosphate and Determination of the Km and Vmax of the Reaction</P>
<P>Progress Curve of Serum Alkaline Phosphatase (Orthophosphoric Acid Monoester Phosphohydrolase, EC 3.1.3.1)</P>
<P>Effect of Variation of Serum Alkaline Phosphatase Activity with Enzyme Concentration</P>
<P>Effect of Substrate Concentration and Inhibitors on Oxheart Lactate Dehydrogenase</P>
<P>Effect of Temperature on the Activity of ?-Amylase</P>
<P>Determination of the Molecular Weight and Purity of Chymotrypsin from the Enzyme Kinetics</P>
<P>Yeast Isocitrate Dehydrogenase: Allosteric Enzyme</P>
<P>Purification and Characterization of Enzymes</P>
<P>Isolation of Muramidase (Mucopeptide N-Acetylmuramyl Hydrolase, ) from Egg White</P>
<P>Separation of the Isoenzymes of Lactate Dehydrogenase by Electrophoresis on Polyacrylamide Gel</P>
<P>Enzyme Engineering</P>
<P>Artificial Enzymes</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Membranes</P></STRONG>
<P>Introduction</P>
<P>Composition of Membranes</P>
<P>Membrane Transport</P>
<P>Effect of Lipid Composition on the Permeability of a Lipid Monolayer</P>
<P>Effect of Detergents and Other Membrane-Active Reagents on the Erythrocyte Membrane</P>
<P>Permeability of Model Membrane (Liposome)</P>
<P>Effect of Cholesterol on the Anion Permeability of a Phospholipid Membrane</P>
<P>Effect of Insulin on the Transport into Isolated Fat Cell</P>
<P>Transport of Amino Acids across the Small Intestine</P>
<P>Absorption of Xylose from the Gut in Man</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Photosynthesis and Respiration</P></STRONG>
<P>Introduction</P>
<P>Measurement</P>
<P>Photosynthesis</P>
<P>Isolation of Chloroplasts from Spinach Leaves</P>
<P>Determination of Chlorophyll Concentration in the Chloroplast Suspension</P>
<P>Evolution of Oxygen by Isolated Chloroplast Using Hill Oxidants</P>
<P>Methyl Viologen as a Terminal Electron Acceptor</P>
<P>Spectrophotometric Assay of the Hill Reaction and the Estimation of Chlorophyll</P>
<P>Respiration of Mitochondria and Oxidative Phosphorylation</P>
<P>Effect of Inhibitors on the Respiratory Chain</P>
<P>Compounds That Affect the High-Energy State of Mitochondria</P>
<P>Suggested Reading</P>
<P>Important Links</P><STRONG>
<P>Microbiology</P></STRONG>
<P>Introduction</P>
<P>Good Microbiological Practice</P>
<P>Culture Media</P>
<P>Types of Media</P>
<P>Preparation of Culture Media</P>
<P>Maintenance and Preservation of Cultures</P>
<P>Preparation of Basic Liquid Media (Broth) for the Cultivation of Bacteria</P>
<P>Solid Media for Growth of Microorganisms</P>
<P>Isolation and Maintenance of Organisms</P>
<P>Isolation of Organisms by Pour Plate Method and Serial Dilation Method</P>
<P>Spread Plate Technique</P>
<P>Isolation of <I>Vibrio parahaemolyticus</I> from Seafood Sample</P>
<P>Isolation of Lactic Acid Bacteria from Milk and Buttermilk Sample</P>
<P>Isolation of <I>Staphylococcus aureus</I> from Food Sample</P>
<P>Sauerkraut Fermentation</P>
<P>Isolation of Microorganisms from Air</P>
<P>Phyllosphere/Phylloplane Microbiology</P>
<P>Measurement of Microbial Growth</P>
<P>Methods to Measure Bacterial Growth</P>
<P>Growth Curve Measurement of Bacterial Population by Serial Dilution Method</P>
<P>Serial Dilutions</P>
<P>Measurement of Fungal Growth by Colony Diameter Method</P>
<P>Biomass Measurement of Fungal Growth (Dry Weight Method)</P>
<P>Effect of Incubation Temperature on Growth</P>
<P>Effect of pH on Microbial Growth</P>
<P>Microscopic Examination of Bacteria</P>
<P>Microscopic Examination of Pathogens by One Tube One Plate Method</P>
<P>Smear Preparation</P>
<P>Staining</P>
<P>Biochemical Tests</P>
<P>Microbial Genetics</P>
<P>Bacterial Recombination</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Soil Biology</P></STRONG>
<P>Introduction</P>
<P>Estimation of Humus in Soil/Manure</P>
<P>Determination of Microbial Carbon Biomass</P>
<P>Estimation of Algal (Photosynthetic) Biomass in Soil Cores</P>
<P>Soil Decomposition and Microbial Community Structure (Winogradsky Technique)</P>
<P>Soil Algae Enumeration</P>
<P>Phosphate Solubilizing Bacteria</P>
<P>Isolation of Sulfur Oxidizing Bacteria from Soil</P>
<P>Demonstrate the Process of Ammonification in Soil</P>
<P>Demonstrate the Process of Nitrification in Soil</P>
<P>MPN Method for Nitrosomonas and Nitrobacter</P>
<P>Isolation of Azospirillum sp from Soil and Plant Root</P>
<P>Enumeration of Azospirillum by MPN Method</P>
<P>Demonstration of Microbial Denitrification in Soil</P>
<P>Isolation of Plant Growth Promoting Rhizobacteria</P>
<P>Isolation of Photosynthetic Bacteria</P>
<P>Cyanobacteria</P>
<P>Nitrogen Fixation</P>
<P>Mycorrhizal Symbiotic Association</P>
<P>Actinomycetes</P>
<P>Aquatic Molds</P>
<P>Fungi</P>
<P>Rhizosphere</P>
<P>Microbial Production of Citric Acid by <I>Aspergillus niger</P></I>
<P>Isolation of Industrially Important Antibiotic Producing Microorganisms</P>
<P>Assay of Antibiotics and Demonstration of Antibiotic Resistance</P>
<P>Characterize and Identify Aflatoxin by Thin-Layer Chromatography</P>
<P>Protozoa</P>
<P>Observation of Microscopic Invertebrates from Pond Water</P>
<P>Observation of Algae from Pond Water</P>
<P>Microscopic Examination of Soil Microbes</P>
<P>Bacteria Frequently Isolated from Soil</P>
<P>Fungi Frequently Isolated from Soil</P>
<P>Appendices</P>
<P>Suggested Reading</P>
<P>Important Links</P><STRONG>
<P>Virology</P></STRONG>
<P>Introduction</P>
<P>Isolation of Bacteriophage from Sewage</P>
<P>Preparation of High Titer of Bacteriophage of Isolated Bacterial Virus</P>
<P>One-Step Growth Curve of Coliphage and Determining the Number of Phage Particles Released by the Lysis of the Single Infected Bacterial Cell (Burst Size)</P>
<P>Demonstration of Lysogeny and Isolation of Rhizobium Phage</P>
<P>Isolation of Cyanophage LPP from Pond Water</P>
<P>Demonstration for the Presence of Actinophages in Soil</P>
<P>Isolation of Phage from Flies</P>
<P>Virus Culture in Embryonating Chicken Eggs</P>
<P>Extraction and Isolation of Tobacco Mosaic Virus</P>
<P>Cultivation of Viruses in Tissue Culture</P>
<P>Viral Hemagglutination Test for the Presence of Antigens</P>
<P>Suggested Readings</P><STRONG>
<P>Immunochemical Methods</P></STRONG>
<P>Introduction</P>
<P>Immunity</P>
<P>Ags</P>
<P>Antigenic Determinant or Epitope</P>
<P>Haptens</P>
<P>Specificity</P>
<P>T-Cell Dependent (TD) and T-Cell Independent (TI) Ags</P>
<P>Immunoglobulins</P>
<P>IG Determinants</P>
<P>Ig Classes</P>
<P>Monoclonal Antibodies</P>
<P>Polyclonal Antibodies</P>
<P>Ag-Ab Reaction</P>
<P>Determination of Ag-Ab Reactions</P>
<P>Collection of Blood Sample</P>
<P>Experiment: To Determine the ABO Blood Group by Using Slide Agglutination Test</P>
<P>Experiment: Determination of RH Factor in Human Being</P>
<P>Experiment: Demonstration of Agglutination Reaction of Unknown Bacterial Culture by Slide Agglutination Technique</P>
<P>Experiment: Estimate the Total Leukocyte Count by Hemocytometer</P>
<P>Experiment: Determine the Differential Count of WBCs (Leucocyte) by Staining Method</P>
<P>Experiment: Determine the Total Erythrocyte Count by Hemocytometer</P>
<P>Experiment: Lymphoid Cells Identification in Blood Smears</P>
<P>Experiment: Spleen Cell Preparation from Mouse</P>
<P>Experiment: Identification of Lymphocyte Populations</P>
<P>Experiment: Isolation of Monocytes by Adherence</P>
<P>Experiment: Isolation of Neutrophils</P>
<P>Experiment: Isolation of Human Basophils</P>
<P>Experiment: Isolation of Tissue Mast Cells</P>
<P>Experiment: Measurement of Percent ?-Glucuronidase Secretion</P>
<P>Experiment: Generation of Polyclonal Antibodies in Rabbits</P>
<P>Experiment: Gel Diffusion/Ouchterlony Immunodiffusion</P>
<P>Experiment: Demonstration of Radial Immunodiffusion</P>
<P>Experiment: Counter Current Immunoelectrophoresis</P>
<P>Experiment: Serum Electrophoresis</P>
<P>Experiment: Demonstration of Immunoelectrophoresis</P>
<P>Experiment: Determination of Albumin by Laurell Rocket Immunoelectrophoresis</P>
<P>Experiment: Purification of Igs BY ION Exchange Chromatography</P>
<P>Experiment: The Detection and Assay of a Myeloma Protein</P>
<P>Experiment: ELISA</P>
<P>Experiment: Pregnancy Testing by Using the Immunological Methods</P>
<P>Experiment: HIV DOT Test of AIDS Patients</P>
<P>Experiment: Demonstration of Immunofluorescence Assay</P>
<P>Experiment: Identification of Bacteria by Using Fluorescent Ab Technique (FAT)</P>
<P>Experiment: Immunofluorescence Labeling of Cultured Cells</P>
<P>Experiment: Isolation of IgG from Serum</P>
<P>Experiment: Purification of IgM</P>
<P>Suggested Reading</P>
<P>Important Links</P><STRONG>
<P>Genetic Engineering</P></STRONG>
<P>Introduction</P>
<P>Tools of Genetic Engineering</P>
<P>DNA Sequencing</P>
<P>Isolation of Genomic DNA from <I>E coli</P></I>
<P>Rapid Method for Isolating Plasmid DNA from Yeast</P>
<P>Isolation of Plasmid DNA from Yeast (Protocol 1)</P>
<P>Isolation of Yeast Plasmid DNA (Protocol 2)</P>
<P>Isolation of Drosophila Genomic DNA</P>
<P>Determination of ?max Value of the Isolated DNA Sample</P>
<P>Determination of the Purity of the Isolated DNA Sample</P>
<P>Determine the Quantity of DNA in the Sample</P>
<P>To Perform Agarose Gel Electrophoresis for the Given DNA Sample</P>
<P>Isolation of Plasmid DNA from Given Bacterial Culture</P>
<P>Electrophoresis of DNA: Linear, Circular, and Super Coiled</P>
<P>To Perform Restriction Digestion of the Given DNA Sample</P>
<P>To Demonstrate Ligation</P>
<P>Elution of DNA from Agarose Gel</P>
<P>Purification of Phage ? DNA</P>
<P>To Perform Restriction Digestion of Plasmid DNA with Different Restriction Endonucleases and to Determine the Position of Restriction Site Using Restriction Mapping</P>
<P>To Perform Transformation</P>
<P>Directional Cloning Into Plasmid Vectors</P>
<P>To Assay Reporter Chloramphenicol Acetyltransferase Gene</P>
<P>To Assay ss-Gal in Extracts of Mammalian Cells</P>
<P>Determination of Nucleotide Sequence of DNA by Dideoxy Chain Termination Method</P>
<P>Amplification of 16S rDNA Genes by the Polymerase Chain</P>
<P>PCR from Fungal Spores/AMF (Arbuscular Mycorrhizal Fungi)</P>
<P>To Demonstrate the Nested PCR Reaction</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Molecular Biology</P></STRONG>
<P>Introduction</P>
<P>Isolation of Nucleic Acids from Biological Samples</P>
<P>Demonstration of Southern Blotting</P>
<P>Demonstration of Experiment on RFLP Analysis</P>
<P>Restriction Fragment Length Polymorphism</P>
<P>Isolation of RNA from Biological Sample</P>
<P>Extraction of Polysomal RNA of Nuclear Sequences</P>
<P>Separation of RNA Species by Ion-Exchange Column Chromatography on Methylated Albumin Kiesselguher Columns</P>
<P>Northern Hybridization of RNA Fractionated by Agarose Formaldehyde Gel Electrophoresis</P>
<P>Preparation of Radiolabeled Probe by Random Primer Method</P>
<P>Detection of Specific Fragment of Plant DNA from Restriction Digest by Hybridization with a Labeled Probe</P><I>
<P>In Vitro</I> Transcription</P><I>
<P>In Vitro</I> Translation of RNA</P>
<P>Reticulocytes and Their Use in the Study of Protein Synthesis</P>
<P>Protein Synthesis in Intact Rabbit Reticulocytes</P>
<P>Metabolic Labeling of Proteins and Immunoprecipitation</P>
<P>Induction of ss-Galactosidase in Strains of <I>E coli</P></I>
<P>Effect of Different Inducers on the Induction of ss-Galactosidase</P>
<P>Effect of Protein Synthesis Inhibitors on the Induction of ss-Galactosidase</P>
<P>Turnover of ss-Galactosidase</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Biosensors</P></STRONG>
<P>Introduction</P>
<P>Biosensor</P>
<P>Classification of Biosensors</P>
<P>Characteristics of Biosensors</P>
<P>Components of Biosensors</P>
<P>Biochip</P>
<P>Immunobiosensor</P>
<P>Aptamers</P>
<P>SPR Technology</P>
<P>Working Principle of Biosensors</P>
<P>Immunosensors</P>
<P>Calorimetric Biosensors</P>
<P>Potentiometric Biosensors</P>
<P>Amperometric Biosensors</P>
<P>Optical Biosensors</P>
<P>Piezoelectric Biosensors</P>
<P>Second-Generation Biosensors</P>
<P>Third-Generation Biosensors</P>
<P>Biosensor for Healthcare</P>
<P>Conclusion and Future Challenges</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Enzyme Immobilization</P></STRONG>
<P>Introduction</P>
<P>Selection of Carrier and Support before Immobilization</P>
<P>Carriers for Enzyme Immobilization</P>
<P>Limitations and Advantages of Enzyme Immobilization</P>
<P>Methods of Immobilizations</P>
<P>Cross-Linking</P>
<P>Entrapment Method</P>
<P>Whole-Cell Immobilization</P>
<P>Industrial Application of Enzymes</P>
<P>Experiment Cell Immobilization by Using Alginate</P>
<P>Experiment Immobilization of Enzyme Horseradish</P>
<P>Peroxidase (Donor: H<SUB>2</SUB>O<SUB>2</SUB>Oxidoreductase; EC 1.11.1.7) by</P>
<P>Aminoantipyrine-Phenol Assay</P>
<P>Suggested Readings</P><STRONG>
<P>Plant Tissue Culture</P></STRONG>
<P>Introduction</P>
<P>Facilities</P>
<P>Glassware Preparation</P>
<P>Sterilization</P>
<P>Wet Heat Sterilization</P>
<P>Dry Sterilization</P>
<P>Filter Sterilization</P>
<P>Media Preparation</P>
<P>Preparation of Stock Solution</P>
<P>Protocol</P>
<P>Sterilization of Media</P>
<P>Aseptic Manipulation</P>
<P>Sterile Transfer Facilities</P>
<P>Temperature</P>
<P>Light</P>
<P>Aeration</P>
<P>Temperature</P>
<P>Plant Cell Culture System</P>
<P>Explants</P>
<P>Calluses</P>
<P>Cell Suspension</P>
<P>Protoplast</P>
<P>Surface Sterilization</P>
<P>Common Culture Media</P>
<P>Sterilization of Plant Materials</P>
<P>Introduction</P>
<P>Materials</P>
<P>Protocol</P>
<P>Observation and Result</P>
<P>Preparation of Tissue Culture Media</P>
<P>Organ Culture</P>
<P>Callus Propagation</P>
<P>Single Cell Culture</P>
<P>Preparation and Fusion of Protoplasts</P>
<P>Protocols on Protoplast Fusion</P>
<P>Fusion Products: Hybrids and Cybrids</P>
<P>Methods of Somatic Hybridization</P>
<P>Protoplast Fusion (Somatic Cell Hybridization)</P>
<P>Electrofusion Isolation of Oat and Corn Protoplast</P>
<P>Culture of Protoplasts</P>
<P>Other Protocols</P>
<P>Somatic Embryogenesis</P>
<P>Production of Haploid Plants</P>
<P>Embryo Encapsulation: Production of Artificial Seeds</P>
<P>Cytological Examination of Regenerated Plants</P>
<P>Demonstration of Root Hair Culture of Different Explants Source of Cereal Using <I>Agrobacterium rhizogenes</P></I>
<P>Experiment Demonstration of Root Hair Culture of Different Explants Using Arbuscular Mycorrhizal Fungi</P>
<P>Useful Secondary-Metabolite Production from Plant Tissue Culture</P>
<P>Genetic Transformation of Plants through <I>Agrobacterium tumefaciens</I> as Cloning Vector</P>
<P>Assay of ss-Glucuronidase in Transformed Plant Tissue</P>
<P>Random Amplified Polymorphic DNA Analysis</P>
<P>Efficiency of Rhizobia for Nodulation in Leguminous Crops</P>
<P>Seed Inoculation with Rhizobia</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Animal Cell Science and Technology</P></STRONG>
<P>Introduction</P>
<P>Chronology of Cell Culture Development</P>
<P>Cell Culture Laboratory</P>
<P>Culture Medium</P>
<P>Cell Subculturing</P>
<P>Cell Quantification</P>
<P>Seeding Cells onto Culture Plates</P>
<P>Maintenance of Cells in Culture</P>
<P>Growth Kinetics of Animal Cells in Culture</P>
<P>Cryopreservation of Cells</P>
<P>Resuscitation of Frozen Cells</P>
<P>Determination of Cell Viability</P>
<P>Safety Considerations in Cell Culture</P>
<P>Aseptic Techniques and Good Cell Culture Practice</P>
<P>Preparation of Tissue Culture Medium</P>
<P>Preparation of Single Cell Suspension of Spleen and Thymus</P>
<P>Cell Counting</P>
<P>Cell Viability Assay</P>
<P>Estimation of Viability by Dye Uptake</P>
<P>Macrophage Monolayer from PEE and Measurement of Phagocytic Activity</P>
<P>Trypsinization of Monolayer and Subculturing</P>
<P>Cryopreservation</P>
<P>Thawing</P>
<P>Role of Serum in Cell Culture</P>
<P>Metaphase Chromosome Preparation from Cultured Cells</P>
<P>Isolation of DNA and Demonstration of Apoptosis of DNA Laddering</P>
<P>Demonstration of Apoptosis of DNA Laddering</P>
<P>MTT Assay for Cell Viability and Growth</P>
<P>Cell Fusion by PEG</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Bioprocess Engineering</P></STRONG>
<P>Introduction</P>
<P>Isolation of Industrially Important Microorganisms</P>
<P>Determination of Thermal Death Point and Thermal Death Time of Microorganisms for Design of a Sterilizer</P>
<P>Determination of Ethanol Production Using Different Substrates</P>
<P>Sugar Fermentation by Yeast (<I>S. cerevisiae</I>) for Production of Ethanol and Cell Biomass Using Laboratory Fermenter of 2 L capacityMeasurement of Yeast Biomass Using Hemocytometer Technique</P>
<P>Study Fermentation Process for Lactic Acid Production by <I>Streptococcus thermophilus</I> and Cell Biomass</P>
<P>Microbial Production of Citric Acid Using <I>Aspergillus niger</P></I>
<P>Microbial Production of Antibiotics (Penicillin)</P>
<P>Production of Vinegar (Acetic Acid)</P>
<P>Demonstration of Wine Production Using Grape Wine Juice</P>
<P>Production and Manufacture of Beer</P>
<P>Production and Estimation of Alkaline Protease</P>
<P>Mushroom Production Technology</P>
<P>Identification of Mushrooms by Spore Print Method</P>
<P>Isolation and Maintenance of Mushroom Culture</P>
<P>Production of Spawn for White Button Mushroom (A. brunnescens syn A.bisporus)</P>
<P>Cultivation of White Button Mushroom (<I>A. brunnescens = A. bisporus</I>)</P>
<P>Cultivation of <I>G. lucidum</I> (Ling Zhi)</P>
<P>Cultivation of <I>L. edodes</P></I>
<P>Cultivation of Paddy Straw Mushroom (<I>V. volvacea</I>)</P>
<P>Cultivation Method of Oyster Mushroom</P><STRONG>
<P>Environmental Biology</P></STRONG>
<P>Wastewater Treatment Process</P>
<P>Measurement of pH</P>
<P>Measurement of Alkalinity of Water</P>
<P>Measurement of DO of Water</P>
<P>Measurement of Chloride in Water</P>
<P>Measurement of Nitrate in Water</P>
<P>Measurement of Nitrite in Water</P>
<P>Measurement of Ammonia in Water</P>
<P>Measurement of Total Phosphorus in Water</P>
<P>Measurement of Inorganic Phosphate in Water</P>
<P>Measurement of Sulfate in Water</P>
<P>Measurement of Sulfide in Water</P>
<P>Measurement of Calcium and Magnesium in Water</P>
<P>Detection of Coliforms for the Determination of the Purity of Potable Water</P>
<P>Determination of Total Dissolved Solids of Water</P>
<P>Determination of DO Concentration of Water by Winkler's Iodometric Method</P>
<P>Determination of Biochemical Oxygen Demand of Sewage Water</P>
<P>Determination Chemical Oxygen Demand Sewage Sample</P>
<P>Determination of the Efficiency of Removal of Air Pollutant, Using Fibrous Air Filter</P>
<P>Isolation of Xenobiotic-Degrading Bacteria</P>
<P>Degradation of Aromatic Hydrocarbons by Bacteria</P>
<P>Survey of Degradative Plasmids in Microbes Growing in Polluted Environment</P>
<P>Effect of SO<SUB>2</SUB> on Crop Plants</P>
<P>Estimation of Heavy Metals in Water/Soil by Atomic Absorption Spectrophotometry</P>
<P>Preliminary Digestion for Metals</P>
<P>Estimation of Metals</P>
<P>Flame AAS</P>
<P>Measurement of Aluminum in Soil/Water Sample</P>
<P>Measurement of Arsenic in Soil/Water Sample</P>
<P>Measurement of Cadmium in Soil/Water Sample</P>
<P>Measurement of Mercury in Soil/Water Sample</P>
<P>Study on Biogenic Methane Production in Different Habitats (Biogas)</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Bioinformatics</P></STRONG>
<P>Introduction</P>
<P>Development</P>
<P>Nucleotide Sequence Databases</P>
<P>Protein Sequence Databases</P>
<P>Biomolecular Structure Databases</P>
<P>Pair-Wise Sequence Alignment</P>
<P>Detection of CpG Island for Nucleotide Sequence</P>
<P>Detection of Gene Structure of DNA Sequence</P>
<P>Translation of Nucleotide Sequence to Protein Sequence</P>
<P>Reports of Various Chemical and Physical Properties of Protein Sequence</P>
<P>Database Search "Blast"</P>
<P>Phylogenetic Analysis</P>
<P>Molecular Pathways Database</P>
<P>Proteomics</P>
<P>Metabolomics</P>
<P>Genomics</P>
<P>Bioinformatics Approaches for DNA-Based Signatures of Species/Populations/Breeds/Races/Variety/Strains</P>
<P>DNA-Based Signature of Plant Variety (Example, Basmati Rice)</P>
<P>DNA-Based Bar-Coded Signature of Fishes</P>
<P>Bioinformatics Tool and Protocol for SNP/STR Signatures</P>
<P>FastPCR</P>
<P>Suggested Readings</P>
<P>Important Links</P>
<P>Appendices</P>
<P>Glossary</P>
<P>Index</P>
<P>Introduction</P>
<P>Light Microscopy</P>
<P>Atomic Force Microscopy</P>
<P>Bright Field Microscopy</P>
<P>Dark Ground Microscopy</P>
<P>Phase Contrast Microscopy</P>
<P>Confocal Scanning Laser Microscopy</P>
<P>Differential Interference Contrast Microscopy</P>
<P>Polarization Microscopy</P>
<P>Fluorescence Microscopy</P>
<P>Experiments on Microscopy</P>
<P>Electron Microscopy</P>
<P>Sample Preparation for Electron Microscopy</P>
<P>Dark Field Electron Microscopy</P>
<P>Crewe Microscope</P>
<P>Backscatter Scanning Microscope</P>
<P>Experiment on Scanning Electron Microscopy of Cyanobacteria</P>
<P>Transmission Electron Microscopy of Phages (Bacteriophage and Cyanophage)</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Microtome</P></STRONG>
<P>Introduction</P>
<P>Sectioning</P>
<P>Traditional Histology</P>
<P>Ultramicrotome</P>
<P>Cryostat</P>
<P>Incubation</P>
<P>Electron Microscopy Technique</P>
<P>Botanical Microtomy</P>
<P>Processing of Tissue</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>pH and Buffers</P></STRONG>
<P>Introduction</P>
<P>Acids and Bases</P>
<P>Hydrogen Ion Concentration and pH</P>
<P>Measurement of pH</P>
<P>Titration Curves</P>
<P>Buffer Solutions</P>
<P>What Is the pH of a Mixture of 5 mL of 0.1 mol/L Sodium Acetate and 4 mL of 0.1 mol/L Acetic Acid?</P>
<P>How the pH Changed on Adding 1 mL of 0.1 mol/L HCl in the Previous Mixture?</P>
<P>Buffers Used in Biochemical Experiments</P>
<P>pH and Life</P>
<P>Care and Use of the pH Meter</P>
<P>Titration Curves</P>
<P>Determination of pH Using Indicators</P>
<P>Titration of a Mixture of a Strong and a Weak Acid</P>
<P>Titration of a Strong Acid with a Strong Base</P>
<P>Titration of a Weak Acid with a Strong Base</P>
<P>Determination of pKa</P>
<P>pKa Values of a Dicarboxylic Acid</P>
<P>Acetate Buffers</P>
<P>Titration Curves of Amino Acids</P>
<P>Determination of pH of the Given Water/Soil Sample</P>
<P>Determination of pH of Fruit Juice</P>
<P>Measurement of pH of Soil Sample</P>
<P>Appendices</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Spectrophotometer</P></STRONG>
<P>Introduction</P>
<P>Beer-Lambert Law</P>
<P>Limitations of the Beer-Lambert Law</P>
<P>Measurement of Extinction</P>
<P>Colorimeter</P>
<P>Spectrophotometry</P>
<P>Infrared Spectroscopy</P>
<P>Fluorescence Spectroscopy</P>
<P>Sensitivity of Fluorescence Assays</P>
<P>Fluorescence Quenching</P>
<P>Measurement of ?-Naphthyl Phosphatase Activity</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Centrifugation</P></STRONG>
<P>Introduction</P>
<P>Centrifuges</P>
<P>Ultracentrifugation</P>
<P>Suspending Medium</P>
<P>Rotors</P>
<P>Fractionation of Rat Liver</P>
<P>Estimation of DNA, RNA, and Protein in the Isolated Cell Fractions</P>
<P>Enzyme Distribution in the Cell</P>
<P>Glucose-6-Phosphatase</P>
<P>Glutamate Dehydrogenase</P>
<P>Acid Phosphatase</P>
<P>Mitochondrial Swelling</P>
<P>Determination of Lysosomal Integrity</P>
<P>Effect of Detergents on the Stability of the Lysosomal Membrane</P>
<P>Density Gradient Centrifugation</P>
<P>Fractionation of Pig Brain by Density Gradient Centrifugation</P>
<P>Distribution of Enzymes in the Fractions Obtained from Pig Brain</P>
<P>Isolation of Chloroplasts</P>
<P>Isolation of Chloroplast DNA</P>
<P>Isolation of Mitochondria and Assay of a Marker Enzyme</P>
<P>Isolation of Genomic DNA</P>
<P>Isolation of Chloroplasts from Spinach Leaves by Differential Centrifugation</P>
<P>Isolation of Plasmid DNA by Centrifugation</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Radiation Biology</P></STRONG>
<P>Introduction</P>
<P>Radioisotopes</P>
<P>Sample Preparation</P>
<P>Autoradiography</P>
<P>Distribution of <SUP>14</SUP>CO<SUB>2</SUB> in Different Plant Parts </P>
<P>Photosynthetic Reduction of <SUP>14</SUP>CO<SUB>2</SUB> to Primary Metabolic Product</P>
<P>Incorporation of Labeled Acetate into Leucoplastic Fatty Acids of Developing Brassica Seeds</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Chromatography</P></STRONG>
<P>Chromatography</P>
<P>Paper Chromatography</P>
<P>Ascending Chromatography</P>
<P>Descending Chromatography</P>
<P>Separation and Identification of Amino Acids by Descending Paper Chromatography</P>
<P>Separation and Identification of Amino Acids by Ascending Paper Chromatography</P>
<P>Separation and Identification of Amino Acids in a Given Mixture by 2 D Paper Chromatography</P>
<P>Thin Layer Chromatography</P>
<P>Thin-Layer Gel Chromatography</P>
<P>Separation and Identification of Sugars by Adsorption Thin Layer Chromatography</P>
<P>Identification of Lipids in a Given Sample by Thin Layer Chromatography</P>
<P>Identification of Sugars in Fruit Juices Using Thin Layer Chromatography</P>
<P>Column Chromatography</P>
<P>Gradient Preparation</P>
<P>Adsorption Chromatography</P>
<P>Separation of Pigments from Leaves or Flowers by Adsorption Column Chromatography</P>
<P>Ion-Exchange Chromatography</P>
<P>Separation of Amino Acids by Ion-Exchange Chromatography</P>
<P>Separation of Proteins from Human Serum by Ion-Exchange Chromatography</P>
<P>Gel Filtration/Size-Exclusion Column Chromatography</P>
<P>Separation of Blue Dextran and Cobalt Chloride on Sephadex G-25</P>
<P>Desalting of Protein Sample by Gel Filtration</P>
<P>Determination of Molecular Weight of a Given Protein by Gel Filtration</P>
<P>Concentration of Dilute Protein Solutions Using Sephadex G-25</P>
<P>Affinity Chromatography</P>
<P>Hydrophobic Interaction Chromatography or Affinity Elution</P>
<P>Purification by Affinity Chromatography</P>
<P>Preparation of an Affinity Column</P>
<P>Preparation of Rat Brain Acetylcholinesterase</P>
<P>Acetylcholinesterase Assay</P>
<P>Purification of Acetylcholinesterase by Affinity Chromatography</P>
<P>MALDI-TOF</P>
<P>Nuclear Magnetic Resonance Spectroscopy</P>
<P>Maintenance of Enzyme Activity</P>
<P>Addition of Chaotropes</P>
<P>Role of Polyols/Hydrophilic Polymers in Stabilizing Structures</P>
<P>Stabilization by Side-Chain Modification</P>
<P>Criteria of Purity</P>
<P>Biuret</P>
<P>Folin (Lowry's Method)</P>
<P>Bradford</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Separation Technology</P></STRONG>
<P>Electrophoresis</P>
<P>Principle</P>
<P>Types of Electrophoresis</P>
<P>Separation of Amino Acids by Paper Electrophoresis</P>
<P>Cellulose Acetate Strip Electrophoresis</P>
<P>Gel Electrophoresis</P>
<P>Polyacrylamide Gel Electrophoresis</P>
<P>Polyacrylamide Disc Gel Electrophoresis</P>
<P>SDS Gel Electrophoresis</P>
<P>Slab Gel Electrophoresis</P>
<P>Native Disc Gel Electrophoresis of Proteins</P>
<P>SDS-Polyacrylamide Slab Gel Electrophoresis of Proteins Under Reducing Conditions (SDS-PAGE)</P>
<P>Slab Gel Gradient Electrophoresis of Protein and Multiple Molecular Forms of Acetylcholinesterase</P>
<P>Protein (Western) Blotting</P>
<P>Isoelectric Focusing</P>
<P>Agarose Gel Electrophoresis</P>
<P>Determination of Molecular Weight of Plasmid DNA by Agarose Gel Electrophoresis</P>
<P>Electrophoretic Evaluation of Quality of High Molecular Weight DNA Isolated from Plant Material</P>
<P>Large-Scale Preparative Electrophoresis</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Histochemical Techniques</P></STRONG>
<P>Introduction</P>
<P>Protein</P>
<P>Acidic Compounds</P>
<P>Carbohydrates-Polysaccharides</P>
<P>Lipids</P>
<P>Minor Compounds</P>
<P>Autoradiography</P>
<P>Enzyme Localization in Embedded Material</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Cytogenetics</P></STRONG>
<P>Introduction</P>
<P>Study Different Stages in Root Tip Cells of Plant</P>
<P>Preparation of Root Tips for Mitotic Studies</P>
<P>Preparation and Study of Slides for Mitosis Using Acetocarmine Squash Techniques from Onion Root Tips</P>
<P>Perform Carmine or Orcein Staining Techniques</P>
<P>Feulgen Staining Techniques</P>
<P>Preparation of Onion Flower Buds for Meiosis Studies</P>
<P>Fixation</P>
<P>Mounting and Making Temporary Slides Permanent</P>
<P>Study the Effect of Colchicines or Acenaphthene or Chloral Hydrate on Chromosomes of <I>Allium cepa</P></I>
<P>Estimate the Chiasma Frequency at Diplotene-Diakinesis</P>
<P>Study the Effect of ? Radiation on Chromosomes</P>
<P>To Prepare Slides Showing Diplotene Stages in Spermatocytes of Desert Locust (<I>Schistocerca gregaria</I>) or in Oocytes of the Newt (<I>Triturus viridescens</I>) Showing Lampbrush Chromosomes</P>
<P>Study Karyotypes of Allium cepa and <I>Vicia faba</P></I>
<P>Micrometry</P>
<P>To Demonstrate Reciprocal Translocation in Pollen Mother Cells of Rhoeo discolor (Tradescantia)</P>
<P>To Study the Spiral Nature of Chromosome Using Any Plant Material</P>
<P>To Show the Different Banding Patterns in Eukaryotic Chromosomes</P>
<P>Fungal Cytogenetics</P>
<P>Harvesting of Neurospora</P>
<P>To Study the Ordered (Tetrad) and Random Ascospore Analysis in Neurospora sp</P>
<P>To Demonstrate the Tetrad and Random Analysis</P>
<P>Tetrad Analysis</P>
<P>Pigmentation and Nutritional Requirement Analysis</P>
<P>Random Spore Analysis</P>
<P>Test for Nutritional Requirement</P>
<P>Suggested Media for Neurospora, Sordaria, and Aspergillus Experiments</P>
<P>Study of Heterokaryosis in Neurospora from the Nutritionally Deficient Mutants</P>
<P>General Information and Methods for Drosophila Experiments</P>
<P>Study of Salivary Gland Chromosomes of Drosophila melanogaster for Nature of Polyteny and Regions of Chromosome Puffs</P>
<P>Human Genetics</P>
<P>Human Sex Chromosomes and Barr Bodies</P>
<P>Autoradiography</P>
<P>Photomicrography</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Biomolecules</P></STRONG>
<P>Introduction</P>
<P>Carbohydrates</P>
<P>Amino Acids and Proteins</P>
<P>Lipids</P>
<P>Nucleic Acids</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Enzymology</P></STRONG>
<P>Introduction</P>
<P>Enzymes as Catalysts</P>
<P>Classification</P>
<P>Measurement of Enzyme Activity</P>
<P>Time Course Studies of the Reaction Catalyzed by Alkaline Phosphatase (EC 3.1.3.1)</P>
<P>Effect of Enzyme Concentration on the Rate of Enzyme-Catalyzed Reaction</P>
<P>Determination of Temperature Optima for Alkaline Phosphatase</P>
<P>Determination of Effect of pH on the Activity of Alkaline Phosphatase</P>
<P>Effect of Substrate Concentration on Activity of Alkaline Phosphate and Determination of the Km and Vmax of the Reaction</P>
<P>Progress Curve of Serum Alkaline Phosphatase (Orthophosphoric Acid Monoester Phosphohydrolase, EC 3.1.3.1)</P>
<P>Effect of Variation of Serum Alkaline Phosphatase Activity with Enzyme Concentration</P>
<P>Effect of Substrate Concentration and Inhibitors on Oxheart Lactate Dehydrogenase</P>
<P>Effect of Temperature on the Activity of ?-Amylase</P>
<P>Determination of the Molecular Weight and Purity of Chymotrypsin from the Enzyme Kinetics</P>
<P>Yeast Isocitrate Dehydrogenase: Allosteric Enzyme</P>
<P>Purification and Characterization of Enzymes</P>
<P>Isolation of Muramidase (Mucopeptide N-Acetylmuramyl Hydrolase, ) from Egg White</P>
<P>Separation of the Isoenzymes of Lactate Dehydrogenase by Electrophoresis on Polyacrylamide Gel</P>
<P>Enzyme Engineering</P>
<P>Artificial Enzymes</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Membranes</P></STRONG>
<P>Introduction</P>
<P>Composition of Membranes</P>
<P>Membrane Transport</P>
<P>Effect of Lipid Composition on the Permeability of a Lipid Monolayer</P>
<P>Effect of Detergents and Other Membrane-Active Reagents on the Erythrocyte Membrane</P>
<P>Permeability of Model Membrane (Liposome)</P>
<P>Effect of Cholesterol on the Anion Permeability of a Phospholipid Membrane</P>
<P>Effect of Insulin on the Transport into Isolated Fat Cell</P>
<P>Transport of Amino Acids across the Small Intestine</P>
<P>Absorption of Xylose from the Gut in Man</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Photosynthesis and Respiration</P></STRONG>
<P>Introduction</P>
<P>Measurement</P>
<P>Photosynthesis</P>
<P>Isolation of Chloroplasts from Spinach Leaves</P>
<P>Determination of Chlorophyll Concentration in the Chloroplast Suspension</P>
<P>Evolution of Oxygen by Isolated Chloroplast Using Hill Oxidants</P>
<P>Methyl Viologen as a Terminal Electron Acceptor</P>
<P>Spectrophotometric Assay of the Hill Reaction and the Estimation of Chlorophyll</P>
<P>Respiration of Mitochondria and Oxidative Phosphorylation</P>
<P>Effect of Inhibitors on the Respiratory Chain</P>
<P>Compounds That Affect the High-Energy State of Mitochondria</P>
<P>Suggested Reading</P>
<P>Important Links</P><STRONG>
<P>Microbiology</P></STRONG>
<P>Introduction</P>
<P>Good Microbiological Practice</P>
<P>Culture Media</P>
<P>Types of Media</P>
<P>Preparation of Culture Media</P>
<P>Maintenance and Preservation of Cultures</P>
<P>Preparation of Basic Liquid Media (Broth) for the Cultivation of Bacteria</P>
<P>Solid Media for Growth of Microorganisms</P>
<P>Isolation and Maintenance of Organisms</P>
<P>Isolation of Organisms by Pour Plate Method and Serial Dilation Method</P>
<P>Spread Plate Technique</P>
<P>Isolation of <I>Vibrio parahaemolyticus</I> from Seafood Sample</P>
<P>Isolation of Lactic Acid Bacteria from Milk and Buttermilk Sample</P>
<P>Isolation of <I>Staphylococcus aureus</I> from Food Sample</P>
<P>Sauerkraut Fermentation</P>
<P>Isolation of Microorganisms from Air</P>
<P>Phyllosphere/Phylloplane Microbiology</P>
<P>Measurement of Microbial Growth</P>
<P>Methods to Measure Bacterial Growth</P>
<P>Growth Curve Measurement of Bacterial Population by Serial Dilution Method</P>
<P>Serial Dilutions</P>
<P>Measurement of Fungal Growth by Colony Diameter Method</P>
<P>Biomass Measurement of Fungal Growth (Dry Weight Method)</P>
<P>Effect of Incubation Temperature on Growth</P>
<P>Effect of pH on Microbial Growth</P>
<P>Microscopic Examination of Bacteria</P>
<P>Microscopic Examination of Pathogens by One Tube One Plate Method</P>
<P>Smear Preparation</P>
<P>Staining</P>
<P>Biochemical Tests</P>
<P>Microbial Genetics</P>
<P>Bacterial Recombination</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Soil Biology</P></STRONG>
<P>Introduction</P>
<P>Estimation of Humus in Soil/Manure</P>
<P>Determination of Microbial Carbon Biomass</P>
<P>Estimation of Algal (Photosynthetic) Biomass in Soil Cores</P>
<P>Soil Decomposition and Microbial Community Structure (Winogradsky Technique)</P>
<P>Soil Algae Enumeration</P>
<P>Phosphate Solubilizing Bacteria</P>
<P>Isolation of Sulfur Oxidizing Bacteria from Soil</P>
<P>Demonstrate the Process of Ammonification in Soil</P>
<P>Demonstrate the Process of Nitrification in Soil</P>
<P>MPN Method for Nitrosomonas and Nitrobacter</P>
<P>Isolation of Azospirillum sp from Soil and Plant Root</P>
<P>Enumeration of Azospirillum by MPN Method</P>
<P>Demonstration of Microbial Denitrification in Soil</P>
<P>Isolation of Plant Growth Promoting Rhizobacteria</P>
<P>Isolation of Photosynthetic Bacteria</P>
<P>Cyanobacteria</P>
<P>Nitrogen Fixation</P>
<P>Mycorrhizal Symbiotic Association</P>
<P>Actinomycetes</P>
<P>Aquatic Molds</P>
<P>Fungi</P>
<P>Rhizosphere</P>
<P>Microbial Production of Citric Acid by <I>Aspergillus niger</P></I>
<P>Isolation of Industrially Important Antibiotic Producing Microorganisms</P>
<P>Assay of Antibiotics and Demonstration of Antibiotic Resistance</P>
<P>Characterize and Identify Aflatoxin by Thin-Layer Chromatography</P>
<P>Protozoa</P>
<P>Observation of Microscopic Invertebrates from Pond Water</P>
<P>Observation of Algae from Pond Water</P>
<P>Microscopic Examination of Soil Microbes</P>
<P>Bacteria Frequently Isolated from Soil</P>
<P>Fungi Frequently Isolated from Soil</P>
<P>Appendices</P>
<P>Suggested Reading</P>
<P>Important Links</P><STRONG>
<P>Virology</P></STRONG>
<P>Introduction</P>
<P>Isolation of Bacteriophage from Sewage</P>
<P>Preparation of High Titer of Bacteriophage of Isolated Bacterial Virus</P>
<P>One-Step Growth Curve of Coliphage and Determining the Number of Phage Particles Released by the Lysis of the Single Infected Bacterial Cell (Burst Size)</P>
<P>Demonstration of Lysogeny and Isolation of Rhizobium Phage</P>
<P>Isolation of Cyanophage LPP from Pond Water</P>
<P>Demonstration for the Presence of Actinophages in Soil</P>
<P>Isolation of Phage from Flies</P>
<P>Virus Culture in Embryonating Chicken Eggs</P>
<P>Extraction and Isolation of Tobacco Mosaic Virus</P>
<P>Cultivation of Viruses in Tissue Culture</P>
<P>Viral Hemagglutination Test for the Presence of Antigens</P>
<P>Suggested Readings</P><STRONG>
<P>Immunochemical Methods</P></STRONG>
<P>Introduction</P>
<P>Immunity</P>
<P>Ags</P>
<P>Antigenic Determinant or Epitope</P>
<P>Haptens</P>
<P>Specificity</P>
<P>T-Cell Dependent (TD) and T-Cell Independent (TI) Ags</P>
<P>Immunoglobulins</P>
<P>IG Determinants</P>
<P>Ig Classes</P>
<P>Monoclonal Antibodies</P>
<P>Polyclonal Antibodies</P>
<P>Ag-Ab Reaction</P>
<P>Determination of Ag-Ab Reactions</P>
<P>Collection of Blood Sample</P>
<P>Experiment: To Determine the ABO Blood Group by Using Slide Agglutination Test</P>
<P>Experiment: Determination of RH Factor in Human Being</P>
<P>Experiment: Demonstration of Agglutination Reaction of Unknown Bacterial Culture by Slide Agglutination Technique</P>
<P>Experiment: Estimate the Total Leukocyte Count by Hemocytometer</P>
<P>Experiment: Determine the Differential Count of WBCs (Leucocyte) by Staining Method</P>
<P>Experiment: Determine the Total Erythrocyte Count by Hemocytometer</P>
<P>Experiment: Lymphoid Cells Identification in Blood Smears</P>
<P>Experiment: Spleen Cell Preparation from Mouse</P>
<P>Experiment: Identification of Lymphocyte Populations</P>
<P>Experiment: Isolation of Monocytes by Adherence</P>
<P>Experiment: Isolation of Neutrophils</P>
<P>Experiment: Isolation of Human Basophils</P>
<P>Experiment: Isolation of Tissue Mast Cells</P>
<P>Experiment: Measurement of Percent ?-Glucuronidase Secretion</P>
<P>Experiment: Generation of Polyclonal Antibodies in Rabbits</P>
<P>Experiment: Gel Diffusion/Ouchterlony Immunodiffusion</P>
<P>Experiment: Demonstration of Radial Immunodiffusion</P>
<P>Experiment: Counter Current Immunoelectrophoresis</P>
<P>Experiment: Serum Electrophoresis</P>
<P>Experiment: Demonstration of Immunoelectrophoresis</P>
<P>Experiment: Determination of Albumin by Laurell Rocket Immunoelectrophoresis</P>
<P>Experiment: Purification of Igs BY ION Exchange Chromatography</P>
<P>Experiment: The Detection and Assay of a Myeloma Protein</P>
<P>Experiment: ELISA</P>
<P>Experiment: Pregnancy Testing by Using the Immunological Methods</P>
<P>Experiment: HIV DOT Test of AIDS Patients</P>
<P>Experiment: Demonstration of Immunofluorescence Assay</P>
<P>Experiment: Identification of Bacteria by Using Fluorescent Ab Technique (FAT)</P>
<P>Experiment: Immunofluorescence Labeling of Cultured Cells</P>
<P>Experiment: Isolation of IgG from Serum</P>
<P>Experiment: Purification of IgM</P>
<P>Suggested Reading</P>
<P>Important Links</P><STRONG>
<P>Genetic Engineering</P></STRONG>
<P>Introduction</P>
<P>Tools of Genetic Engineering</P>
<P>DNA Sequencing</P>
<P>Isolation of Genomic DNA from <I>E coli</P></I>
<P>Rapid Method for Isolating Plasmid DNA from Yeast</P>
<P>Isolation of Plasmid DNA from Yeast (Protocol 1)</P>
<P>Isolation of Yeast Plasmid DNA (Protocol 2)</P>
<P>Isolation of Drosophila Genomic DNA</P>
<P>Determination of ?max Value of the Isolated DNA Sample</P>
<P>Determination of the Purity of the Isolated DNA Sample</P>
<P>Determine the Quantity of DNA in the Sample</P>
<P>To Perform Agarose Gel Electrophoresis for the Given DNA Sample</P>
<P>Isolation of Plasmid DNA from Given Bacterial Culture</P>
<P>Electrophoresis of DNA: Linear, Circular, and Super Coiled</P>
<P>To Perform Restriction Digestion of the Given DNA Sample</P>
<P>To Demonstrate Ligation</P>
<P>Elution of DNA from Agarose Gel</P>
<P>Purification of Phage ? DNA</P>
<P>To Perform Restriction Digestion of Plasmid DNA with Different Restriction Endonucleases and to Determine the Position of Restriction Site Using Restriction Mapping</P>
<P>To Perform Transformation</P>
<P>Directional Cloning Into Plasmid Vectors</P>
<P>To Assay Reporter Chloramphenicol Acetyltransferase Gene</P>
<P>To Assay ss-Gal in Extracts of Mammalian Cells</P>
<P>Determination of Nucleotide Sequence of DNA by Dideoxy Chain Termination Method</P>
<P>Amplification of 16S rDNA Genes by the Polymerase Chain</P>
<P>PCR from Fungal Spores/AMF (Arbuscular Mycorrhizal Fungi)</P>
<P>To Demonstrate the Nested PCR Reaction</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Molecular Biology</P></STRONG>
<P>Introduction</P>
<P>Isolation of Nucleic Acids from Biological Samples</P>
<P>Demonstration of Southern Blotting</P>
<P>Demonstration of Experiment on RFLP Analysis</P>
<P>Restriction Fragment Length Polymorphism</P>
<P>Isolation of RNA from Biological Sample</P>
<P>Extraction of Polysomal RNA of Nuclear Sequences</P>
<P>Separation of RNA Species by Ion-Exchange Column Chromatography on Methylated Albumin Kiesselguher Columns</P>
<P>Northern Hybridization of RNA Fractionated by Agarose Formaldehyde Gel Electrophoresis</P>
<P>Preparation of Radiolabeled Probe by Random Primer Method</P>
<P>Detection of Specific Fragment of Plant DNA from Restriction Digest by Hybridization with a Labeled Probe</P><I>
<P>In Vitro</I> Transcription</P><I>
<P>In Vitro</I> Translation of RNA</P>
<P>Reticulocytes and Their Use in the Study of Protein Synthesis</P>
<P>Protein Synthesis in Intact Rabbit Reticulocytes</P>
<P>Metabolic Labeling of Proteins and Immunoprecipitation</P>
<P>Induction of ss-Galactosidase in Strains of <I>E coli</P></I>
<P>Effect of Different Inducers on the Induction of ss-Galactosidase</P>
<P>Effect of Protein Synthesis Inhibitors on the Induction of ss-Galactosidase</P>
<P>Turnover of ss-Galactosidase</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Biosensors</P></STRONG>
<P>Introduction</P>
<P>Biosensor</P>
<P>Classification of Biosensors</P>
<P>Characteristics of Biosensors</P>
<P>Components of Biosensors</P>
<P>Biochip</P>
<P>Immunobiosensor</P>
<P>Aptamers</P>
<P>SPR Technology</P>
<P>Working Principle of Biosensors</P>
<P>Immunosensors</P>
<P>Calorimetric Biosensors</P>
<P>Potentiometric Biosensors</P>
<P>Amperometric Biosensors</P>
<P>Optical Biosensors</P>
<P>Piezoelectric Biosensors</P>
<P>Second-Generation Biosensors</P>
<P>Third-Generation Biosensors</P>
<P>Biosensor for Healthcare</P>
<P>Conclusion and Future Challenges</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Enzyme Immobilization</P></STRONG>
<P>Introduction</P>
<P>Selection of Carrier and Support before Immobilization</P>
<P>Carriers for Enzyme Immobilization</P>
<P>Limitations and Advantages of Enzyme Immobilization</P>
<P>Methods of Immobilizations</P>
<P>Cross-Linking</P>
<P>Entrapment Method</P>
<P>Whole-Cell Immobilization</P>
<P>Industrial Application of Enzymes</P>
<P>Experiment Cell Immobilization by Using Alginate</P>
<P>Experiment Immobilization of Enzyme Horseradish</P>
<P>Peroxidase (Donor: H<SUB>2</SUB>O<SUB>2</SUB>Oxidoreductase; EC 1.11.1.7) by</P>
<P>Aminoantipyrine-Phenol Assay</P>
<P>Suggested Readings</P><STRONG>
<P>Plant Tissue Culture</P></STRONG>
<P>Introduction</P>
<P>Facilities</P>
<P>Glassware Preparation</P>
<P>Sterilization</P>
<P>Wet Heat Sterilization</P>
<P>Dry Sterilization</P>
<P>Filter Sterilization</P>
<P>Media Preparation</P>
<P>Preparation of Stock Solution</P>
<P>Protocol</P>
<P>Sterilization of Media</P>
<P>Aseptic Manipulation</P>
<P>Sterile Transfer Facilities</P>
<P>Temperature</P>
<P>Light</P>
<P>Aeration</P>
<P>Temperature</P>
<P>Plant Cell Culture System</P>
<P>Explants</P>
<P>Calluses</P>
<P>Cell Suspension</P>
<P>Protoplast</P>
<P>Surface Sterilization</P>
<P>Common Culture Media</P>
<P>Sterilization of Plant Materials</P>
<P>Introduction</P>
<P>Materials</P>
<P>Protocol</P>
<P>Observation and Result</P>
<P>Preparation of Tissue Culture Media</P>
<P>Organ Culture</P>
<P>Callus Propagation</P>
<P>Single Cell Culture</P>
<P>Preparation and Fusion of Protoplasts</P>
<P>Protocols on Protoplast Fusion</P>
<P>Fusion Products: Hybrids and Cybrids</P>
<P>Methods of Somatic Hybridization</P>
<P>Protoplast Fusion (Somatic Cell Hybridization)</P>
<P>Electrofusion Isolation of Oat and Corn Protoplast</P>
<P>Culture of Protoplasts</P>
<P>Other Protocols</P>
<P>Somatic Embryogenesis</P>
<P>Production of Haploid Plants</P>
<P>Embryo Encapsulation: Production of Artificial Seeds</P>
<P>Cytological Examination of Regenerated Plants</P>
<P>Demonstration of Root Hair Culture of Different Explants Source of Cereal Using <I>Agrobacterium rhizogenes</P></I>
<P>Experiment Demonstration of Root Hair Culture of Different Explants Using Arbuscular Mycorrhizal Fungi</P>
<P>Useful Secondary-Metabolite Production from Plant Tissue Culture</P>
<P>Genetic Transformation of Plants through <I>Agrobacterium tumefaciens</I> as Cloning Vector</P>
<P>Assay of ss-Glucuronidase in Transformed Plant Tissue</P>
<P>Random Amplified Polymorphic DNA Analysis</P>
<P>Efficiency of Rhizobia for Nodulation in Leguminous Crops</P>
<P>Seed Inoculation with Rhizobia</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Animal Cell Science and Technology</P></STRONG>
<P>Introduction</P>
<P>Chronology of Cell Culture Development</P>
<P>Cell Culture Laboratory</P>
<P>Culture Medium</P>
<P>Cell Subculturing</P>
<P>Cell Quantification</P>
<P>Seeding Cells onto Culture Plates</P>
<P>Maintenance of Cells in Culture</P>
<P>Growth Kinetics of Animal Cells in Culture</P>
<P>Cryopreservation of Cells</P>
<P>Resuscitation of Frozen Cells</P>
<P>Determination of Cell Viability</P>
<P>Safety Considerations in Cell Culture</P>
<P>Aseptic Techniques and Good Cell Culture Practice</P>
<P>Preparation of Tissue Culture Medium</P>
<P>Preparation of Single Cell Suspension of Spleen and Thymus</P>
<P>Cell Counting</P>
<P>Cell Viability Assay</P>
<P>Estimation of Viability by Dye Uptake</P>
<P>Macrophage Monolayer from PEE and Measurement of Phagocytic Activity</P>
<P>Trypsinization of Monolayer and Subculturing</P>
<P>Cryopreservation</P>
<P>Thawing</P>
<P>Role of Serum in Cell Culture</P>
<P>Metaphase Chromosome Preparation from Cultured Cells</P>
<P>Isolation of DNA and Demonstration of Apoptosis of DNA Laddering</P>
<P>Demonstration of Apoptosis of DNA Laddering</P>
<P>MTT Assay for Cell Viability and Growth</P>
<P>Cell Fusion by PEG</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Bioprocess Engineering</P></STRONG>
<P>Introduction</P>
<P>Isolation of Industrially Important Microorganisms</P>
<P>Determination of Thermal Death Point and Thermal Death Time of Microorganisms for Design of a Sterilizer</P>
<P>Determination of Ethanol Production Using Different Substrates</P>
<P>Sugar Fermentation by Yeast (<I>S. cerevisiae</I>) for Production of Ethanol and Cell Biomass Using Laboratory Fermenter of 2 L capacityMeasurement of Yeast Biomass Using Hemocytometer Technique</P>
<P>Study Fermentation Process for Lactic Acid Production by <I>Streptococcus thermophilus</I> and Cell Biomass</P>
<P>Microbial Production of Citric Acid Using <I>Aspergillus niger</P></I>
<P>Microbial Production of Antibiotics (Penicillin)</P>
<P>Production of Vinegar (Acetic Acid)</P>
<P>Demonstration of Wine Production Using Grape Wine Juice</P>
<P>Production and Manufacture of Beer</P>
<P>Production and Estimation of Alkaline Protease</P>
<P>Mushroom Production Technology</P>
<P>Identification of Mushrooms by Spore Print Method</P>
<P>Isolation and Maintenance of Mushroom Culture</P>
<P>Production of Spawn for White Button Mushroom (A. brunnescens syn A.bisporus)</P>
<P>Cultivation of White Button Mushroom (<I>A. brunnescens = A. bisporus</I>)</P>
<P>Cultivation of <I>G. lucidum</I> (Ling Zhi)</P>
<P>Cultivation of <I>L. edodes</P></I>
<P>Cultivation of Paddy Straw Mushroom (<I>V. volvacea</I>)</P>
<P>Cultivation Method of Oyster Mushroom</P><STRONG>
<P>Environmental Biology</P></STRONG>
<P>Wastewater Treatment Process</P>
<P>Measurement of pH</P>
<P>Measurement of Alkalinity of Water</P>
<P>Measurement of DO of Water</P>
<P>Measurement of Chloride in Water</P>
<P>Measurement of Nitrate in Water</P>
<P>Measurement of Nitrite in Water</P>
<P>Measurement of Ammonia in Water</P>
<P>Measurement of Total Phosphorus in Water</P>
<P>Measurement of Inorganic Phosphate in Water</P>
<P>Measurement of Sulfate in Water</P>
<P>Measurement of Sulfide in Water</P>
<P>Measurement of Calcium and Magnesium in Water</P>
<P>Detection of Coliforms for the Determination of the Purity of Potable Water</P>
<P>Determination of Total Dissolved Solids of Water</P>
<P>Determination of DO Concentration of Water by Winkler's Iodometric Method</P>
<P>Determination of Biochemical Oxygen Demand of Sewage Water</P>
<P>Determination Chemical Oxygen Demand Sewage Sample</P>
<P>Determination of the Efficiency of Removal of Air Pollutant, Using Fibrous Air Filter</P>
<P>Isolation of Xenobiotic-Degrading Bacteria</P>
<P>Degradation of Aromatic Hydrocarbons by Bacteria</P>
<P>Survey of Degradative Plasmids in Microbes Growing in Polluted Environment</P>
<P>Effect of SO<SUB>2</SUB> on Crop Plants</P>
<P>Estimation of Heavy Metals in Water/Soil by Atomic Absorption Spectrophotometry</P>
<P>Preliminary Digestion for Metals</P>
<P>Estimation of Metals</P>
<P>Flame AAS</P>
<P>Measurement of Aluminum in Soil/Water Sample</P>
<P>Measurement of Arsenic in Soil/Water Sample</P>
<P>Measurement of Cadmium in Soil/Water Sample</P>
<P>Measurement of Mercury in Soil/Water Sample</P>
<P>Study on Biogenic Methane Production in Different Habitats (Biogas)</P>
<P>Suggested Readings</P>
<P>Important Links</P><STRONG>
<P>Bioinformatics</P></STRONG>
<P>Introduction</P>
<P>Development</P>
<P>Nucleotide Sequence Databases</P>
<P>Protein Sequence Databases</P>
<P>Biomolecular Structure Databases</P>
<P>Pair-Wise Sequence Alignment</P>
<P>Detection of CpG Island for Nucleotide Sequence</P>
<P>Detection of Gene Structure of DNA Sequence</P>
<P>Translation of Nucleotide Sequence to Protein Sequence</P>
<P>Reports of Various Chemical and Physical Properties of Protein Sequence</P>
<P>Database Search "Blast"</P>
<P>Phylogenetic Analysis</P>
<P>Molecular Pathways Database</P>
<P>Proteomics</P>
<P>Metabolomics</P>
<P>Genomics</P>
<P>Bioinformatics Approaches for DNA-Based Signatures of Species/Populations/Breeds/Races/Variety/Strains</P>
<P>DNA-Based Signature of Plant Variety (Example, Basmati Rice)</P>
<P>DNA-Based Bar-Coded Signature of Fishes</P>
<P>Bioinformatics Tool and Protocol for SNP/STR Signatures</P>
<P>FastPCR</P>
<P>Suggested Readings</P>
<P>Important Links</P>
<P>Appendices</P>
<P>Glossary</P>
<P>Index</P>