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Library | Materyal Türü | Barkod | Yer Numarası | Durum |
|---|---|---|---|---|
Searching... Pamukkale Merkez Kütüphanesi | Kitap | 0033988 | TP248.65.F66J64 2002 | Searching... Unknown |
Searching... Pamukkale Merkez Kütüphanesi | Kitap | 0035123 | TP248.65.F66J64 2002 | Searching... Unknown |
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Universities throughout the US and the rest of the world offer Food Biotechnology courses. However, until now, professors lacked a single, comprehensive text to present to their students. Introduction to Food Biotechnology describes, explains, and discusses biotechnology within the context of human nutrition, food production, and food processing. Written for undergraduate students in Food Science and Nutrition who do not have a background in molecular biology, it provides clear explanations of the broad range of topics that comprise the field of food biotechnology.
Students will gain an understanding of the methods and rationales behind the genetic modification of plants and animals, as well as an appreciation of the associated risks to the environment and to public health. Introduction to Food Biotechnology examines cell culture, transgenic organisms, regulatory policy, safety issues, and consumer concerns. It covers microbial biotechnology in depth, emphasizing applications to the food industry and methods of large-scale cultivation of microbes and other cells. It also explores the potential of biotechnology to affect food security, risks, and other ethical problems.
Biotechnology can be used as a tool within many disciplines, including food science, nutrition, dietetics, and agriculture. Using numerous examples, Introduction to Food Biotechnology lays a solid foundation in all areas of food biotechnology and provides a comprehensive review of the biological and chemical concepts that are important in each discipline. The book develops an understanding of the potential contributions of food biotechnology to the food industry, and towards improved food safety and public health.
Table of Contents
| Chapter 1 The Scope of Food Biotechnology | p. 1 |
| I. Overview | p. 1 |
| II. What Is Biotechnology? | p. 3 |
| III. Recombinant DNA Technology | p. 4 |
| A. Gene Cloning | p. 4 |
| B. Transgenic Plants | p. 6 |
| C. Recombinant Microbes | p. 9 |
| D. Transgenic Animals | p. 11 |
| IV. Microbial Biotechnology | p. 11 |
| A. Perspectives | p. 11 |
| B. Traditional Microbial Biotechnology | p. 13 |
| C. Modern Microbial Biotechnology | p. 13 |
| V. Diagnostic Biotechnology | p. 13 |
| VI. Controversial Aspects of Food Biotechnology | p. 14 |
| VII. Food Security | p. 16 |
| Recommended Reading | p. 17 |
| Chapter 2 Tools of the Trade | p. 19 |
| I. The Heart of Biotechnology: Cell Biology | p. 19 |
| II. Bacteria | p. 19 |
| A. Bacterial Growth | p. 19 |
| B. Physiological Diversity | p. 21 |
| C. Bacterial Genetics | p. 23 |
| III. Fungi Are Also Useful and Varied | p. 25 |
| A. General Characteristics of Fungi | p. 25 |
| B. The Use of Fungi in Recombinant DNA Technology | p. 28 |
| IV. Viruses: Useful Parasites | p. 30 |
| A. The Nature of Viruses | p. 30 |
| V. DNA: The Heart of Biotechnology | p. 33 |
| A. DNA Structure | p. 33 |
| B. DNA Replication | p. 35 |
| C. Transcription of mRNA | p. 36 |
| D. Editing of RNA Transcripts in Eukaryotes | p. 37 |
| E. Translation of mRNA into Protein | p. 37 |
| F. Posttranslational Processing of Polypeptides | p. 38 |
| G. Relevance of DNA to Biotechnology | p. 39 |
| H. Working with DNA | p. 40 |
| 1. Purificiation of Nucleic Acids | p. 40 |
| 2. Gel Electrophoresis | p. 40 |
| 3. Blotting and Hybridization | p. 41 |
| 4. DNA Sequencing | p. 42 |
| Recommended Reading | p. 44 |
| Chapter 3 Gene Cloning and Production of Recombinant Proteins | p. 45 |
| I. What Is a Recombinant Protein? | p. 45 |
| II. Why Bother Making Recombinant Proteins? | p. 45 |
| III. How and Why Are Genes Cloned? (The Big Picture) | p. 47 |
| IV. Gene Cloning: The Detailed Picture | p. 49 |
| A. Restriction Enzymes | p. 49 |
| B. Plasmid Vectors | p. 51 |
| V. The cDNA Alternative | p. 57 |
| VI. Polymerase Chain Reaction: A Revolution in Cloning | p. 59 |
| A. Overview | p. 59 |
| B. The Mechanism of Amplification | p. 59 |
| C. PCR Is Not Perfect | p. 63 |
| D. Variations on PCR | p. 64 |
| VII. Alternative Vectors: pUC | p. 65 |
| VIII. Alternative Vectors: Phage Lambda | p. 67 |
| A. Lambda Cloning Vectors | p. 67 |
| B. Cosmids | p. 69 |
| IX. Artificial Chromosomes | p. 70 |
| X. Subcloning and Vector Diversity | p. 72 |
| XI. Recombinant Chymosin | p. 72 |
| A. Chymosin and Cheese Making | p. 72 |
| B. Inclusion Bodies | p. 74 |
| C. Recombinant Production by Yeast | p. 75 |
| XII. Recombinant Bovine Growth Hormone | p. 76 |
| Recommended Reading | p. 79 |
| Chapter 4 Plant Biotechnology | p. 81 |
| I. Overview | p. 81 |
| II. Plant Cell and Tissue Culture | p. 83 |
| A. Control of Plant Growth | p. 83 |
| B. The in vitro Life Cycle | p. 84 |
| C. Micropropagation | p. 86 |
| D. Plant Cell Culture and Traditional Plant Breeding | p. 86 |
| 1. Plant Breeding Basics | p. 86 |
| 2. Protoplast Fusion | p. 89 |
| 3. Somaclonal Variation: Problem or Opportunity? | p. 90 |
| III. Transgenic Plants | p. 91 |
| A. Overview | p. 91 |
| B. The Process of Making Transgenic Plants | p. 94 |
| C. Agrobacterium tumefaciens: A Natural DNA Vector | p. 97 |
| D. The Natural Life Cycle of Agrobacterium tumefaciens | p. 98 |
| E. The Use of A. tumefaciens to Create Transgenic Plants | p. 100 |
| F. Alternatives to A. tumefaciens | p. 102 |
| IV. Applications of Transgenic Plants to Food Production | p. 103 |
| A. Transgenics Resistant to Insect Pests | p. 103 |
| B. Pathogen Resistance | p. 107 |
| C. Herbicide Resistance | p. 110 |
| D. Delayed Ripening | p. 111 |
| E. Golden Rice | p. 115 |
| V. Transgenic Food Plants under Development | p. 119 |
| A. Agronomic Traits | p. 119 |
| 1. Disease Resistance | p. 120 |
| 2. Stress Resistance | p. 120 |
| B. Storage Proteins | p. 121 |
| C. Antinutrients and Other Undesirable Compounds | p. 121 |
| D. Proteins Important to Bread Making | p. 124 |
| E. Engineering Better Starch | p. 126 |
| F. Alternative Sweeteners | p. 126 |
| G. Increased Levels of Vitamins and Phytochemicals | p. 127 |
| H. Reducing or Eliminating Allergens | p. 129 |
| VI. Alternative Agricultural Technologies | p. 131 |
| Recommended Reading | p. 133 |
| Chapter 5 Animal Biotechnology | p. 137 |
| I. Overview | p. 137 |
| II. Transgenic Fish | p. 139 |
| III. Modified Milk Proteins | p. 142 |
| IV. The Search for Embryonic Stem Cells | p. 145 |
| V. Transfer of Somatic Nuclei: An Alternative to the Use of Embryonic Stem Cells | p. 148 |
| Recommended Reading | p. 149 |
| Chapter 6 Diagnostic Systems | p. 151 |
| I. Why are Diagnostic Systems Needed? | p. 151 |
| A. Overview and Global Perspective | p. 151 |
| B. Diagnostics and Hazard Analysis Critical Control Points (HACCP) | p. 153 |
| C. Nonpathogen Diagnostics | p. 156 |
| II. Diagnostic Biotechnology | p. 158 |
| A. Scope | p. 158 |
| B. Nucleic Acid Probes | p. 159 |
| C. Exploiting the Polymerase Chain Reaction | p. 162 |
| D. DNA Chips and Micro-Arrays | p. 163 |
| E. Antibody-Based Diagnostic Systems | p. 164 |
| 1. Applications of Antibodies to Diagnostics | p. 164 |
| 2. Manipulating the Immune Response | p. 168 |
| 3. Future Applications of Immuno-Assays | p. 171 |
| F. Luminescence and Diagnostics | p. 173 |
| 1. Hygiene Assessment | p. 173 |
| 2. Novel Applications of Luminescence | p. 173 |
| G. Biosensors | p. 174 |
| 1. Applications of Biosensors | p. 174 |
| 2. Types of Biosensors | p. 176 |
| Recommended Reading | p. 179 |
| Chapter 7 Cell Culture and Food | p. 181 |
| I. Overview | p. 181 |
| II. Brewing | p. 182 |
| A. Introduction | p. 182 |
| B. Malting | p. 185 |
| C. Mashing | p. 187 |
| D. Hops | p. 188 |
| E. Primary Fermentation | p. 189 |
| F. Secondary Fermentation | p. 190 |
| G. Biotechnological Improvements: Catabolite Repression | p. 191 |
| H. High-Gravity Brewing | p. 192 |
| I. The [beta]-Glucan Problem | p. 194 |
| J. Getting Rid of Diacetyl | p. 194 |
| III. Dairy Biotechnology | p. 195 |
| A. Introduction | p. 195 |
| B. Starter Cultures | p. 197 |
| C. Phage | p. 198 |
| D. Recombinant Lactic Acid Bacteria | p. 199 |
| 1. Improved Starters | p. 199 |
| 2. Recombinant Lactic Acid Bacteria as Vaccines | p. 201 |
| IV. Amino Acids: Nutritional Boosts and Flavor Enhancers | p. 202 |
| A. Overview | p. 202 |
| B. Choice of Microbe | p. 204 |
| C. Proline: Mutagenesis Leads to Overproduction | p. 208 |
| D. Glutamate: Natural Overproduction | p. 209 |
| E. Aspartate: Conversion by Immobilized Enzymes | p. 211 |
| F. Tryptophan and Eosinophilia-Myalgia Syndrome | p. 212 |
| V. Microbial Enzymes | p. 213 |
| A. Overview | p. 213 |
| B. Amylases | p. 215 |
| 1. Starch Processing | p. 215 |
| 2. Amylases and Baking | p. 218 |
| C. Lipases | p. 219 |
| D. Polygalacturonase | p. 220 |
| VI. Microbial Polysaccharides | p. 221 |
| A. Overview | p. 221 |
| B. Complex Polysaccharides | p. 222 |
| C. Xanthan Gum | p. 224 |
| 1. Structure and Characteristics | p. 224 |
| 2. Xanthomonas campestris | p. 225 |
| 3. Genetics of Xanthan Gum Biosynthesis | p. 225 |
| VII. Citric Acid and Vitamin Production | p. 226 |
| A. Uses of Citric Acid in Food | p. 226 |
| B. Production of Citric Acid by Aspergillus niger | p. 227 |
| C. Vitamin Production by Microorganisms | p. 228 |
| VIII. Development of Novel Microbial Products | p. 229 |
| Recommended Reading | p. 231 |
| Chapter 8 Industrial Cell Culture | p. 233 |
| I. Scale-Up of Cell Culture | p. 233 |
| II. Environmental Factors | p. 235 |
| A. Oxygen | p. 235 |
| B. pH | p. 240 |
| C. Temperature | p. 241 |
| D. Nutrient Supply | p. 243 |
| III. Types of Bioreactors | p. 246 |
| A. Stirred-Tank Bioreactors | p. 246 |
| B. Continuous Culture | p. 249 |
| 1. Advantages of Continuous Culture | p. 249 |
| 2. Disadvantages of Continuous Culture | p. 251 |
| 3. Continuous Culture in Operation | p. 251 |
| C. Immobilized Cells and Enzymes | p. 253 |
| 1. Immobilized Cells | p. 253 |
| 2. Immobilized Enzymes | p. 257 |
| IV. Downstream Processing | p. 258 |
| A. The Importance of Downstream Processing | p. 258 |
| B. Cell Lysis | p. 259 |
| C. Separating Solids from Liquids | p. 259 |
| D. Phase Changes | p. 261 |
| Recommended Reading | p. 262 |
| Chapter 9 Ethics, Safety, and Regulation | p. 265 |
| I. Overall Perspective | p. 265 |
| II. Consumer Perspectives and Food Biotechnology | p. 267 |
| III. Safety Assessment and Regulation of Transgenic Crops | p. 269 |
| A. Assessment Strategies | p. 269 |
| B. The Substantial Equivalence Debate | p. 271 |
| C. Risk Assessment of Novel Genetic Elements | p. 272 |
| D. Starlink Corn and Implications for Labeling and Trade Issues | p. 275 |
| IV. Assessment and Regulation of Diagnostic Tests | p. 276 |
| V. Biotechnology and the Developing World | p. 276 |
| VI. The Future of Food Biotechnology | p. 278 |
| Recommended Reading | p. 278 |
| Index | p. 281 |
