semester of organic chemistry are assumed as preparation. Noted for their ability to demonstrate the connection between biochemistry and students' lives, authors Mary Campbell and Shawn Farrell draw students into the material with stellar coverage of the latest research. The standard-setting illustration program enhances students understanding. The flexible organization of the text can be changed to suit the needs of specific courses and students, depending on the instructor's preference.Part I: AN INTRODUCTION TO BIOCHEMISTRY. 1. Biochemistry and the Organization of Cells. 2. Water: The Solvent for Biochemical Reactions. Part II: COMPONENTS OF CELLS: STRUCTURE AND FUNCTION. 3. Amino Acids and Peptides. 4. The Three-Dimensional Structure of Proteins. Interchapter A: Protein Purification and Characterization Techniques. 5. The Behavior of Proteins: Enzymes. 6. The Behavior of Proteins: Enzymes, Mechanisms and Control. 7. Lipids and Proteins Are Associated in Biological Membranes. Part III: THE WORKINGS OF THE GENETIC CODE. 8. Nucleic Acids: How Structure Conveys Information. 9. Replication of the Genetic Code: The Biosynthesis of DNA. 10. Transcription of the Genetic Code: The Biosynthesis of RNA. 11. Protein Synthesis: Translation of the Genetic Code. Interchapter B: Nucleic Acid Biotechnology Techniques. Part IV: ENERGETICS AND METABOLISM: CARBOHYDRATES, LIPIDS, AND COMPOUNDS OF NITROGEN. 12. The Importance of Energy Changes and Electron in Metabolism. 13. Carbohydrates. 14. Glycolysis. 15. Storage Mechanisms and Control in Carbohydrate Metabolism. 16. The Citric Acid Cycle. 17. Electron Transport and Oxidative Phosphorylation. 18. Lipid Metabolism. 19. Photosynthe@&³33333ÿ¾Û€  (less)

an example-driven approach, the fundamentals of creating mutations in DNA, cloning in bacteria, yeast, plants and animals are all clearly presented.<p>Strong emphasis is placed on the latest, post genomic technologies including DNA macro and microarrays, genome-wide two hybrid analysis, proteomics and bioinformatics.<ul><li>A modern post-genome era introduction to key techniques used in genetic engineering.<li>An example driven past-to-present approach to allow the experiments of today to be placed in an historical context<li><div>The book is beautifully illustrated in full-colour throughout.</div><li><div>Associated website including updates, additional content and illusions&#160;</div></ul>Preface.<p>Acknowledgements.<p>Dedication.<p>1. DNA: structure and function.<p>1.1 Nucleic acid is the material of heredity.<p>1.2 Structure of nucleic acids.<p>1.3 The double helix.<p>1.4 Reversible denaturing of DNA.<p>1.5 Structure of DNA in the cell.<p>1.6 The eukaryotic nucleosome.<p>1.7 The replication of DNA.<p>1.8 DNA polymerases.<p>1.9 The replication process.<p>1.10 Recombination.<p>1.11 Genes and genomes.<p>1.12 Genes within a genome.<p>1.13 Transcription.<p>1.14 RNA processing.<p>1.15 Translation.<p>2. Basic techniques in gene analysis.<p>2.1 Restriction enzymes.<p>2.2 Joining DNA molecules.<p>2.3 The basics of cloning.<p>2.4 Bacterial transformation.<p>2.5 Gel electrophoresis.<p>2.6 Nucleic acid blotting.<p>2.7 DNA purification.<p@t  (less)

programmed cell death, and aging.This title employs biochemical, cell biological, and genetic approaches to study mitochondrial structure, function, and biogenesis. Also of interest are the consequences of impaired mitochondrial function on cells, tissues, and organs. The book is full of step-by-step "how to" methods with sample results, interpretations, and pitfalls. There is a unique set of appendices that include gene catalogs, mtDNA maps, and reagents for probing respiratory chain function. Finally, there are applications of state-of-the art microarray and gene chip technologies.  (less)

is studied at several levels, and its modes of transcription and replication are analyzed. Chromatin provides researchers with a critical evaluation of current knowledge. It combines much information that has never before been assembled, and evaluates and interrelates it in a critical way. This has not been done before so that readers are not only provided with an overview, but with extensive references to the literature (there are about 2000 references in all).  (less)

includes antisense techniques such as: analysis of nucleic acid structures; measurement and evaluation of antisense effects; selection, preparation, and the use of antisense oligonucleotides; in vitro RNA transcription; construction strategies, testing and optimization of catalytic antisense RNAs based on hammerhead ribozymes; synthesis and evaluation of 2-5 A- antisense chimeras for targeted degradation of RNA. The numerous hints and tips for success and advice on trouble shooting, make this authoritative text invaluable to all those researchers who work on gene expression, RNA transcription, or protein function.br1. Nucleic acid structuresbr2. Evaluation of antisense effectsbr3. Selecting, preparing, and handling antisense oligodeoxyribonucleotidesbr4. In vitro RNAsbr5. Catalytic antisense RNA based on hammerhead ribozymesbr6. 2-5 A-Antisense chimaeras for targeted degradation of RNAbr7. In vitro applications of antisense RNA and DNAbr8. Antisense applications in Dictyostelium: a lower eukaryotic model systembr9. Applications of antisense technology in plantsbr10. Antisense molecules and ribozymes: medical applicationsbr11. Non-antisense effects of oligodeoxynucleotidesbr12. Antisense rescuebr13. Shotgun antisense mutantsbr14. Detection of sense-antisense duplexes by structure-specific anti-RNA antibodiesbr  (less)

features of the biological entities (proteins, nucleic acids, etc.), (ii) application of computational tools and approaches to study of information content, organization, and processing in biological systems, (iii) application of medical and health data at the molecular level (biomedinformatics), annotation of structural and chemical characteristics in molecular and drug design (cheminformatics). Thus, it requires trans-disciplinary collaboration between biophysicists, drug chemists, molecular biologists, biomedical and computer-aided modeling experts. Acquisition of high-throughput biological data (e.g. from the genomic projects) at fast rate has ushered in computer-intensive data analysis (in silico analysis). But, considerable ""algorithmic"" complexity of biological systems requires a vast of amount of detailed information (experimental and computational) at the cellular and molecular levels for their complete description. Therefore, there is a need for books in this subject with due emphasis on both experimental as well as computational aspects. With these broad objectives in mind, the material contents of this book are organized under-molecular biophysics, experimental methods of structure elucidation, database search, data mining and analysis, computational methods of structure prediction, and rational molecular/drug design (molecular engineering) and validation, with easy interface between these areas and various chapters. Ample tables and figures are intended to facilitate the readers an insight to the structure-function features at the molecular level. Exercise modules and bibliography for each chapter, and glossary are aimed at providing the reader wider p"  (less)

motivation for a deeper understanding of the driving forces that determine biological interactions. Because molecular explanations of biological phenomena as inferred from structural information must be informed by and consistent with the laws and principles of thermodynamics, a thorough understanding of biological function requires approaches well balanced between structure and energetics. Topics covered in this book are protein and nucleic acid folding and stability, enzyme-substrate interactions, prediction of the affinity of complexes, electrostatics, and non-equilibrium aspects of protein function. The breadth of the topics covered illustrates the growing importance of thermodynamic approaches in the study of biological phenomena. As more information continues to emerge from structural studies, and faster and more accurate computational methods are developed, we will look at biological thermodynamics with renewed interest as a fundamental tool to decipher the rules for specificity and function in proteins and nucleic acids.brContributorsbr1. Microscopic basis of macromolecular thermodynamics, Themis Lazaridis and Martin Karplusbr2. Thermodynamic dissection of cooperativity in ligand recognition, Thierry Rose and Enrico Di Cerabr3. Affinity prediction: the sine qua non, Garland R. Marshall, Richard D. Head, and Rino Ragnobr4. Electrostatic interactions in proteins and nucleic acids: theory and applications, Kim A. Sharpbr5. Thermodynamics of formation of secondary structure in nucleic acids, Ignacio Tinoco, Jr., and Michael Schmitzbr6. The application of thermodynamics to the modeling of RNA secondary structure, David H. Mathews, Joshua M. Diamond, and @dР (less)