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Library | Item Barcode | Call Number | Material Type | Item Category 1 | Status |
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Searching... | 30000010234055 | RC632.P7 P763 2010 | Open Access Book | Book | Searching... |
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Summary
Summary
An increasingly aging population will add to the number of individuals suffering from amyloid. Protein Misfolding Diseases provides a systematic overview of the current and emerging therapies for these types of protein misfolding diseases, including Alzheimer's, Parkinson's, and Mad Cow. The book emphasizes therapeutics in an amyloid disease context to help students, faculty, scientific researchers, and doctors working with protein misfolding diseases bridge the gap between basic science and pharmaceutical applications to protein misfolding disease.
Author Notes
Marina Ramirez-Alvarado is an Assistant Professor of Biochemistry and Molecular Biology at the Mayo Clinic. Despite being a young investigator, she is already a world leader in the study of molecular determinants of light chain amyloidosis, a rare misfolding disease.
Jeffery W. Kelly is a Professor of Chemistry and Molecular and Experimental Medicine at the Scripps Research Institute. He is one of the leading authorities in the field of protein misfolding, with over 250 publications to his credit.
Christopher M. Dobson is a Professor in the Department of Chemistry at the University of Cambridge. Dr. Dobson is a leading researcher studying the structural and biochemical bases of protein misfolding diseases and has over 500 publications.
Table of Contents
Contributors | p. xi |
Foreword | p. xix |
Preface | p. xxv |
Acknowledgments | p. xxvii |
Introduction to the Wiley Series on Protein and Peptide Science | p. xxix |
Part I Principles of Protein Misfolding | |
1 Why Proteins Misfold | p. 3 |
2 Endoplasmic Reticulum Stress and Oxidative Stress: Mechanisms and Link to Disease | p. 21 |
3 Role of Molecular Chaperones in Protein Folding | p. 47 |
4 Kinetic Models for Protein Misfolding and Association | p. 73 |
5 Toxicity in Amyloid Diseases | p. 93 |
6 Autophagy: An Alternative Degradation Mechanism for Misfolded Proteins | p. 113 |
7 Role of Posttranslational Modifications in Amyloid Formation | p. 131 |
8 Unraveling Molecular Mechanisms and Structures of Self-Perpetuating Prions | p. 145 |
9 Caenorhabditis elegans as a Model System to Study the Biology of Protein Aggregation and Toxicity | p. 175 |
10 Using Drosophila to Reveal Insight into Protein Misfolding Diseases | p. 191 |
11 Animal Models to Study the Biology of Amyloid-ß Protein Misfolding in Alzheimer Disease | p. 213 |
Part II Protein Misfolding Disease: Gain-of-Function and Loss-of-Function Diseases | |
12 Alzheimer Disease: Protein Misfolding, Model Systems, and Experimental Therapeutics | p. 233 |
13 Prion Disease Therapy: Trials and Tribulations | p. 259 |
14 Misfolding and Aggregation in Huntington Disease and Other Expanded Polyglutamine Repeat Diseases | p. 305 |
15 Systemic Amyloidoses | p. 325 |
16 Hemodialysis-Related Amyloidosis | p. 347 |
17 Copper-Zinc Superoxide Dismutase, its Copper Chaperone, and Familial Amyotrophic Lateral Sclerosis | p. 381 |
18 Alpha-1-Antitrypsin Deficiency | p. 403 |
19 Folding Biology of Cystic Fibrosis: A Consortium-based Approach to Disease | p. 425 |
20 Thiopurine S-Methyltransferase Pharmacogenomics: Protein Misfolding, Aggregation, and Degradation | p. 453 |
21 Gaucher Disease | p. 469 |
22 Cataract as a Protein-Aggregation Disease | p. 487 |
23 Islet Amyloid Polypeptide | p. 517 |
Part III Role of Accessory Molecules and Risk Factors | |
24 Role of Metals in Alzheimer Disease | p. 545 |
25 Why Study the Role of Heparan Sulfate in In Vivo Amyloidogenesis? | p. 559 |
26 Serum Amyloid P Component | p. 571 |
27 Role of Oxidatively Stressed Lipids in Amyloid Formation and Toxicity | p. 585 |
28 Role of Oxidative Stress in Protein Misfolding and/or Amyloid Formation | p. 615 |
29 Aging and Aggregation-Mediated Proteotoxicity | p. 631 |
Part IV Medical Aspects of Disease: Diagnosis and Current Therapies | |
30 Imaging of Misfolded Proteins | p. 647 |
31 Diagnosis of Systemic Amyloid Diseases | p. 673 |
32 Identification of Biomarkers for Diagnosis of Amyloid Diseases: Quantitative Free Light-Chain Assays | p. 689 |
33 Real-Time Observation of Amyloid-ß Fibril Growth by Total Internal Reflection Fluorescence Microscopy | p. 699 |
34 Current and Future Therapies for Alzheimer Disease | p. 711 |
35 Current Therapies for Light-Chain Amyloidosis | p. 775 |
36 Familial and Senile Amyloidosis Caused by Transthyretin | p. 795 |
37 Identifying Targets in ¿-Synuclein Metabolism to Treat Parkinson Disease and Related Disorders | p. 817 |
38 Emerging Molecular Targets in the Therapy of Dialysis-Related Amyloidosis | p. 843 |
39 Familial Amyloidosis Caused by Lysozyme | p. 867 |
40 Therapeutic Prospects for Polyglutamine Disease | p. 887 |
Part V Approaches for New and Emerging Therapies | |
41 Chemistry and Biology of Amyloid Inhibition | p. 905 |
42 Immunotherapy in Secondary and Light-Chain Amyloidosis | p. 917 |
43 Anti-Misfolding and Anti-Fibrillization Therapies for Protein Misfolding Disorders | p. 933 |
44 Therapies Aimed at Controlling Gene Expression, Including Up-Regulating a Chaperone or Down-Regulating an Amyloidogenic Protein | p. 945 |
45 Understanding and Ameliorating the TTR Amyloidoses | p. 967 |
Index | p. 1005 |