Overview
- Editors:
-
-
Farid Rahimi
-
, Research School of Biology, Australian National University, Canberra, Australia
-
Gal Bitan
-
, Neurology, University of California at Los Angeles, Los Angeles, USA
- An up-to-date review of protein-misfolding diseases which will serve as a complete reference point for readers
- Up-to-date chapters that discuss different diseases associated with protein misfolding and neurodegeneration
- A good reference collection for a broad spectrum of readers
Access this book
Other ways to access
Table of contents (14 chapters)
-
Front Matter
Pages i-viii
-
-
- Harry V. Vinters, Spencer Tung, Orestes E. Solis
Pages 37-60
-
- Anat Frydman-Marom, Yaron Bram, Ehud Gazit
Pages 61-102
-
- Kyle C. Wilcox, Jason Pitt, Adriano Sebollela, Helen Martirosova, Pascale N. Lacor, William L. Klein
Pages 103-133
-
- Kiran Bhaskar, Bruce T. Lamb
Pages 135-188
-
- Dong-Pyo Hong, Wenbo Zhou, Aaron Santner, Vladimir N. Uversky
Pages 189-216
-
- Theri Leica Degaki, Dahabada H. J. Lopes, Mari Cleide Sogayar
Pages 217-255
-
- Aaron Kerman, Avijit Chakrabartty
Pages 257-288
-
- Giuseppe Legname, Gabriele Giachin, Federico Benetti
Pages 289-317
-
- Rodrigo Morales, Claudia A. Duran-Aniotz, Claudio Soto
Pages 319-335
-
- Regina M. Murphy, Robert H. Walters, Matthew D. Tobelmann, Joseph P. Bernacki
Pages 337-375
-
- John P. Hodkinson, Alison E. Ashcroft, Sheena E. Radford
Pages 377-405
-
- Maria João Saraiva, Isabel Santos Cardoso
Pages 407-432
-
- Jennifer D. Lanning, Stephen C. Meredith
Pages 433-560
-
Back Matter
Pages 561-565
About this book
Amyloid-forming proteins are implicated in over 30 human diseases. The proteins involved in each disease have unrelated sequences and dissimilar native structures, but they all undergo conformational alterations to form fibrillar polymers. The fibrillar assemblies accumulate progressively into disease-specific lesions in vivo. Substantial evidence suggests these lesions are the end state of aberrant protein folding whereas the actual disease-causing culprits likely are soluble, non-fibrillar assemblies preceding the aggregates. The non-fibrillar protein assemblies range from small, low-order oligomers to spherical, annular, and protofibrillar species. Oligomeric species are believed to mediate various pathogenic mechanisms that lead to cellular dysfunction, cytotoxicity, and cell loss, eventuating in disease-specific degeneration and systemic morbidity. The particular pathologies thus are determined by the afflicted cell types, organs, systems, and the proteins involved. Evidence suggests that the oligomeric species may share structural features and possibly common mechanisms of action. In many cases, the structure–function interrelationships amongst the various protein assemblies described in vitro are still elusive. Deciphering these intricate structure–function correlations will help understanding a complex array of pathogenic mechanisms, some of which may be common across different diseases albeit affecting different cell types and systems.
Editors and Affiliations
-
, Research School of Biology, Australian National University, Canberra, Australia
Farid Rahimi
-
, Neurology, University of California at Los Angeles, Los Angeles, USA
Gal Bitan