Proteomics in Cancer Research

Proteomics in Cancer Research
Edited by Daniel C. Liebler
Proteomics in Cancer Research covers both the basic principles of proteomics along with detailed presentations of new and emerging technology that represent promising breakthroughs in cancer prevention and treatment. The topics covered include:Basic concepts, including setting up a proteomics laboratory, mass spectrometry, protein separations, protein array technologies, and informatics toolsApplication of emerging technologies, to proteomic analysis of cancer cells and tissues, including discussion of critical issues such as characteristics of cancer cell proteomes and protein–protein interactionsApplication of proteomics approaches in clinical cancer research and a forecast of future research and applications
In most cases, applications of methods in basic and translational cancer research that are discussed in the text represent the first uses of these proteomics approaches to study any disease.
Critical issues that readers in cancer research need to understand are covered in detail, including:Advantages and limitations of different technologiesNew approaches to the molecular classification of tumorsDiscovery of new biomarkers and imaging targets and development of new proteomic platforms for profiling and screening
The unique proteomic features that characterize cancers offer new opportunities for disease prevention and treatment. Despite intense interest, however, proteomics is just beginning to become a part of the cancer research mainstream, as relatively few cancer researchers have training in proteomics methods and approaches. This book, therefore, is both a timely and an essential guide that will help readers understand key concepts of proteomics and use its methods to search for ways to both cure and prevent cancer.

Spis treści:
Contributors.
Preface.
1. Essential Elements of a Proteomics Laboratory (Daniel C. Liebler).
2. Mass Spectrometry Tools for Proteomics (Li–Rong Yu, Ming Zhou, Thomas P. Conrads, and Timothy D. Veenstra).
3. Gel–Based Proteomics: An Essential Core Technology in Translational Cancer Research (Julio E. Celis, Irina Gromova, Jose Moreira, Tereza Cabezo, Fritz Rank, and Pavel Gromov).
4. 2D Gel–Based Proteomic Analysis of Cancer (Sam Hanash).
5. Analysis of Protein Posttranslational Modifications and Protein Adducts (Daniel C. Liebler).
6. Bioinformatics Tools for Proteomics (Daniel C. Liebler and David B. Friedman).
7. Tissue Profiling and Imaging by Matrix–Assisted Laser Desorption Ionization Mass Spectrometry (Robert L. Caldwell and Richard M. Caprioli).
8. SELDI–TOF Applications for Cancer and Toxicity Detection (Emanuel F. Petricoin and Lance A. Liotta).
9. Protein Microarrays: Applications for Discovery and Quantitation (Virginia Espina, Julia Wulfkuhle, Emanuel F. Petricoin III, and Lance A. Liotta).
10. Protein Arrays for Clinical Proteomics and Signal Transduction Profiling (Fiona Simpkins, Victoria Espina, Edwin Posadas, Emanuel F. Petricoin III, Lance Liotta, and Elise Kohn).
11. Tissue Microarrays in Basic Cancer Research (Stephen M. Hewitt).
12. Structural Proteomics: High Throughput Structure Determination of Whole Organism Genomes (Demetrios T. Braddock).
Index.

Okładka tylna:
Proteomics in Cancer Research
Edited by Daniel C. Liebler
Proteomics in Cancer Research covers both the basic principles of proteomics along with detailed presentations of new and emerging technology that represent promising breakthroughs in cancer prevention and treatment. The topics covered include:Basic concepts, including setting up a proteomics laboratory, mass spectrometry, protein separations, protein array technologies, and informatics toolsApplication of emerging technologies, to proteomic analysis of cancer cells and tissues, including discussion of critical issues such as characteristics of cancer cell proteomes and protein–protein interactionsApplication of proteomics approaches in clinical cancer research and a forecast of future research and applications
In most cases, applications of methods in basic and translational cancer research that are discussed in the text represent the first uses of these proteomics approaches to study any disease.
Critical issues that readers in cancer research need to understand are covered in detail, including:Advantages and limitations of different technologiesNew approaches to the molecular classification of tumorsDiscovery of new biomarkers and imaging targets and development of new proteomic platforms for profiling and screening
The unique proteomic features that characterize cancers offer new opportunities for disease prevention and treatment. Despite intense interest, however, proteomics is just beginning to become a part of the cancer research mainstream, as relatively few cancer researchers have training in proteomics methods and approaches. This book, therefore, is both a timely and an essential guide that will help readers understand key concepts of proteomics and use its methods to search for ways to both cure and prevent cancer.