Methods in Biological Oxidative Stress

ISBN-13: 9780896038158 / Angielski / Twarda / 2003 / 216 str.

Kenneth Hensley; Robert A. Floyd

Opis

Oxidative damage appears to play a central role in the development of a wide range of tissue pathology, including neurodegenerative disease, drug side-effects, xenobiotic toxicity, carcinogenesis, and the aging process, to name just a few. Because of the centrality of oxidative processes to normal and abnormal tissue function, it has become imperative to develop appropriate analytical techniques to facilitate the quantitation of significant reactants. Without advances in methodology, corresponding advances in our knowledge of underlying biochemical events will be necessarily limited. Drs. Hensley and Floyd have done an outstanding job of assembling the work of world-class experts into Methods in Biological Oxidative Stress. The contributors have presented concise, yet thorough, descriptions of the state-of-the-art methods that any investigator working in the field needs to access. Mannfred A. Hollinger v Preface Free radicals and reactive oxidizing agents were once ignored as biochemical entities not worth close scrutiny, but are now recognized as causes or contributing factors in dozens, if not hundreds, of disease states. In addition, free radical metabolisms of xenobiotics have become increasingly important to pharmacologists. Accordingly, the need has arisen to accurately quantify reactive oxygen species and their byproducts. Methods in Biological Oxidative Stress is practical in scope, providing the details of up-to-date techniques for measuring oxidative stress and detecting oxidizing agents both in vitro and in vivo. The contributors are recognized experts in the field of oxidative stress who have developed novel strategies for studying biological oxidations.

Spis treści

Part I. Lipids Measurement of Fat-Soluble Vitamins and Antioxidants by HPLC With Electrochemical Array Detection Paul H. Gamache, Paul A. Ullucci, Joe A. Archangelo, and Ian N. Acworth Analysis of Aldehydic Markers of Lipid Peroxidation in Biological Tissues by HPLC With Fluorescence Detection Mark A. Lovell and William R. Markesbery Measurement of Isofurans by Gas Chromatography-Mass Spectrometry/Negative Ion Chemical Ionization Joshua P. Fessel and L. Jackson Roberts, II Analysis of F2-Isoprostanes by Gas Chromatography-Mass Spectrometry/Negative Ion Chemical Ionization L. Jackson Roberts, II and Jason D. Morrow Measurement of F4-Neuroprostanes by Gas Chromatography-Mass Spectrometry/Negative Ion Chemical Ionization Nathalie Bernoud-Hubac and L. Jackson Roberts, II Immunoassays for Lipid Peroxidation End Products: One-Hour ELISA for Protein-Bound Acrolein and HNE Kimihiko Satoh and Koji Uchida Fluorometric and Colorimetric Assessment of Thiobarbituric Acid-Reactive Lipid Aldehydes in Biological Matrices Kelly S. Williamson, Kenneth Hensley, and Robert A. Floyd HPLC With Electrochemical and Photodiode Array Detection Analysis of Tocopherol Oxidation and Nitration Products in Human Plasma Kelly S. Williamson, Kenneth Hensley, and Robert A. Floyd Part II. DNA, Protein, and Amino Acids Electron Paramagnetic Resonance Spin-Labeling Analysis of Synaptosomal Membrane Protein Oxidation D. Allan Butterfield Gas Chromatography-Mass Spectrometric Analysis of Free 3-Chlorotyrosine, 3-Bromotyrosine, Ortho-Tyrosine, and 3-Nitrotyrosine in Biological Fluids Joseph P. Gaut, Jaeman Byun, and Jay W. Heinecke Isotope Dilution Gas Chromatography-Mass Spectrometric Analysis of Tyrosine Oxidation Products in Proteins and Tissues Jay W. Heinecke Single-Cell Gel Electrophoresis or Comet Assayof Intestinal Epithelial Cells Using Manual Scoring and Ridit Analysis Mark M. Huycke Detection of Aldehydic DNA Lesions Using Aldehyde Reactive Probe Jun Nakamura and James A. Swenberg Analysis of Neuroketal Protein Adducts by Liquid Chromatography-Electrospray Ionization/Tandem Mass Spectrometry Nathalie Bernoud-Hubac, Sean S. Davies, Olivier Boutaud, and L. Jackson Roberts, II Measurement of Isoketal Protein Adducts by Liquid Chromatography-Electrospray Ionization/Tandem Mass Spectrometry Sean S. Davies, Cynthia J. Brame, Olivier Boutaud, Nathalie Bernoud-Hubac, and L. Jackson Roberts, II Bioassay of 29-Deoxyguanosine/8-Hydroxy-29- Deoxyguanosine by HPLC With Electrochemical/Photodiode Array Detection Kelly S. Williamson, Kenneth Hensley, Quentin N. Pye, Scott Ferrell, and Robert A. Floyd HPLC With Electrochemical Detection Analysis of 3-Nitrotyrosine in Human Plasma Kelly S. Williamson, Kenneth Hensley, and Robert A. Floyd Part III. Reactive Oxygen Species and Reactive Nitrogen Species Protein Carbonyl Levels-An Assessment of Protein Oxidation Alessandra Castegna, Jennifer Drake, Chava Pocernich, and D. Allan Butterfield Fluorogenic Analysis of H2O2 in Biological Materials Kenneth Hensley, Kelly S. Williamson, and Robert A. Floyd Detection of Reactive Oxygen Species by Flow Cytometry Alexander Christov, Ladan Hamdheydari, and Paula Grammas Nitrite Determination by Colorimetric and Fluorometric Greiss Diazotization Assays: Simple, Reliable, High-Throughput Indices of Reactive Nitrogen Species in Cell Culture Systems Kenneth Hensley, Shenyun Mou, and Quentin N. Pye Protein Carbonyl Determination Using Biotin Hydrazide Kenneth Hensley and Kelly S. Williamson Real-Time, In Vivo Measurement of Nitric Oxide Using Electron Paramagnetic Resonance Spectroscopic Analysis of Biliary Flow

Blurb

Free radicals and reactive oxidizing agents are now recognized as causes or contributing factors in inflammation and other disease states and have become a major focus of interest in pharmacology, toxicology, physiology, and biochemistry. In Methods in Biological Oxidative Stress, expert researchers detail their best experimental methods for detecting free radicals and reactive oxygen species or their byproducts. The techniques range from established standard protocols to advanced methodologies using HPLC, mass spectrometry, and electron paramagnetic resonance. The HPLC techniques are applied to the electrochemical measurement of protein oxidation products, particularly nitrotyrosine and dityrosine, and to the electrochemical detection of DNA oxidation products. There are also mass spectrometry methods for measuring lipid oxidation products. Each technique is described in step-by-step detail to ensure robust results, with many presented by the experimenters who have led their development. Useful notes explain the pitfalls to avoid and the chemical principles underlying each method.
Authoritative and highly practical, Methods in Biological Oxidative Stress provides laboratory researchers and technicians a unique collection of standard, easy-to-use experimental methods for oxidative stress bioanalysis, plus cutting-edge instrumental techniques using HPLC, mass spectrometry, and EPR spectrometry.