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Electron magnetic resonance spectroscopy is undergoing something akin to a renaissance that is attributable to advances in microwave circuitry and signal processing software. EPR: Instrumental Methods is a textbook that brings the reader up to date on these advances and their role in providing better experimental techniques for biological magnetic resonance. Chapters in this book guide the reader from basic principles of spectrometer design through the advanced methods that are providing new vistas in disciplines such as oximetry, imaging, and structural biology.
Key Features:
Spectrometer design, particularly at low frequencies (below X-band),
Design of spectrometer components unique to ENDOR and ESEEM,
Optimization of EMR spectrometer sensitivity spanning many octaves,
Algorithmic approach to spectral parameterization,
Application of Fourier Methods to polymer conformation, oximetry, and imaging.
List of contents
Microwave Engineering Fundamentals and Spectrometer Design.- EPR Spectrometers at Frequencies Below X-band.- Frequency Dependence of EPR Sensitivity.- ENDOR Coils and Related Radiofrequency Circuits.- The Generation and Detection of Electron Spin Echoes.- Convolution-Based Algorithm: from Analysis of Rotational Dynamics to EPR Oximetry and Protein Distance Measurements.- ID and 2D Electron Spin Resonance Imaging (ESRI) of Transport and Degradation Processes in Polymers.- Peptide-Aggregation and Conformation Properties as Studied By Pulsed Electron-Electron Double Resonance.
About the author
Dr. Lawrence J. Berliner is currently Professor and Chair of the Department of Chemistry and Biochemistry at the University of Denver after retiring from Ohio State University, where he spent a 32-year career in the area of biological magnetic resonance (EPR and NMR).
Summary
Electron magnetic resonance spectroscopy is undergoing something akin to a renaissance that is attributable to advances in microwave circuitry and signal processing software. EPR: Instrumental Methods is a textbook that brings the reader up to date on these advances and their role in providing better experimental techniques for biological magnetic resonance. Chapters in this book guide the reader from basic principles of spectrometer design through the advanced methods that are providing new vistas in disciplines such as oximetry, imaging, and structural biology.
Key Features:
Spectrometer design, particularly at low frequencies (below X-band),
Design of spectrometer components unique to ENDOR and ESEEM,
Optimization of EMR spectrometer sensitivity spanning many octaves,
Algorithmic approach to spectral parameterization,
Application of Fourier Methods to polymer conformation, oximetry, and imaging.
