Understanding Spin Dynamics

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A01=Danuta Kruk
AIP Publishing
Author_Danuta Kruk
Category=PBW
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Category=PHQ
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Correlation Function
Correlation Time
coupling
density
dipolar and quadrupolar effects
dipole
Dipole Dipole Coupling
Dipole Dipole Interaction
DNP
electron paramagnetic resonance
Electron Spin
Electron Spin Relaxation
Electron Spin Relaxation Rates
Energy Level Structure
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Esr Lineshape
Esr Spectrum
lattice
Lineshape Function
molecular relaxation theory
Nitroxide Radicals
NMR Spectroscopy
NMR Spectrum
nuclear spin interactions
number
Pake Doublet
Principal Axis System
protein dynamics analysis
Quadrupole Coupling
Quadrupole Interaction
quantum
quantum mechanics principles
quantum spin relaxation modeling
rates
relaxation
Relaxation Rate
spectral
Spectral Density
Spin Lattice Relaxation Rate
Spin Relaxation
Spin System
system

Product details

  • ISBN 9789814463492
  • Weight: 521g
  • Dimensions: 152 x 229mm
  • Publication Date: 16 Oct 2015
  • Publisher: Pan Stanford Publishing Pte Ltd
  • Publication City/Country: SG
  • Product Form: Hardback
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Experimental methods employing spin resonance effects (nuclear magnetic resonance and electron spin resonance) are broadly used in molecular science due to their unique potential to reveal mechanisms of molecular motion, structure, and interactions. The developed techniques bring together biologists investigating dynamics of proteins, material science researchers looking for better electrolytes, or nanotechnology scientists inquiring into dynamics of nano-objects. Nevertheless, one can profit from the rich source of information provided by spin resonance methods only when appropriate theoretical models are available. The obtained experimental results reflect intertwined quantum–mechanical and dynamical properties of molecular systems, and to interpret them one has to first understand the quantum–mechanical principles of the underlying processes.

This book concentrates on the theory of spin resonance phenomena and the relaxation theory, which have been discussed from first principles to introduce the reader to the language of quantum mechanics used to describe the behaviour of atomic nuclei and electrons. There is a long way from knowing complex formulae to apply them correctly to describe the studied system. The book shows through examples how symbols can be "replaced" in equations by using properties of real systems to formulate descriptions that link the quantities observed in spin resonance experiments with dynamics and structure of molecules.

Danuta Kruk is associate professor at the Faculty of Mathematics and Computer Science, University of Warmia and Mazury in Olsztyn, Poland. She received her master’s and doctorate degrees in physics as well as attained her habilitation from the Jagiellonian University, Krakow, Poland. She has also been associated with Physical Chemistry Arrhenius Laboratory, Stockholm University, Sweden; Faculty of Physics, Technical University Darmstadt, Germany; and Experimentalphysik, University of Bayreuth, Germany. She is author of the book Theory of Evolution and Relaxation of Multi-Spin Systems. Her current research interests are theory of spin resonances and relaxation processes, dynamics of condensed matter including molecular and ionic liquids, polymers and biological macromolecules, spin relaxation in paramagnetic and superparamagnetic systems, transport phenomena and dynamics of electrolytes and nanofluids, and dynamical properties of solids.

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