TY - CHAP

T1 - Generalized Model-Free Analysis of Nuclear Spin Relaxation Experiments

AU - Xu, X.

AU - Struts, A.V.

AU - Brown, M.F.

PY - 2014

Y1 - 2014

N2 - NMR spectroscopy is one of the most widely used experimental tools in chemistry and physics. Compared with methods such as X-ray crystallography, both structural and dynamical information is obtained. The analytic formulations in NMR spectroscopy are complementary to numerical molecular dynamics (MD) simulations in terms of theoretical force fields based on experimental data. Generalized model-free (GMF)analysis bridges theory and experiment by introducing an irreducible representation of the nuclear spin interactions (dipolar and quadrupolar coupling and chemical shift), which transforms under rotations by the Wigner rotation matrix. Solid-state NMR experiments characterize the dynamical variables by including the amplitudes and rates of motions within the alignment frame, e.g., crystal axes system, or director frame for liquid crystals or biomembranes. According to time-dependent perturbation theory, the NMR relaxation rates depend on the spectral densities of motion due to the irreducible components of the

AB - NMR spectroscopy is one of the most widely used experimental tools in chemistry and physics. Compared with methods such as X-ray crystallography, both structural and dynamical information is obtained. The analytic formulations in NMR spectroscopy are complementary to numerical molecular dynamics (MD) simulations in terms of theoretical force fields based on experimental data. Generalized model-free (GMF)analysis bridges theory and experiment by introducing an irreducible representation of the nuclear spin interactions (dipolar and quadrupolar coupling and chemical shift), which transforms under rotations by the Wigner rotation matrix. Solid-state NMR experiments characterize the dynamical variables by including the amplitudes and rates of motions within the alignment frame, e.g., crystal axes system, or director frame for liquid crystals or biomembranes. According to time-dependent perturbation theory, the NMR relaxation rates depend on the spectral densities of motion due to the irreducible components of the

KW - coupling interactions

KW - deuterium NMR

KW - GMF analysis

KW - GPCR

KW - membrane proteins

KW - residual quadrupolar coupling

KW - rhodopsin

U2 - 10.1002/9780470034590.emrstm1367

DO - 10.1002/9780470034590.emrstm1367

M3 - Chapter

SN - 9780470034590

SP - 275

EP - 286

BT - eMagRes (Wiley Online Library )

PB - Wiley-Blackwell

ER -