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Callaghan P. — Principles of Nuclear Magnetic Resonance Microscopy
Callaghan P. — Principles of Nuclear Magnetic Resonance Microscopy



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Название: Principles of Nuclear Magnetic Resonance Microscopy

Автор: Callaghan P.

Аннотация:

Although nuclear magnetic resonance is perhaps best known for its spectacular utility in medical tomography, its potential applicability to fields such as biology, materials science, and chemical physics is being increasingly recognized as laboratory NMR spectrometers are adapted to enable small scale imaging. This excellent introduction to the subject explores principles and common themes underlying two key variants of NMR microscopy, and provides many examples of their use. Methods discussed are not only important to fundamental biological and physical research, but have applications to a wide variety of industries, including those concerned with petrochemicals, polymers, biotechnology, food processing, and natural product processing. The wide range of scientists interested in NMR microscopy will want to own a copy of this book.


Язык: en

Рубрика: Физика/

Статус предметного указателя: Готов указатель с номерами страниц

ed2k: ed2k stats

Год издания: 1991

Количество страниц: 492

Добавлена в каталог: 28.06.2005

Операции: Положить на полку | Скопировать ссылку для форума | Скопировать ID
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Предметный указатель
Gradient, switching      470
Gradient, uniformity      454
Gradient, velocity encoding      429 433
gyromagnetic ratio      35
Hahn echo      see “Spin echo”
Hamiltonian      28
Hamiltonian, average      86—87
Hamiltonian, chemical shift      49—50
Hamiltonian, diagonal terms      35
Hamiltonian, dipolar      46—49
Hamiltonian, off-diagonal terms      48
Hamiltonian, quadrupole interaction      52—54
Hamiltonian, scalar spin-spin      50—51
Hamiltonian, secular terms      35 48
Hartmann — Hahn cross polarization      308
Heat diffusion analogy      374
Heterodyning      42
Heterogeneous solid/liquid systems      256
Heteronuclear coherence transfer      301
Hollow fibre bioreactor      457
Homogeneity-spoiling      76
Homogeneous and inhomogeneous broadening      45—46 138 414—425
Human carotid artery      436
Human skin cells      254
Hydrodynamic radius      342
Hyperbolic secant modulation      10
Image, artefacts      see “Artefacts”
Image, convolution      135
Image, density      4
Image, distortion due to susceptibility inhomogeneity      208—217
Image, transmission      141
Imaging, absorption and emission      16
Imaging, line scanning      97
Imaging, of desired chemical species      282—287
Imaging, of solids      130 308—318
Imaging, one-dimensional      97
Imaging, three-dimensional      129—132
Implanted coils      247
Induced poles      209
INEPT      301—302
Insect microscopy      247—251
Interconnected box model      385
Inversion recovery      68—69
Ionic crystals      298
Irreducible tensor operators      56—57
ISIS      287
Jerk      354
k-space      94—95 123
k-space, cartesian and polar raster      122—128
k-space, combined k-space and q-space imaging      353 438
k-space, four quadrant sampling      440
k-space, quadrant      123
k-space, rapid sampling      147
k-space, symmetry      124
Kramers — Kronig relation      129 181
Larmor frequency      21
Laser Doppler anemometry      443 457
Lattice correlation      394
Lattice truncation      392
Lens aperture      14
Line narrowing      85 90
Linear systems and linear response      2 101 104 109
Linearly polarized oscillatory field      33
Liouville equation      31
Liquid crystals      49 344—348
Lithium imaging      296
Local field      414
Localized spectroscopy      117—120
Location correlation      336 357 368
Locust embryo      249
Lorentzian lineshape      42 48 185
Losses in the sample      175 470
LOSY      308
Macromolecules      see “Polymer”
Magic angle spinning      90 310—324
Magnetic dipole moment      21 28
Magnetic dipole-dipole interaction      see “Dipolar interactions”
Magnetization, extra-slice      110
Magnetization, for spins in thermal equilibrium      174
Magnetization, helix      436
Magnetization, nuclear      25
Magnetization, storage along z-axis      75
Magnetization, transfer      296
Magnetization, transport      167
Magnetization, transverse      31 143
Markov statistics      334
MAS imaging      313
Matched filter criterion      191
Matrix elements      32
Maximum entropy method      225
MBEST      156
Method of cumulants      355
Mica stack      374
Mice, NMR microscopy of      247
Microwave cooking      256
Mimosa      242
Modulus calculation      73—75 133
Moments of the Unewidth      48
Motional harmonics      435
MREV-8      90 311
Multi-slicing      110 138
Multicellular tumour spheroids      251
Multiple pulse line-narrowing      85—90
Multiple quantum coherence      54—56 306
Multiple quantum coherence, generation and recall      81
Multiple quantum coherence, quadrupolar interactions      83
Multiple quantum filter      67 80—83 288
Mutual diffusion      420
Mutual diffusion, of solvent in nylon      258
Mutual diffusion, of solvent in polymethylmethacrylate      258
Mutual diffusion, of solvents into solid polymer matrices      257
Natural rubber      263 266
Necrosis      251
Negative time acquisition      44
Neutron scattering and diffraction      330 332 340
Newtonian and non-newtonian fluids      446
Nitrogen imaging      296
NMR microscope system      461
NMR spectroscopy      22
Noise, baseline      454
Noise, e.m.f.      175
Noise, influence of smoothing filter      185
Noise, power      11 21
Non-invasive character of NMR microscopy      254
Non-linearity      106 109
Nuclear quadrupole moment      53
Nyquist theorem      11
Off-resonant behaviour      37
Operator, for angular momentum      27
Operator, off-diagonal      30
Operator, raising and lowering      27
Optical holographic relaxation      436
Optical microscope      4 8 12—15 20 22
Optimal bandwidth      193
OSIRIS      287
Oxygen imaging      299
Parenchyma cells      237
Partial saturation      65
Pelargonium      240 272
Perfusion      363 434
Periodic motion      420
Permeability of porous system      390
PGSE NMR      162—166 165 330—367 371—417
PGSE NMR, as a contrast in imaging      440
PGSE NMR, CPMG echo train      166
PGSE NMR, deuterium      342
PGSE NMR, dominant pore behaviour      412
PGSE NMR, echo attenuation for irregular one dimensional porous system      394
PGSE NMR, echo attenuation for pore glass      397—398
PGSE NMR, echo attenuation for regular one dimensional porous system      392
PGSE NMR, echo attenuation for spherical and rectangular restriction      374
PGSE NMR, echo signal      339
PGSE NMR, even and odd echo      449
PGSE NMR, finite pulse width      342
PGSE NMR, gradients needed to probe sub-micron dimensions      463
PGSE NMR, high gradient      461
PGSE NMR, in fractal volume      405
PGSE NMR, in lyotropic and thermotropic liquid crystals      346
PGSE NMR, influence of pore surface relaxation      411—413
PGSE NMR, influence of spin relaxation in heterogenous systems      407
PGSE NMR, lamellar and plug flow      342
PGSE NMR, large gradients      478
PGSE NMR, loss of phase information      380
PGSE NMR, low q limit for porous system      392
PGSE NMR, magnetization grating depiction      436—437
PGSE NMR, narrow pulse approximation      338
PGSE NMR, neutron scattering analogy      340
PGSE NMR, optical analogue of single slit and multiple slit diffraction      379
PGSE NMR, optical analogy      378
PGSE NMR, PGSE-MASSEY      481—482
PGSE NMR, phase shift      339
PGSE NMR, relationship with structural autocorrelation function      380
PGSE NMR, resolution      350—353
PGSE NMR, sample movement and gradient pulse mismatch      478
PGSE NMR, scattering analogy      337—341
PGSE NMR, selection based on compartment size      382—383
PGSE NMR, sinusoidal gradient modulation      359—361
PGSE NMR, sinusoidal modulation      359
PGSE NMR, spectrum of double pulse, CPMG, and sinusoidal gradient train      358—361
PGSE NMR, spin-locking pulses      166
PGSE NMR, use of a read gradient      479
PGSE NMR, using solid echoes      346
PGSE NMR, using stimulated echo      166
Phase, cycling      67—68 119 429 433
Phase, gradient      123—124
Phase, in-phase and quadrature signals      42
Phase, period      123
Phase, phase sensitive detection      34 42
Phase, rings in capillary flow      443
Phase, twist      109 436
Phosphorous imaging      296
Photon intensity tomography      16 20
Planck constant      21 26
Plant, imaging      237—245
Plant, inter-cellular air spaces      240
Plant, parenchyma cells      240
Plant, root      240
Plant, susceptibility artefacts      242
Plant, vascular tissue      240
Point spread function      13 185 186
Poiseuille velocity profile      443
Polarization      3 33
Polarization transfer      303—306
Polarized neutron scattering      330
Polarizing field      36
Polybutadiene      263
polycarbonate      318
Polycarbonate, polyethylene oxide      446
Polymer      39 61
Polymer, ${T}_{1}, $ minimum      235
Polymer, amorphous and crystalline regions      236
Polymer, beads      261
Polymer, binding agents      257
Polymer, conformation in high shear      451
Polymer, elastomeric solids      236
Polymer, entanglements      235
Polymer, internal motions      481
Polymer, melts      235
Polymer, random coil      383 405
Polymer, random coil and rigid rod      235
Polymer, semi-local motion      403
Polymer, spin relaxation      235
Polymer, tube model      400
Polymethylmethacrylate      259
polystyrene      257 318
Pore distribution in sandstone      263
Pore eccentricity measurement      383
Pore equilibration condition      390
Pore glass      393—398
Pore size distributions from multi-exponential relaxation data      411
Pore structure factor      392 394 399
Porosity measurement      383
Porous systems, connected pores      385—399
Porous systems, Gaussian envelope assumption      399
Porous systems, leakage from starting pore      394
Porous systems, pore equilibration condition      399
Porous systems, structure determination using PGSE NMR      399
Positron emission tomography      16
Power dissipation      138
Power law exponent      446
Pre-emphasis and de-emphasis      471
Precession      21 29 32
Precursor gradient pulse      136
Precursor tagging pulse      423
Principal axis system      50
Product operator formalism      32 85
Projection profiles      20 448
Projection reconstruction      18—20 124—128
Projection reconstruction, advantages and disadvantages with respect to FI      127 224
Projection reconstruction, spherical polar coordinates      130
Projection reconstruction, three dimensional      130—132
Proton      26 28
Proton, dipolar linewidth      307
Proton, relaxation enhancement      277
Proton, relaxation times in proteins, polypeptides, and carbohydrates      235
Proton, spin density map      1
Proton, water, lipid, and macromolecular NMR signals in plant and animal tissue      233
Pseudo-diffusion      363 367
Pulse repetition time      65 192
Pulsed Gradient Spin Echo NMR      see “PGSE NMR”
PVAc-emulsions      257
q-slices      441
q-space      340 337—353
q-space imaging principle      380
Quadrature detection      11
Quadrupole, asymmetry parameter      54
Quadrupole, interaction      54
Quadrupole, polarization      57 83
Quadrupole, precession      318
quantum mechanics      25—33
Quantum mechanics, angular momentum quantum number      25
Quantum mechanics, basis set      25
Quantum mechanics, bra and ket vectors      26
Quantum mechanics, commutation relationship      27
Quantum mechanics, eigenvalue equation      26
Quantum mechanics, expectation value      27
Quantum mechanics, observables      27
Quantum mechanics, operator      26
Quantum mechanics, probability      27
Quantum mechanics, representation      31
Quantum mechanics, Schroedinger equation      28
r.f. field and r.f. pulse      see “Radiofrequency”
Radio transmission and radio waves      21
Radiofrequency (r.f)      37
Radiofrequency (r.f), bandwidth of pulse      57 98 100
Radiofrequency (r.f), broadband pulse      98
Radiofrequency (r.f), circularly polarized component      35
Radiofrequency (r.f), coil      461 466
Radiofrequency (r.f), coil configuration in electromagnets and superconducting magnets      463
Radiofrequency (r.f), direction      37
Radiofrequency (r.f), duration      57
Radiofrequency (r.f), hard pulse      98
Radiofrequency (r.f), magnetic field      21
Radiofrequency (r.f), modulation      99—101 461
Radiofrequency (r.f), non-linearity      461
Radiofrequency (r.f), non-selective      98
Radiofrequency (r.f), phase      37
Radiofrequency (r.f), radiation      21
Radiofrequency (r.f), receiver      42
Radiofrequency (r.f), reference axis      37
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