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INTERNATIONAL TABLES Reciprocal space
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International Tables for Crystallography
Volume B: Reciprocal space
First online edition (2006)
ISBN: 978-0-7923-6592-1
doi: 10.1107/97809553602060000102
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2
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Edited by U. Shmueli
Contents
Preface to the second edition
(pp. xxv-xxvi)
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U. Shmueli
General relationships and techniques
1.1. Reciprocal space in crystallography
(pp. 2-9)
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chapter contents
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U. Shmueli
1.1.1. Introduction (p. 2)
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1.1.2. Reciprocal lattice in crystallography (pp. 2-3)
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1.1.3. Fundamental relationships (pp. 3-4)
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1.1.4. Tensor-algebraic formulation (pp. 5-7)
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1.1.5. Transformations (pp. 7-8)
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1.1.6. Some analytical aspects of the reciprocal space (pp. 8-9)
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References
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1.2. The structure factor
(pp. 10-24)
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chapter contents
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P. Coppens
1.2.1. Introduction (p. 10)
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1.2.2. General scattering expression for X-rays (p. 10)
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1.2.3. Scattering by a crystal: definition of a structure factor (p. 10)
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1.2.4. The isolated-atom approximation in X-ray diffraction (pp. 10-11)
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1.2.5. Scattering of thermal neutrons (p. 11)
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1.2.6. Effect of bonding on the atomic electron density within the spherical-atom approximation: the kappa formalism (pp. 11-13)
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1.2.7. Beyond the spherical-atom description: the atom-centred spherical harmonic expansion (pp. 14-15)
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1.2.8. Fourier transform of orbital products (pp. 17-18)
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1.2.9. The atomic temperature factor (p. 18)
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1.2.10. The vibrational probability distribution and its Fourier transform in the harmonic approximation (pp. 18-19)
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1.2.11. Rigid-body analysis (pp. 19-22)
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1.2.12. Treatment of anharmonicity (pp. 22-23)
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1.2.13. The generalized structure factor (pp. 23-24)
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1.2.14. Conclusion (p. 24)
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References
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1.3. Fourier transforms in crystallography: theory, algorithms and applications
(pp. 25-98)
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chapter contents
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G. Bricogne
1.3.1. General introduction (p. 25)
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1.3.2. The mathematical theory of the Fourier transformation (pp. 25-49)
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1.3.3. Numerical computation of the discrete Fourier transform (pp. 49-58)
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1.3.4. Crystallographic applications of Fourier transforms (pp. 58-98)
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References
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1.4. Symmetry in reciprocal space
(pp. 99-161)
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chapter contents
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U. Shmueli
,
S. R. Hall
and
R. W. Grosse-Kunstleve
1.4.1. Introduction (p. 99)
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U. Shmueli
1.4.2. Effects of symmetry on the Fourier image of the crystal (pp. 99-102)
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U. Shmueli
1.4.3. Structure-factor tables (pp. 102-104)
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U. Shmueli
1.4.4. Symmetry in reciprocal space: space-group tables (pp. 104-106)
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U. Shmueli
Appendix 1.4.1. Comments on the preparation and usage of the tables (pp. 106-107)
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U. Shmueli
Appendix 1.4.2. Space-group symbols for numeric and symbolic computations (pp. 107-119)
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Appendix 1.4.3. Structure-factor tables (pp. 120-149)
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U. Shmueli
Appendix 1.4.4. Crystallographic space groups in reciprocal space (pp. 150-161)
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U. Shmueli
References
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1.5. Crystallographic viewpoints in the classification of space-group representations
(pp. 162-188)
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chapter contents
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M. I. Aroyo
and
H. Wondratschek
1.5.1. List of symbols (p. 162)
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1.5.2. Introduction (p. 162)
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1.5.3. Basic concepts (pp. 162-165)
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1.5.4. Conventions in the classification of space-group irreps (pp. 165-168)
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1.5.5. Examples and conclusions (pp. 168-176)
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Appendix 1.5.1. Reciprocal-space groups
(p. 176)
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References
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Reciprocal space in crystal-structure determination
2.1. Statistical properties of the weighted reciprocal lattice
(pp. 190-209)
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chapter contents
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U. Shmueli
and
A. J. C. Wilson
2.1.1. Introduction (p. 190)
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2.1.2. The average intensity of general reflections (pp. 190-191)
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2.1.3. The average intensity of zones and rows (pp. 191-192)
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2.1.4. Probability density distributions – mathematical preliminaries (pp. 192-195)
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2.1.5. Ideal probability density distributions (pp. 195-197)
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2.1.6. Distributions of sums, averages and ratios (pp. 197-199)
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2.1.7. Non-ideal distributions: the correction-factor approach (pp. 199-203)
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2.1.8. Non-ideal distributions: the Fourier method (pp. 203-209)
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References
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2.2. Direct methods
(pp. 210-234)
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chapter contents
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C. Giacovazzo
2.2.1. List of symbols and abbreviations (p. 210)
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2.2.2. Introduction (p. 210)
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2.2.3. Origin specification (pp. 210-215)
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2.2.4. Normalized structure factors (pp. 215-217)
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2.2.5. Phase-determining formulae (pp. 217-225)
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2.2.6. Direct methods in real and reciprocal space: Sayre's equation (pp. 225-227)
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2.2.7. Scheme of procedure for phase determination (pp. 227-228)
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2.2.8. Other multisolution methods applied to small molecules (pp. 228-230)
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2.2.9. Some references to direct-methods packages (p. 230)
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2.2.10. Direct methods in macromolecular crystallography (pp. 231-234)
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References
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2.3. Patterson and molecular-replacement techniques
(pp. 235-263)
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chapter contents
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M. G. Rossmann
and
E. Arnold
2.3.1. Introduction (pp. 235-238)
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2.3.2. Interpretation of Patterson maps (pp. 238-242)
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2.3.3. Isomorphous replacement difference Pattersons (pp. 242-246)
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2.3.4. Anomalous dispersion (pp. 246-248)
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2.3.5. Noncrystallographic symmetry (pp. 248-250)
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2.3.6. Rotation functions (pp. 250-258)
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2.3.7. Translation functions (pp. 258-260)
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2.3.8. Molecular replacement (pp. 260-262)
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2.3.9. Conclusions (pp. 262-263)
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References
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2.4. Isomorphous replacement and anomalous scattering
(pp. 264-275)
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chapter contents
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M. Vijayan
and
S. Ramaseshan
2.4.1. Introduction (p. 264)
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2.4.2. Isomorphous replacement method (pp. 264-265)
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2.4.3. Anomalous-scattering method (pp. 265-269)
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2.4.4. Isomorphous replacement and anomalous scattering in protein crystallography (pp. 269-274)
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2.4.5. Anomalous scattering of neutrons and synchrotron radiation. The multiwavelength method (pp. 274-275)
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References
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2.5. Electron diffraction and electron microscopy in structure determination
(pp. 276-345)
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chapter contents
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J. M. Cowley
,
P. Goodman
,
B. K. Vainshtein
,
B. B. Zvyagin
and
D. L. Dorset
2.5.1. Foreword (pp. 276-277)
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J. M. Cowley
2.5.2. Electron diffraction and electron microscopy (pp. 277-285)
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J. M. Cowley
2.5.3. Space-group determination by convergent-beam electron diffraction (pp. 285-306)
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P. Goodman
2.5.4. Electron-diffraction structure analysis (EDSA) (pp. 306-310)
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B. K. Vainshtein
and
B. B. Zvyagin
2.5.5. Image reconstruction (pp. 310-315)
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B. K. Vainshtein
2.5.6. Three-dimensional reconstruction (pp. 316-320)
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B. K. Vainshtein
2.5.7. Direct phase determination in electron crystallography (pp. 320-326)
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D. L. Dorset
References
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Dual bases in crystallographic computing
3.1. Distances, angles, and their standard uncertainties
(pp. 348-352)
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chapter contents
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D. E. Sands
3.1.1. Introduction (p. 348)
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3.1.2. Scalar product (p. 348)
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3.1.3. Length of a vector (p. 348)
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3.1.4. Angle between two vectors (p. 348)
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3.1.5. Vector product (p. 349)
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3.1.6. Permutation tensors (p. 349)
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3.1.7. Components of vector product (p. 349)
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3.1.8. Some vector relationships (p. 349)
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3.1.9. Planes (pp. 349-350)
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3.1.10. Variance–covariance matrices (pp. 350-351)
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3.1.11. Mean values (pp. 351-352)
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3.1.12. Computation (p. 352)
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References
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3.2. The least-squares plane
(pp. 353-359)
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chapter contents
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R. E. Marsh
and
V. Schomaker
3.2.1. Introduction (p. 353)
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3.2.2. Least-squares plane based on uncorrelated, isotropic weights (pp. 353-355)
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3.2.3. The proper least-squares plane, with Gaussian weights (pp. 355-358)
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Appendix 3.2.1. (pp. 358-359)
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References
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3.3. Molecular modelling and graphics
(pp. 360-384)
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chapter contents
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R. Diamond
3.3.1. Graphics (pp. 360-376)
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3.3.2. Molecular modelling, problems and approaches (pp. 377-380)
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3.3.3. Implementations (pp. 380-384)
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References
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3.4. Accelerated convergence treatment of
R
−
n
lattice sums
(pp. 385-397)
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chapter contents
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D. E. Williams
3.4.1. Introduction (p. 385)
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3.4.2. Definition and behaviour of the direct-space sum (p. 385)
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3.4.3. Preliminary description of the method (pp. 385-386)
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3.4.4. Preliminary derivation to obtain a formula which accelerates the convergence of an
sum over lattice points
X
(
d
) (pp. 386-388)
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3.4.5. Extension of the method to a composite lattice (pp. 388-389)
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3.4.6. The case of
(Coulombic lattice energy) (p. 389)
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3.4.7. The cases of
and
(p. 389)
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3.4.8. Derivation of the accelerated convergence formula
via
the Patterson function (pp. 389-390)
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3.4.9. Evaluation of the incomplete gamma function (p. 390)
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3.4.10. Summation over the asymmetric unit and elimination of intramolecular energy terms (p. 390)
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3.4.11. Reference formulae for particular values of
n
(pp. 390-391)
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3.4.12. Numerical illustrations (pp. 391-392)
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References
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Diffuse scattering and related topics
4.1. Thermal diffuse scattering of X-rays and neutrons
(pp. 400-406)
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chapter contents
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B. T. M. Willis
4.1.1. Introduction (p. 400)
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4.1.2. Dynamics of three-dimensional crystals (pp. 400-402)
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4.1.3. Scattering of X-rays by thermal vibrations (pp. 403-404)
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4.1.4. Scattering of neutrons by thermal vibrations (pp. 404-405)
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4.1.5. Phonon dispersion relations (pp. 405-406)
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4.1.6. Measurement of elastic constants (p. 406)
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References
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4.2. Disorder diffuse scattering of X-rays and neutrons
(pp. 407-442)
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chapter contents
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H. Jagodzinski
and
F. Frey
4.2.1. Scope of this chapter (pp. 407-408)
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4.2.2. Summary of basic scattering theory (pp. 408-410)
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4.2.3. General treatment (pp. 410-420)
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4.2.4. Quantitative interpretation (pp. 420-438)
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4.2.5. Measurement of diffuse scattering (pp. 438-442)
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References
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4.3. Diffuse scattering in electron diffraction
(pp. 443-448)
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chapter contents
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J. M. Cowley
and
J. K. Gjønnes
4.3.1. Introduction (pp. 443-444)
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4.3.2. Inelastic scattering (p. 444)
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4.3.3. Kinematical and pseudo-kinematical scattering (p. 445)
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4.3.4. Dynamical scattering: Bragg scattering effects (pp. 445-447)
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4.3.5. Multislice calculations for diffraction and imaging (p. 447)
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4.3.6. Qualitative interpretation of diffuse scattering of electrons (pp. 447-448)
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References
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4.4. Scattering from mesomorphic structures
(pp. 449-465)
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chapter contents
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P. S. Pershan
4.4.1. Introduction (pp. 449-451)
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4.4.2. The nematic phase (pp. 451-453)
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4.4.3. Smectic-A and smectic-C phases (pp. 453-456)
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4.4.4. Phases with in-plane order (pp. 456-463)
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4.4.5. Discotic phases (p. 463)
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4.4.6. Other phases (pp. 463-464)
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4.4.7. Notes added in proof to first edition (pp. 464-465)
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References
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4.5. Polymer crystallography
(pp. 466-485)
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chapter contents
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R. P. Millane
and
D. L. Dorset
4.5.1. Overview (p. 466)
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R. P. Millane
and
D. L. Dorset
4.5.2. X-ray fibre diffraction analysis (pp. 466-481)
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R. P. Millane
4.5.3. Electron crystallography of polymers (pp. 481-485)
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D. L. Dorset
References
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4.6. Reciprocal-space images of aperiodic crystals
(pp. 486-532)
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chapter contents
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W. Steurer
and
T. Haibach
4.6.1. Introduction (pp. 486-487)
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4.6.2. The
n
-dimensional description of aperiodic crystals (pp. 487-494)
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4.6.3. Reciprocal-space images (pp. 494-515)
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4.6.4. Experimental aspects of the reciprocal-space analysis of aperiodic crystals (pp. 516-517)
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References
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Dynamical theory and its applications
5.1. Dynamical theory of X-ray diffraction
(pp. 534-551)
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chapter contents
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A. Authier
5.1.1. Introduction (p. 534)
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5.1.2. Fundamentals of plane-wave dynamical theory (pp. 534-538)
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5.1.3. Solutions of plane-wave dynamical theory (pp. 538-541)
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5.1.4. Standing waves (p. 541)
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5.1.5. Anomalous absorption (p. 541)
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5.1.6. Intensities of plane waves in transmission geometry (pp. 541-545)
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5.1.7. Intensity of plane waves in reflection geometry (pp. 545-548)
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5.1.8. Real waves (pp. 548-550)
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Appendix 5.1.1. (pp. 550-551)
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References
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5.2. Dynamical theory of electron diffraction
(pp. 552-556)
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chapter contents
|
A. F. Moodie
,
J. M. Cowley
and
P. Goodman
5.2.1. Introduction (p. 552)
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5.2.2. The defining equations (p. 552)
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5.2.3. Forward scattering (p. 552)
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5.2.4. Evolution operator (pp. 552-553)
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5.2.5. Projection approximation – real-space solution (p. 553)
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5.2.6. Semi-reciprocal space (p. 553)
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5.2.7. Two-beam approximation (pp. 553-554)
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5.2.8. Eigenvalue approach (p. 554)
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5.2.9. Translational invariance (p. 554)
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5.2.10. Bloch-wave formulations (p. 555)
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5.2.11. Dispersion surfaces (p. 555)
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5.2.12. Multislice (p. 555)
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5.2.13. Born series (pp. 555-556)
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5.2.14. Approximations (p. 556)
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References
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5.3. Dynamical theory of neutron diffraction
(pp. 557-569)
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chapter contents
|
M. Schlenker
and
J.-P. Guigay
5.3.1. Introduction (p. 557)
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5.3.2. Comparison between X-rays and neutrons with spin neglected (pp. 557-558)
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5.3.3. Neutron spin, and diffraction by perfect magnetic crystals (pp. 558-561)
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5.3.4. Extinction in neutron diffraction (non-magnetic case) (pp. 561-562)
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5.3.5. Effect of external fields on neutron scattering by perfect crystals (p. 562)
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5.3.6. Experimental tests of the dynamical theory of neutron scattering (pp. 562-563)
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5.3.7. Applications of the dynamical theory of neutron scattering (pp. 563-564)
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References
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