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9780198509585

Fundamentals of Crystallography

by ; ; ; ; ; ; ;
  • ISBN13:

    9780198509585

  • ISBN10:

    0198509588

  • Edition: 2nd
  • Format: Paperback
  • Copyright: 2002-09-26
  • Publisher: Oxford University Press
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Summary

Crystallography and structure theory have recently received increasing interest due to their role in understanding biological structures, high-temperature superconductors, and effects on mineral properties related to changes in temperature and pressure. This book offers a comprehensive accountof the wide range of crystallography in many branches of science. The fundamentals, the most frequently used procedures and experimental techniques are all described in a detailed way. A number of appendices are devoted to more specialist aspects. The book is an updated and fully revised new editionwith emphasis on the wide range of topical applications and current areas of research. Ample illustrations help clarify the subject matter. To provide a better understanding of the basics of crystallography, a compact disk has been added to this new edition, offering the facilities of moderngraphics to simulate experiments, show complex images, and provide a number of exercises.

Table of Contents

List of contributors
xxi
Symmetry in crystals
1(37)
Carmelo Giacovazzo
The crystalline state and isometric operations
1(2)
Symmetry elements
3(3)
Axes of rotational symmetry
3(2)
Axes of rototranslation or screw axes
5(1)
Axes of inversion
5(1)
Axes of rotoreflection
5(1)
Reflection planes with translational component (glide planes)
6(1)
Lattices
6(1)
The rational properties of lattices
7(3)
Crystallographic directions
8(1)
Crystallographic planes
8(2)
Symmetry restrictions due to the lattice periodicity and vice versa
10(2)
Point groups and symmetry classes
12(6)
Point groups in one and two dimensions
18(1)
The Laue classes
18(1)
The seven crystal systems
18(1)
The Bravais lattices
19(5)
Plane lattices
19(1)
Space lattices
20(4)
The space groups
24(8)
The plane and line groups
32(1)
On the matrix representation of symmetry operators
32(6)
Appendices 38(99)
The isometric transformations
38(2)
Direct movements
38(1)
Opposite movements
39(1)
Some combinations of movements
40(4)
Wigner--Seitz cells
44(1)
The space-group matrices
44(3)
Symmetry groups
47(12)
Sub groups
49(1)
Cosets
50(1)
Conjugate classes
51(1)
Conjugate subgroups
52(1)
Normal subgroups and factor groups
52(2)
Maximal subgroups and minimal supergroups
54(1)
Maximal subgroups and minimal supergroups for three-dimensional crystallographic point groups
55(1)
Limiting groups in two and three dimensions
56(1)
Representation of a group
57(1)
Opposite movements
58(1)
Symmetry generalization
59(8)
The symmetry groups Gnm
59(1)
The G1 groups
59(1)
The G2 groups
59(1)
The G3 groups
60(3)
The G4 groups
63(1)
The groups of colour symmetry
63(1)
References
64(3)
Crystallographic computing
67(70)
Carmelo Giacovazzo
Introduction
67(1)
The metric matrix
67(2)
The reciprocal lattice
69(3)
Basis transformations
72(2)
Transformation from triclinic to orthonormal axes
74(2)
Rotations in Cartesian systems
76(4)
Some simple crystallographic calculations
80(5)
Torsion angles
81(1)
Best plane through a set of points
81(1)
Best line through a set of points
82(1)
Principal axes of a quadratic form
83(2)
Metric considerations on the lattices
85(6)
Niggli reduced cell
85(3)
Sublattices and superlattices
88(1)
Coincidence-site lattices
89(2)
Calculation of the electron density function
91(2)
Calculation of the structure factor
93(2)
The method of least squares
95(20)
Linear least squares
95
Linear least squares with constraints
9(90)
Non-linear (unconstrained) least squares
99(1)
Least-squares refinement of crystal structures
100(4)
Practical considerations on crystallographic least squares
104(7)
Constraints and restraints in crystallographic least squares
111(4)
Alternatives to the method of least squares
115(5)
Maximum likelihood refinement
116(2)
Gradient methods
118(2)
Rietveld refinement
120(10)
Preliminary steps
120(2)
The basis of the Rietveld refinement
122(3)
Some practical aspects of Rietveld refinement
125(5)
Analysis of thermal motion
130(3)
The effect of thermal motion on bond lengths and angles
133(2)
About the accuracy of the calculated parameters
135(2)
Appendices 137(50)
Some metric relations between direct and reciprocal lattices
137(1)
Some geometrical calculations concerning directions and planes
138(3)
Some transformation matrices
141(1)
Reciprocity of F and I lattices
141(1)
Transformations of crystallographic quantities in rectilinear spaces
142(2)
Derivation of the normal equations
144(1)
Derivation of the variance--covariance matrix Mx
145(1)
Derivation of the unbiased estimate of Mx
145(1)
The FFT algorithm and its crystallographic applications
146(7)
References
147(6)
The diffraction of X-rays by crystals
153(34)
Carmelo Giacovazzo
Introduction
153(1)
Basic properties of X-rays
153(1)
Thomson scattering
154(2)
Compton scattering
156(1)
Interference of scattered waves
157(1)
Scattering by atomic electrons
158(2)
Scattering by atoms
160(1)
The temperature factor
161(2)
Scattering by a molecule or by a unit cell
163(1)
Diffraction by a crystal
164(4)
Bragg's law
168(1)
The reflection and the limiting spheres
168(1)
Symmetry in reciprocal space
169(7)
Friedel law
170(1)
Effects of symmetry operators in the reciprocal space
170(1)
Determination of the Laue class
170(1)
Determination of reflections with restricted phase values
171(2)
Systematic absences
173(3)
Unequivocal determination of the space group
176(1)
Diffraction intensities
176(4)
Anomalous dispersion
180(5)
The Fourier synthesis and the phase problem
185(2)
Appendices 187(91)
Mathematical background
187(15)
Dirac delta function
187(2)
A mathematical model for the lattice
189(1)
Convolutions
190(3)
Some properties of convolutions
193(1)
The Fourier transform
194(2)
Some examples of Fourier transform
196(4)
Fourier transform of spherically symmetric functions
200(1)
Deconvolution of spectra
201(1)
Scattering and related topics
202(18)
Compton scattering
202(1)
The anisotropic temperature factor
202(3)
Symmetry restrictions on the anisotropic temperature factors
205(3)
The Renninger effect and experimental phase determination by means of multiple diffraction experiments
208(5)
Electron diffraction
213(3)
Neutron scattering
216(4)
About electron density mapping
220(7)
References
224(3)
Beyond ideal crystals
227(51)
Carmelo Giacovazzo
Introduction
227(1)
Ordering types
228(1)
Crystal twins
229(7)
Diffuse scattering
236(8)
Thermal diffuse scattering
237(2)
Disorder diffuse scattering
239(5)
Modulated crystal structures
244(3)
Quasicrystals
247(9)
Introductory remarks
247(1)
A mathematical basis
248(2)
Aperiodic tiling and quasicrystals
250(3)
Embedding quasicrystals in higher-dimensional space
253(3)
Liquid crystals (or mesomorphic phases)
256(4)
The paracrystal
260(2)
Amorphous and liquid states
262(8)
Diffraction from a finite statistically homogeneous object
263(2)
Diffraction from a finite statistically homogeneous object with equal atoms
265(3)
Diffraction from an isotropic statistically homogeneous object
268(1)
The Debye formula
268(2)
Diffraction by gases
270(2)
Diffraction by liquids and amorphous bodies
272(2)
Small-angle scattering
274(4)
Appendices 278(110)
Examples of twin laws
278(3)
Cubic system
278(1)
Tetragonal system
278(1)
Hexagonal and tragonal systems
278(2)
Orthorhombic system
280(1)
Monoclinic system
280(1)
Triclinic system
280(1)
How to recognize and treat twins
281(4)
Embedding of modulated structures in higher-dimensional space
285(4)
About Fibonacci numbers and sequences
289(6)
References
291(4)
Experimental methods in X-ray and neutron crystallography
295(93)
Hugo L. Monaco
Gilberto Artioli
Introduction
295(1)
X-ray sources
295(18)
Conventional generators
295(5)
Synchrotron radiation
300(6)
X-ray optics: monochromatization, collimation, and focusing of X-rays
306(7)
Neutron sources
313(5)
Nuclear reactors
314(1)
Pulsed neutron sources
315(2)
Neutron optics
317(1)
X-ray and neutron detectors
318(11)
X-ray detectors
320(8)
Neutron detectors
328(1)
Data collection techniques for single crystals
329(19)
The Laue method
330(1)
The single crystal cameras
331(4)
The single crystal diffractometer
335(13)
Data collection techniques for polycrystalline materials
348(21)
Diffraction of polycrystalline materials
348(4)
Cameras used for polycrystalline materials
352(5)
Diffractometers used for polycrystalline materials
357(5)
Applications of powder diffraction
362(7)
In situ measurements in non-ambient conditions
369(7)
High-temperature polycrystalline diffraction
372(1)
Low-temperature single crystal diffractometry
373(1)
High-pressure experiments
374(2)
Data Reduction
376(12)
Lorentz correction
377(1)
Polarization correction
378(2)
Absorption correction
380(3)
Radiation damage correction
383(3)
Relative scaling
386(2)
Appendices 388(88)
Determination of the number of molecules in the unit cell of a crystal
388(2)
The cylindrical film cameras geometry
390(6)
The precession camera geometry
396(3)
The rotation method geometry
399(14)
References
403(10)
Solution and refinement of crystal structures
413(63)
Davide Viterbo
Introduction
413(2)
Statistical analysis of structure--factor amplitudes
415(4)
The Patterson function and its use
419(13)
The heavy atom method
424(8)
Direct methods
432(33)
Introduction
432(2)
Structure invariants and semi-invariants
434(4)
Probability methods
438(6)
Fixing the origin and the enantiomorph
444(4)
Phase determination procedures
448(17)
Completing and refining the structure
465(11)
Difference Fourier method
465(2)
Least-squares method
467(8)
Absolute configuration
475(1)
Appendices 476(270)
Structure--factor probability distributions
476(3)
Patterson vector methods
479(7)
Probability formulae for triplet invariants
486(3)
Pseudotranslational symmetry
489(1)
Magic integers
490(1)
New multisolution techniques
491(2)
Procedures for completing a partial model
493(10)
Weights for Fourier syntheses
493(2)
Syntheses for completing a partial model
495(1)
References
496(7)
Mineral and inorganic crystals
503(82)
Giovanni Ferraris
Introduction
503(2)
Bonding aspects
505(33)
Chemical bond and solid-state properties
505(1)
Melting
506(1)
Cleavage
507(1)
Structure and morphology
508(1)
Morphology and optical properties
509(1)
Representing crystal structures
509(1)
The ionic radii
510(2)
Packing of spheres
512(4)
Coordination polyhedra
516(1)
Interstitial sites
516(2)
Ionic radii and coordination polyhedra
518(3)
Electrostatic bond strength and Pauling's rules
521(3)
Bond strength versus bond length
524(1)
The charge distribution (CD) method
525(3)
Applications of CD and ECoN
528(2)
Bond valence and hydrogen bond
530(1)
Bond valence and hydrates
531(1)
Bond strength of the O . . . O hydrogen bond
532(1)
Polymorphism
533(1)
Solid solutions
534(2)
Solid solutions, order/disorder and crystal-chemical formula
536(2)
Structure types
538(14)
Closest- and close-packing type structures
538(1)
Packing spheres only
538(1)
Filling tetrahedral sites
539(4)
Filling octahedral sites
543(6)
Filling octahedral and tetrahedral sites
549(1)
More cp structures
550(2)
Structures with complex anions
552(9)
Orthosilicates
552(2)
Disilicates and ring silicates
554(1)
Chain silicates (inosilicates)
555(1)
Layer (sheet) silicates (phyllosilicates)
556(3)
Tectosilicates
559(2)
More materials of technological interest
561(1)
Modular structures
561(14)
Polytypism
561(1)
Modelling the structure of OD polytypes
562(2)
Identification of long-period polytypes
564(3)
Polysomatic series
567(1)
Modelling structures of polysomes
568(3)
Modular series and homology
571(2)
Intersecting modular series
573(1)
Miscellany of modular structures
574(1)
Modulated structures
575(1)
Real structures
575(10)
Symmetry domains
576(2)
Unmixing phenomena
578(2)
References
580(5)
Molecules and molecular crystals
585(82)
Gastone Gilli
Chemistry and X-ray crystallography
585(3)
Crystal and molecular structure
585(2)
The growth of structural information
587(1)
The nature of molecular crystals
588(22)
Intermolecular forces
588(8)
A more detailed analysis of intermolecular forces
596(4)
Thermodynamics of molecular crystals
600(3)
Free and lattice energy of a crystal from atom--atom potentials
603(3)
Polymorphism
606(1)
The prediction of the crystal structures
606(4)
Elements of classical stereochemistry
610(15)
Structure: constitution, configuration, and conformation
610(2)
Isomerism
612(5)
Ring conformations
617(1)
Ring conformation and group theory
618(6)
Computation of puckering coordinates
624(1)
Molecular structure and chemical bond
625(14)
Introduction
625(1)
Quantum-mechanical methods
626(2)
Qualitative bonding theories
628(2)
The VSEPR theory
630(2)
VB theory
632(2)
Molecular mechanics (MM)
634(3)
Molecular mechanics, force fields, and molecular modelling
637(2)
Molecular hermeneutics: the interpretation of molecular structures
639(28)
Correlation methods in structural analysis
639(2)
Some three-centre-four-electron linear systems
641(1)
Nucleophilic addition to organometallic compounds
642(2)
Nucleophilic addition to the carbonyl group
644(1)
Conformational rearrangements
645(5)
Advances in hydrogen bond theory by structure-correlation methods
650(7)
References
657(10)
Protein crystallography
667(79)
Giuseppe Zanotti
Introduction
667(2)
Biological macromolecules
669(14)
Globular proteins
669(1)
Protein folding: general rules
670(1)
Levels of organization of proteins: secondary structure
671(5)
Representation of the polypetide chain conformation
676(1)
Higher levels of organization: tertiary and quaternary structure, domains, and subunits
676(2)
The influence of the medium
678(1)
Groups other than amino-acids
679(2)
Protein classification
681(2)
Nucleic acids
683(1)
Protein crystals
683(11)
Principles of protein crystallization
685(1)
Crystallization methods
686(1)
Testing the conditions: factorial approaches
687(2)
The solvent content of protein crystals
689(2)
Cryotechniques
691(1)
Preparation of isomorphous heavy-atom derivatives
692(1)
How isomorphous are isomorphous derivatives?
693(1)
The solution of the phase problem
694(34)
The isomorphous replacement method
694(1)
The determination of heavy-atom positions
695(1)
The single isomorphous replacement (SIR) method
696(2)
The classical solution of the problem of phase ambiguity: the MIR technique
698(1)
Anomalous scattering: a complementary (or alternative) approach to the solution of the phase problem
699(2)
The optimal choice of wavelength and the multiple anomalous dispersion (MAD) technique
701(2)
The use of anomalous scattering in the determination of the absolute configuration of the macromolecule
703(2)
The treatment of errors
705(4)
The refinement of heavy atoms parameters
709(2)
Maximum-likelihood and Bayesian estimates: an alternative approach in phase refinement
711(1)
Picking up minor heavy-atom sites: the difference-Fourier synthesis
712(1)
Density-modification: how to solve the phase ambiguity and improve the electron density map
713(3)
Rotation and translation functions and the molecular replacement method
716(2)
The first step in molecular replacement: the rotation function
718(2)
The rotation matrix C and the choice of variables
720(1)
Translation functions
720(3)
Self-rotation and self-translation functions: improving the electron density maps
723(2)
Practical hints in molecular replacement
725(1)
The direct methods in macromolecular crystallography
725(3)
The interpretation of the electron density maps and the refinement of the model
728(18)
The interpretation of the electron density maps
728(1)
Interactive computer graphics and model building
729(2)
The refinement of the structure
731(1)
Constrained versus restrained least-squares
732(3)
Restrained and constrained least-squares
735(1)
Crystallographic refinement by molecular dynamics
736(1)
The strategy of the refinement of protein structures
737(2)
R factor and Rfree: structure validation
739(2)
Thermal parameters and disordered structures
741(2)
The organization of solvent
743(1)
The influence of crystal packing
744(1)
Dynamical studies: time-resolved crystallography
744(2)
Appendices 746(64)
Some formulae for isomorphous replacement and anomalous dispersion
746(2)
Translation functions
748(1)
Macromolecular least-squares refinement and the conjugate-gradient algorithm
749(2)
Conventions and symbols for amino acids and peptides
751(8)
References
752(7)
Physical properties of crystals: Phenomenology and modelling
759(51)
Michele Catti
Introduction
759(1)
Crystal anisotropy and tensors
760(5)
Tensorial quantities
761(2)
Symmetry of tensorial properties
763(2)
Overview of physical properties
765(1)
Electrical properties of crystals
766(3)
Pyroelectricity
767(1)
Dielectric impermeability and optical properties
768(1)
Elastic properties of crystals
769(12)
Crystal strain
770(3)
Inner deformation
773(2)
Stress tensor
775(1)
Elasticity tensor
775(4)
Examples and applications
779(2)
Piezoelectricity
781(4)
Symmetry properties of the piezoelectric tensor
783(2)
Modelling of structural and elastic behaviour
785(6)
Atomistic potential functions
785(2)
Athermal equation of state
787(2)
Elastic constants
789(2)
Crystal defects
791(1)
Experimental methods
792(2)
Planar defects
794(3)
Line defects: dislocations
797(8)
The Burgers circuit
799(1)
X-ray topography of dislocations
799(2)
Energy of a dislocation
801(1)
Motion and interaction of dislocations
802(1)
Partial dislocations
803(1)
Small-angle grain boundaries
804(1)
Point defects
805(1)
Thermal distribution of defects
806(1)
Diffusion
807(1)
Ionic conductivity
808(2)
Appendices 810(5)
Properties of second-rank tensors
810(1)
Eigenvalues and eigenvectors
810(1)
Representation surfaces and their properties
811(4)
References
813(2)
Index 815

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