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9780198555780

Fundamentals of Crystallography

by ; ; ; ; ; ;
  • ISBN13:

    9780198555780

  • ISBN10:

    0198555784

  • Format: Paperback
  • Copyright: 1992-10-22
  • Publisher: Oxford University Press
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List Price: $80.00

Summary

In recent years, crystallographic techniques have found application in a wide range of subjects, and these applications in turn have lead to exciting developments in the field of crystallography itself. This new textbook offers an introduction to these developments, and for the first time provides, in a single volume, a comprehensive and accessible overview of modern crystallography. The text offers a rigorous treatment of theory and describes experimental applications in many fields. These are covered in chapters on crystal structure and methods of its determination, symmetry, crystallographic computing, X-ray diffraction, protein crystallography, and crystal physics.

Table of Contents

List of contributors
xiii
Symmetry in crystals
1(60)
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(2)
Crystallographic directions
7(1)
Crystallographic planes
8(1)
Symmetry restrictions due to the lattice periodicity and vice versa
9(2)
Point groups and symmetry classes
11(6)
Point groups in one and two dimensions
16(1)
The Laue classes
17(1)
The seven crystal systems
17(1)
The Bravais lattices
18(4)
Plane lattices
18(1)
Space lattices
19(3)
The space groups
22(8)
The plane and line groups
30(2)
On the matrix representation of symmetry operators
32(3)
Appendices
The isometric transformations
35(2)
Some combinations of movements
37(4)
Wigner-Seitz cells
41(2)
The space-group rotation matrices
43(2)
Symmetry groups
45(10)
Symmetry generalization
55(5)
References
60(1)
Crystallographic computing
61(80)
Carmelo Giacovazzo
Introduction
61(1)
The metric matrix
61(2)
The reciprocal lattice
63(2)
Basic transformations
65(3)
Transformation from triclinic to orthonormal axes
68(1)
Rotations in Cartesian systems
69(4)
Some simple crystallographic calculations
73(4)
Torsion angles
73(1)
Best plane through a set of points
74(1)
Best line through a set of points
75(1)
Principal axes of a quadratic form
75(2)
Metric considerations on the lattices
77(10)
Niggli reduced cell
77(3)
Sublattices and superlattices
80(1)
Coincidence-site lattices
81(2)
Twins
83(4)
Calculation of the structure factor
87(1)
Calculation of the electron density function
88(2)
The method of least squares
90(19)
Linear least squares
90(2)
Reliability of the parameter estimates
92(1)
Linear least squares with constraints
92(1)
Non-linear (unconstrained) least squares
93(1)
Least-squares refinement of crystal structures
94(4)
Practical considerations on crystallographic least squares
98(6)
Constraints and restraints in crystallographic least squares
104(4)
Alternatives to the method of least squares
108(1)
Rietveld refinement
109(8)
The basis of the technique
109(3)
Some practical aspects of Rietveld refinement
112(5)
Analysis of thermal motion
117(3)
The effect of thermal motion on bond lengths and angles
120(2)
About the accuracy of the calculated parameters
122(2)
Appendices
Some metric relations between direct and reciprocal lattices
124(1)
Some geometrical calculations concerning directions and planes
125(2)
Some transformation matrices
127(1)
Reciprocity of F and I lattices
127(1)
Transformations of crystallographic quantities in rectilinear spaces
128(2)
Derivation of the normal equations
130(1)
Derivation of the variance-covariance matrix Mx
131(1)
Derivation of the unbiased estimate of Mx
131(1)
The FFT algorithm and its crystallographic applications
131(2)
Examples of twin laws
133(4)
References
137(4)
The diffraction of X-rays by crystals
141(88)
Carmelo Giacovazzo
Introduction
141(1)
Thomson scattering
142(2)
Compton scattering
144(1)
Interference of scattered waves
144(2)
Scattering by atomic electrons
146(1)
Scattering by atoms
147(1)
The temperature factor
148(2)
Scattering by a molecule or by a unit cell
150(1)
Diffraction by a crystal
151(3)
Bragg's law
154(1)
The reflection and the limiting spheres
154(1)
Symmetry in reciprocal space
155(6)
Friedel law
155(1)
Effects of symmetry operators in the reciprocal space
156(1)
Determination of the Laue class
156(1)
Determination of reflections with restricted phase values
157(2)
Systematic absences
159(2)
Unequivocal determination of the space group
161(1)
Diffraction intensities
161(4)
Anomalous dispersion
165(4)
The Fourier synthesis and the phase problem
169(2)
Modulated crystal structures
171(2)
Appendices
Mathematical background
173(12)
Scattering and related topics
185(16)
Scattering of X-rays by gases, liquids, and amorphous solids
201(15)
About electron density mapping
216(5)
Modulated structures and quasicrystals
221(5)
References
226(3)
Experimental methods in X-ray crystallography
229(90)
Hugo L. Monaco
X-ray sources
229(16)
Conventional generators
229(5)
Synchrotron radiation
234(7)
Monochromatization, collimation, and focusing of X-rays
241(4)
Data collection techniques for single crystals
245(42)
The Weissenberg camera
247(7)
The precession camera
254(5)
The rotation (oscillation) method in macromolecular crystallography
259(9)
Densitometry
268(5)
The single-crystai diffractometer
273(8)
Area detectors
281(6)
Data collection techniques for polycrystalline materials
287(14)
X-ray diffraction of polycrystalline materials
287(2)
Cameras used for polycrystalline materials
289(4)
Diffractometers used for polycrystalline materials
293(4)
Uses of powder diffraction
297(4)
Data reduction
301(11)
Lorentz correction
301(2)
Polarization correction
303(1)
Absorption corrections
304(4)
Radiation damage corrections
308(2)
Relative scaling
310(2)
Appendices
Determination of the number of molecules in the unit cell of a crystal
312(2)
References
314(5)
Solution and refinement of crystal structures
319(84)
Davide Viterbo
Introduction
319(2)
Statistical analysis of structure factor amplitudes
321(3)
The Patterson function and its use
324(11)
The heavy atom method
328(7)
Advanced Patterson methods
335(1)
Direct methods
335(30)
Introduction
335(2)
Structure invariants and semi-invariants
337(3)
Probability methods
340(6)
Fixing the origin and the enantiomorph
346(5)
Phase determination procedures
351(14)
Completing and refining the structure
365(10)
Difference Fourier method
366(1)
Least-squares method
367(7)
Absolute configuration
374(1)
Appendices
Structure factor probability distributions
375(2)
Patterson vector methods
377(7)
Two examples of deriving phase information from positivity
384(1)
Probability formulae for triplet invariants
385(2)
Pseudotranslational symmetry
387(1)
Magic integers
388(2)
New multisolution techniques
390(3)
Procedures for completing a partial model
393(4)
References
397(6)
Ionic crystals
403(62)
Fernando Scordari
The structure of the atom
403(3)
Atoms with a single electron
403(1)
Atoms with more than one electron
404(2)
Interactions between ions
406(12)
Notes on chemical bonds
406(3)
Ionic crystals
409(1)
Lattice energy: the contributions of attractive and repulsive terms
410(4)
Lattice energy: CFSE contribution
414(3)
Applications of lattice energy calculations
417(1)
Ionic radius
418(6)
Maximum filling principle
424(9)
Coordination polyhedra
425(1)
Radius ratio rule
425(2)
Applications of the concept of ionic radius
427(2)
Closest packings
429(4)
Pauling's rules
433(3)
Pauling's first rule
433(1)
Pauling's second rule
433(2)
Pauling's third rule
435(1)
Pauling's fourth rule
436(1)
Pauling's fifth rule
436(1)
Ideal and defect structures
436(5)
MX structures
437(1)
MX2 and M2X structures
438(2)
MX3 and M2X structures
440(1)
Am, BnXp structures
441(4)
On the classification of silicates
445(11)
Liebau's crystallochemical classification
447(6)
Structural formulae
453(1)
Relationship between classification parameters and properties of the cations
453(3)
Appendices
Application of the concept of the packing coefficient (ci)
456(3)
Structural inferences from crystallochemical parameters
459(4)
References
463(2)
Molecules and molecular crystals
465(70)
Gastone Gilli
Chemistry and X-ray crystallography
465(3)
Crystal and molecular structure
465(2)
The growth of structural information
467(1)
The nature of molecular crystals
468(16)
Generalities
468(5)
A more detailed analysis of intermolecular forces
473(5)
Thermodynamics of molecular crystals
478(2)
Free and lattice energy of a crystal from atom-atom potentials
480(2)
Polymorphism and the prediction of crystalstructures
482(1)
Effect of crystal forces on molecular geometry
483(1)
Elements of classical stereochemistry
484(15)
Structure: constitution, configuration, and conformation
484(2)
Isomerism
486(4)
Ring conformations
490(2)
Ring conformation and group theory
492(6)
Computation of puckering coordinates
498(1)
Molecular geometry and the chemical bond
499(12)
An overview of bond theories
499(2)
The VSEPR theory
501(1)
Valence bond (VB) theory
502(2)
Hybridization. The machinery
504(2)
Molecular mechanics
506(5)
Molecular hermeneutics: the interpretation of molecular structures
511(18)
Correlative methods in structural analysis
511(1)
Some three-centre-four-electron linear systems
512(2)
Nucleophilic addition to organometallic compounds
514(1)
Nucleophilic addition to the carbonyl group
515(1)
A case of conformational rearrangement
516(5)
Resonance assisted hydrogen bonding (RAHB)
521(8)
References
529(6)
Protein crystallography
535(64)
Giuseppe Zanotti
Introduction
535(1)
Protein crystals
536(4)
Principles of protein crystallization
536(2)
The solvent content of protein crystals
538(1)
Preparation of isomorphous heavy-atom derivatives
538(2)
How isomorphous are isomorphous derivatives?
540(1)
The solution of the phase problem
540(22)
The isomorphous replacement method
540(4)
Anomalous scattering: a complementary (or alternative) approach to the solution of the phase problem
544(1)
The use of anomalous scattering in the determination of the absolute configuration of the macromolecule
545(1)
The treatment of errors
546(3)
The refinement of heavy-atom parameters
549(2)
Picking up minor heavy-atom sites: the difference-Fourier synthesis
551(1)
A third approach to the solution of the phase ambiguity: real-space filtering
551(1)
Rotation and translation functions and the molecular replacement method
552(8)
Direct methods and the maximum- entropy principle in macromolecular Crystallography
560(2)
The interpretation of electron density maps and the refinement of the model
562(10)
The interpretation of electron density maps
562(1)
Interactive computer graphics and model building
562(1)
The refinement of the structure
563(9)
Protein structure
572(15)
General aspects
573(1)
Levels of organization of proteins: secondary structure
574(3)
Polypeptide chain description
577(1)
Higher levels of organization: tertiary and quaternary structure, domains, and subunits
578(4)
Groups other than amino acids
582(1)
Thermal parameters and disordered structures
583(1)
Solvent structure
583(1)
The influence of crystal packing
584(1)
Protein classification
585(2)
Appendices
Some formulae for isomorphous replacement and anomalous dispersion
587(1)
Translation functions
588(2)
Macromolecular least-squares refinement and the conjugate-gradient algorithm
590(1)
Conventions and symbols for amino acids and peptides
591(3)
References and further reading
594(5)
Physical properties of crystals
599(43)
Michele Catti
Introduction
599(1)
Crystal anisotropy and tensors
600(5)
Tensorial quantities
600(3)
Symmetry of tensorial properties
603(2)
Overview of physical properties
605(1)
Electrical properties of crystals
605(3)
Pyroelectricity
606(1)
Dielectric impermeability and optical properties
607(1)
Elastic properties of crystals
608(11)
Crystal strain
609(2)
Inner deformation
611(2)
Stress tensor
613(1)
Elasticity tensor
614(3)
Examples and applications
617(2)
Piezoelectricity
619(3)
Symmetry properties of the piezoelectric tensor
620(2)
Crystal defects
622(1)
Experimental methods
623(2)
Planar defects
625(3)
Line defects: dislocations
628(7)
The Burgers circuit
629(1)
X-ray topography of dislocations
630(2)
Energy of a dislocation
632(1)
Motion and interaction of dislocations
633(1)
Partial dislocations
634(1)
Small-angle grain boundaries
635(1)
Point defects
635(1)
Thermal distribution of defects
636(1)
Diffusion
637(2)
Ionic conductivity
639(1)
Appendix
Properties of second-rank tensors
640(2)
Further reading 642(3)
Index 645

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