Victor F Petrenko, Robert W Whitworth

Physics of Ice

• Gebundenes Buch

Produktbeschreibung

Ice is one of the most abundant and important materials on Earth, and its unique physical properties are an active area of research in a number of disciplines. This book focuses on the physics of ice, its material properties, and how these are reflected in its molecular and crystalline structure. Despite its simple crystal structure, ice has a rich array of properties due to its hydrogen bonds, and this book includes an extensive discussion of this research. The book provides a careful development of the physical principles underlying the properties of ice and is aimed at pure and applied researchers in the field. It features descriptions of new work on electrical, mechanical, and surface properties, and on the occurrence of many different crystalline phases.

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Produktdetails

• Verlag: Hurst & Co.
• Seitenzahl: 386
• Erscheinungstermin: 18. November 1999
• Englisch
• Abmessung: 242mm x 163mm x 26mm
• Gewicht: 667g
• ISBN-13: 9780198518952
• ISBN-10: 0198518951
• Artikelnr.: 20974423

Inhaltsangabe

1: Introduction
1.1: The importance of ice
1.2: The physics of ice and structure of the book
1.3: The water molecule
1.4: The hydrogen bond
2: Ice Ih
2.1: Introduction
2.2: Crystal structure
2.3: Zero-point entropy
2.4: Lattice energy and hydrogen bonding
2.5: The actual structure
2.6: Summary
3: Elastic, thermal, and lattice dynamical properties
3.1: Introduction
3.2: Elasticity
3.3: Thermal properties
3.4: Spectroscopy of lattice vibrations
3.5: Modelling
4: Electrical properties-theory
4.1: Basics
4.2: Frequency dependence of the Debye relaxation
4.3: The static susceptibility ?s
4.4: Protonic point defects
4.5: Jaccard theory
4.6: Ice with blocking electrodes
4.7: Time constraints
4.8: Summary
5: Electrical properties-experimental
5.1: Introduction
5.2: Techniques
5.3: Pure ice
5.4: Doped ice
5.5: Charge exchange at ice-metal electrodes
5.6: Space-change effects
5.7: Injection and extraction of charge carriers
5.8: Thermally-stimulated depolarization
6: Point defects
6.1: Introduction
6.2: Thermal equilibrium concentrations
6.3: Diffusion and mobility
6.4: Molecular defects
6.5: Protonic point defects
6.6: Nuclear magnetic resonance
6.7: Muon spin rotation, relaxation, and resonance
6.8: Chemical impurities
6.9: Electronic defects
6.10: Photoconductivity
6.11: Review
7: Dislocations and planar defects
7.1: Introduction to dislocations
7.2: Dislocations in the ice structure
7.3: Direct observation of dislocations
7.4: Dislocation mobility
7.5: Electrical effects
7.6: Stacking faults
7.7: Grain boundaries
8: Mechanical properties
8.1: Introduction
8.2: Plastic deformation of single crystals
8.3: Plastic deformation of polycrystalline ice
8.4: Brittle fracture of polycrystalline ice
8.5: Summary
9: Optical and electronic properties
9.1: Introduction
9.2: Propagation of electromagnetic waves in ice
9.3: Infrared range
9.4: Visible optical range-birefringence
9.5: Ultraviolet range
9.6: Electronic structure
10: The surface of ice
10.1: Introduction
10.2: Surface structure
10.3: Optical ellipsometry and microscopy
10.4: Electrical properties of the surface
10.5: Nuclear magnetic resonance
10.6: Scanning force microscopy
10.7: Surface energy
10.8: Review of experimental evidence
10.9: Theoretical models
10.10: Conclusions
11: The other phases of ice
11.1: Introduction
11.2: Ice XI-the ordered form of ice Ih
11.3: Ices VII and VIII
11.4: Ice VI
11.5: Ice II
11.6: Ices III, IV, V, IX, and XII
11.7: Ice X and beyond
11.8: Cubic ice (Ice Ic)
11.9: Amorphous ices
11.10: Clathrate hydrates
11.11: Lattice vibrations and the hydrogen bond
12: Ice in nature
12.1: Lake and river ice
12.2: Sea ice
12.3: Ice in the atmosphere
12.4: Snow
12.5: Glacier and polar ice
12.6: Frozen ground
12.7: Ice in the Solar System
13: Adhesion and friction
13.1: Experiments on adhesion
13.2: Physical mechanisms of adhesion
13.3: Friction