Liquid Metals: From Atomistic Potentials to Properties, Shock Compression, Earth’s Core and Nanoclusters

Preface

List of Abbreviations

Introduction

Chapter 1. Methods of Simulation of Non-Crystalline Systems

Chapter 2. Interparticle Interactions in Solid and Liquid Substances

Chapter 3. Analysis of Properties of Non-Crystalline Models

Chapter 4. Computer Simulation of Non-Crystalline Systems with Use of Diffraction Data on Structure

Chapter 5. Simulation of Some Systems with Pair Interaction

Chapter 6. Lithium

Chapter 7. Sodium

Chapter 8. Potassium

Chapter 9. Rubidium

Chapter 10. Cesium

Chapter 11. Copper

Chapter 12. Silver

Chapter 13. Zinc

Chapter 14. Mercury

Chapter 15. Aluminium

Chapter 16. Gallium

Chapter 17. Tin

Chapter 18. Lead

Chapter 19. Bismuth

Chapter 20. Uranium

Chapter 21. Iron

Chapter 22. Nickel

Chapter 23. Binary alloys

Chapter 24. Calculations of shock adiabats

Chapter 25. Simulation of nanoclusters

Appendix

Index

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Chapter 8

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Chapter 9

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Keywords: Liquid metals, simulation, EAM potentials, thermodynamics, structure, shock compression, nanoclusters

This book may be interesting for all people, working with liquid metals: in ferrous – and non-ferrous metallurgy, in atomic industry, metal physics. It may be the scientific workers in metallurgy, physics of liquids, physical chemistry, atomic science, technical science, computer science. Of course, it may be the university professors, postgraduates, and students