Reprint

Advances in Computer Simulation Studies on Crystal Growth

Edited by
November 2018
206 pages
  • ISBN978-3-03897-356-0 (Paperback)
  • ISBN978-3-03897-357-7 (PDF)

This book is a reprint of the Special Issue Advances in Computer Simulation Studies on Crystal Growth that was published in

Chemistry & Materials Science
Engineering
Environmental & Earth Sciences
Summary

Crystals are indispensable in technology, nature, and our daily lives. For example, cooking uses many kinds of crystallized products, such as salt, sugar, and fat crystals; electronic devices contain semiconductor crystals; living organisms produce mineral crystals to maintain biological processes; and snow and ice crystals play a crucial role in climate change. For these and other topics related to crystals, an especially important area of research is crystal growth.

 

Computer simulations of crystal growth have become increasingly important as a result of rapid increases in available computing power. Computer simulations can analyze and predict various aspects of crystal growth, including molecular-scale growth and nucleation mechanisms, the structure and dynamics of surfaces and interfaces, and pattern formation.

 

This book presents state-of-the-art research and reviews of computer simulation studies on crystal growth for hard-sphere particles, organic molecules, ice, and functional materials. The studies use a variety of simulation methodologies, including molecular simulations, first-principles simulations, continuum simulations, and multiscale simulations. This book will interest graduate students and researchers in crystal growth science and technology and will provide a helpful reference for scientists who want to familiarize themselves with computer simulations of crystal growth.

Format
  • Paperback
License
© 2019 by the authors; CC BY license
Keywords
kinetics; microstructure; crystallization; level set; Monte Carlo simulation; crystal growth; surface and interface; density matrix renormalization group calculation; surface tension; kinetic roughening; surface free energy; step–step attraction; computer simulation; semiconductor epitaxial growth; strain relaxation; growth mode; InAs/GaAs; nanowire formation; polytypes; InP nanowires; selective-area growth; polymer crystallization; flow induced crystallization; Morphological Monte Carlo simulation; shish-kebabs; Si nanoparticle; plasma synthesis; theoretical model; reactive force field; molecular dynamics; graphene; carbon nanocones; molecular dynamics simulation; surface ordering; chain molecules; homogeneous nucleation; heterogeneous nucleation; surface freezing; complete wetting; assembly; crystallization; hard spheres; crystal/fluid interface; colloidal crystals; sedimentation; colloidal epitaxy; molecular dynamics; kinetic Monte Carlo; continuum simulations; crystal growth; crystal dissolution; multiscale simulations; ice surface; winter flounder antifreeze protein; sodium ions; calcium ions; synergistic effects; molecular dynamics simulation; molecular dynamics (MD); Monte Carlo (MC); first-principles (FP) simulation; continuum simulation; multiscale simulation