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Computer Modelling of Structural Transformations of Nanopores in Fcc Metals

  • Book

  • 130 Pages
  • November 2019
  • Materials Research Forum
  • ID: 4969358
The book focuses on the effects of shock waves on vacancies and their clusters in fcc crystals. It is shown that high-speed cooperative atomic displacements represent a powerful tool for the purposeful modification of defect structures in crystalline bodies. The results are important for radiation material science, nano-engineering, the study of shock wave effects and the ultrasonic treatment of materials.

The book focuses on the effects of shock waves on vacancies and their clusters in fcc crystals.

Table of Contents

1. Cooperative effects arising in solids under the radiation exposure
1.1 Radiation-dynamic effects
1.2 Processes of pore formation in solids under irradiation

2. Computer experiment in condensed matter physics
2.1 Methods of computer experiment on the microscale level
2.2 Method of molecular dynamics
2.3 Potentials of the interparticle interaction
2.4 The methodology of computer experiments

3. Influence of cooperative atomic displacements on the processes of pore formation in crystals
3.1 Modelling of the post-cascade shock wave and the initiation of low-temperature self-diffusion by it
3.2 Pore formation under the influence of post-cascade shock waves
3.3 Structural transformations of nanopores
3.4 Enlargement of nanopores
3.5 Dissolution of a nanopore near a free surface
3.6 Peculiarities of structural transformations of a nanopore in a deformed computational cell
3.7 Splitting of a nanopore in the grain boundary region
3.8 Structural transformations of a nanopore of a cylindrical shape

4. Formation of nanopores in bimetallic particles under the influence of shock waves
4.1 Influence of the post-cascade shock waves on the interphase boundary of bimetals
4.2 The passage of shock waves through the interface of bimetallic particles

Conclusions

References


Author

M.D. Starostenkov, A.V. Markidonov, P.V. Zakharov, P.Y. Tabakov