Molecular dynamics simulation of liquid-vapor coexistence curves of metals

3Citations
Citations of this article
16Readers
Mendeley users who have this article in their library.

Abstract

A Molecular dynamics implementation of Gibbs ensemble method is applied to determine liquid-vapor coexistence curves of metals using embedded atom model potentials. As an application of the code we developed, the liquid-vapor coexistence curves of Aluminum and Copper are simulated using Cai and Ye potential. The critical constants obtained were found to be slightly lower than the range of experimental results. The results show that the potentials parameters obtained by fitting to low temperature solid properties are not adequate to accurately determine the liquid-vapor phase diagram.

References Powered by Scopus

Molecular dynamics with coupling to an external bath

27026Citations
N/AReaders
Get full text

Embedded-atom method: Derivation and application to impurities, surfaces, and other defects in metals

6567Citations
N/AReaders
Get full text

Semiempirical, quantum mechanical calculation of hydrogen embrittlement in metals

2541Citations
N/AReaders
Get full text

Cited by Powered by Scopus

Vapor-liquid equilibrium and polarization behavior of the GCP water model: Gaussian charge-on-spring versus dipole self-consistent field approaches to induced polarization

18Citations
N/AReaders
Get full text

Many-Body Dissipative Particle Dynamics Simulation of Liquid-Vapor Coexisting Curve in Sodium

14Citations
N/AReaders
Get full text

The effect of nano-void on deformation behaviour of Al-Cu intermetallic thin film compounds

6Citations
N/AReaders
Get full text

Register to see more suggestions

Mendeley helps you to discover research relevant for your work.

Already have an account?

Cite

CITATION STYLE

APA

Ramana, A. S. V. (2012). Molecular dynamics simulation of liquid-vapor coexistence curves of metals. In Journal of Physics: Conference Series (Vol. 377). Institute of Physics Publishing. https://doi.org/10.1088/1742-6596/377/1/012086

Readers over time

‘12‘13‘14‘15‘16‘18‘19‘20‘23‘2401234

Readers' Seniority

Tooltip

PhD / Post grad / Masters / Doc 8

53%

Researcher 4

27%

Professor / Associate Prof. 3

20%

Readers' Discipline

Tooltip

Engineering 6

43%

Materials Science 4

29%

Physics and Astronomy 3

21%

Chemical Engineering 1

7%

Save time finding and organizing research with Mendeley

Sign up for free
0