IRMA-International.org: Creator of Knowledge
Information Resources Management Association
Advancing the Concepts & Practices of Information Resources Management in Modern Organizations

A Molecular Dynamics Simulation Study of the Mechanical Properties of Carbon-Nanotube Reinforced Polystyrene Composite

A Molecular Dynamics Simulation Study of the Mechanical Properties of Carbon-Nanotube Reinforced Polystyrene Composite
View Sample PDF
Author(s): Nabila Tahreen (Bangladesh University of Engineering and Technology, Bangladesh)and K. M. Masud (Bangladesh University of Engineering and Technology, Bangladesh)
Copyright: 2014
Pages: 12
Source title: Nanotechnology: Concepts, Methodologies, Tools, and Applications
Source Author(s)/Editor(s): Information Resources Management Association (USA)
DOI: 10.4018/978-1-4666-5125-8.ch019

Purchase


Abstract

In recent years, polymer/carbon nanotube composites have attracted increased attention because the polymer properties have significantly improved. In this paper, a single walled carbon nanotube (SWCNT) is used to reinforce polystyrene matrix. Molecular dynamics (MD) simulations are used to study two periodic systems - a long CNT-reinforced polystyrene composite and amorphous polystyrene matrix itself. The axial and transverse elastic moduli of the amorphous polystyrene matrix and nanocomposites are evaluated using constant-strain energy minimization method. The results from MD simulations are compared with corresponding rule-of-mixture predictions. The simulation results show that CNTs significantly improve the stiffness of polystyrene/CNT composite, especially in the longitudinal direction of the nanotube. Polystyrene posses a strong attractive interaction with the surface of the SWCNT and therefore play an important role in providing effective adhesion. The conventional rule-of-mixture predicts a smaller value than MD simulation where there are strong interfacial interactions. Here the authors report a study on the interfacial characteristics of a CNT-PS composite system through MD simulations and continuum mechanics.

Related Content

Wassim Jaber. © 2024. 24 pages.
Hussein A.H. Jaber, Zahraa Saleh, Wassim Jaber, Adnan Badran, Hatem Nasser. © 2024. 17 pages.
Sakshi Garg, Kunal Arora, Sumita Singh, K. Nagarajan. © 2024. 20 pages.
Wassim Jaber. © 2024. 14 pages.
Ray Gutierrez Jr.. © 2024. 22 pages.
Wassim Jaber, Hussein A.H. Jaber, Ramzi Jaber, Zahraa Saleh. © 2024. 16 pages.
Zahraa Saleh, Wassim Jaber, Ali Jaber, Edmond Cheble, Mikhael Bechelany, Akram Hijazi, David Cornu, Ghassan Mahmoud Ibrahim. © 2024. 22 pages.
Body Bottom