• skip to content
  • skip to navigation
  • skip to supporting content
Homepage
CLOK - Central Lancashire Online Knowledge
Menu
  • Home
  • About
  • Policies
  • Deposit Guide: Research eTheses
  • Copyright Guide
  • Contact
  • Links
    • Login
  • Deposit
  • Search Item
  • Search FullText
  • Browse

Kinetic pathways of gyroid-to-cylinder transitions in diblock copolymers under external fields: cell dynamics simulation

Tools
- Tools
+ Tools

Pinna, Marco and Zvelindovsky, Andrei V. (2008) Kinetic pathways of gyroid-to-cylinder transitions in diblock copolymers under external fields: cell dynamics simulation. Soft Matter, 4 (2). pp. 316-327. ISSN 1744-683X

[img]
Preview
PDF - Published Version
1696Kb

Official URL: http://dx.doi.org/10.1039/B706815H

Abstract

Using cell dynamics simulation we investigate the cubic gyroid morphology of block copolymer melts under simple shear flow and electric field. The electric field should be stronger than a certain critical value to induce transition to a cylindrical phase. In the case of simple steady shear the gyroid-to-cylinder transition was observed even for a very weak shear. Quantitative analysis of pathways of gyroid-to-cylinder transition is performed by means of Minkowski functionals. We found that the kinetics of the gyroid-to-cylinder transition are different under electric field and shear flow. Moreover, the gyroid structure under different strengths of electric field shows different pathways. Different types of intermediates such as five-, four-fold connections and “winding” cylinders are found for different pathways.


Item Type:Article
Subjects:Q Science > QC Physics
Schools:School of Computing Engineering & Physcial Sciences
ID Code:5623
Deposited By: Malgosia Bagot
Deposited On:28 Jun 2012 09:51
Last Modified:05 Mar 2013 15:39

Repository Staff Only: item control page

University of Central Lancashire

Preston,
Lancashire,
PR1 2HE

Tel: +44 (0)1772 201 201

Other Links

  • Contact UCLan
  • How to find us
  • Help

  • Facebook
  • Twitter
  • UCLan RSS
  • Contact UCLan
  • Copyright |
  • Disclaimer |
  • Data Protection Act |
  • Freedom of Information