2004AIP conference proceedingsRequires access

Brownian Dynamics Simulation for Suspension of Oblate Spheroidal Particles in Simple Shear Flow

Takehiro Yamamoto

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Abstract

Brownian dynamics simulations have been carried out for suspensions of oblate spheroidal particles interacting via the Gay‐Berne potential. The system changed from isotropic phase to nematic one with increasing the particle concentration. In addition, the behavior of particles in simple shear flows was simulated; the shear was imposed on the systems in nematic phase at rest. The systems exhibited various motions of the director depending on the shear rate, e.g. continuous rotations of director at low shear rates and flow aligning at high shear rates.

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Brownian dynamics simulations have been carried out for suspensions of oblate spheroidal particles interacting via the Gay‐Berne potential. The system changed from isotropic phase to nematic one with increasing the particle concentration. In addition, the behavior of particles in simple shear flows was simulated; the shear was imposed on the systems in nematic phase at rest. The systems exhibited various motions of the director depending on the shear rate, e.g. continuous rotations of director at low shear rates and flow aligning at high shear rates.

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Available abstract

Brownian dynamics simulations have been carried out for suspensions of oblate spheroidal particles interacting via the Gay‐Berne potential. The system changed from isotropic phase to nematic one with increasing the particle concentration. In addition, the behavior of particles in simple shear flows was simulated; the shear was imposed on the systems in nematic phase at rest. The systems exhibited various motions of the director depending on the shear rate, e.g. continuous rotations of director at low shear rates and flow aligning at high shear rates.

Key concepts: Brownian dynamics, Simple shear, Shear flow, Shear rate, Brownian motion, Shear (geology), Isotropy, Mechanics

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