PhD Studentship: Vibration enhancement of miscible flows

Southampton, United Kingdom
Dec 22, 2016
Dec 21, 2017
Contract Type
Full Time
Job Type
PhD / Doctoral
PhD Studentship: Vibration enhancement of miscible flows

Engineering & the Environment

Location: Highfield Campus

Closing Date:  Thursday 21 December 2017

Reference: 822116F2

Project Reference: NGCM-0096

Vibrations can be used to control heat/mass transfer, interface positions and phase separation. High-frequency vibrations may result in generation of average flows, formation of waves on interfaces, Faraday ripples, change of the body buoyancy conditions, etc. All these effects may be used to control and manage fluid flows in industrial applications.

For example, the oil-drilling companies show a growing interest in increasing the oil production with the help of oscillating (acoustic, vibrating, seismic, etc.) forcing to oil and gas fields. The increased interest to this technique is due to its low price, seeming simplicity of implementation, as well as due to the possibility to combine this technique with other methods, such as chemical, thermal, etc. It is assumed that vibrations may stabilise the oil/water interface, facilitate agglomeration of oil blobs making them more accessible for recovery, increase absorption rates for the miscible displacement

In the current project, we plan to investigate the effect of mechanical vibrations on miscible binary systems which saturate a porous medium. The pore-level description will be undertaken. The thermo- and hydrodynamic evolution of the binary mixture will be defined on the basis of the phase-field approach. We will focus on average effects of the high-frequency vibrations, which can be effectively analysed on the basis of the averaging approach, i.e. splitting the governing equations into two systems separately defining small-amplitude fluctuations and large-amplitude convective flows. This approach proved effective for description of enhancement/suppression of mixing by the action of mechanical vibrations and sound waves, description of fluid behaviour in microgravity conditions (a fluid system on board of the orbital space station), and others.

If you wish to discuss any details of the project informally, please contact Anatoliy Vorobev, Email:, Tel: +44 (0) 2380 598345.

This project is run through participation in the EPSRC Centre for Doctoral Training in Next Generation Computational Modelling ( For details of our 4 Year PhD programme, please see;=2652

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