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M

M. Hughes

Researcher at University of Greenwich

Publications -  16
Citations -  205

M. Hughes is an academic researcher from University of Greenwich. The author has contributed to research in topics: Convection & Computational fluid dynamics. The author has an hindex of 7, co-authored 16 publications receiving 190 citations.

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Finite volume methods applied to the computational modelling of welding phenomena

TL;DR: The computational modelling of welding phenomena within a versatile numerical framework embraces models from both the fields of computational fluid dynamics (CFD) and computational solid mechanics (CSM), and cell-centred finite volume methods are employed.
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The numerical modelling of DC electromagnetic pump and brake flow

TL;DR: In this paper, the interaction of an externally imposed magnetic and electric field on the laminar flow of a conducting fluid in a channel is studied using computational techniques, where the Navier-Stokes equations and the equations describing the electromagnetic field are solved simultaneously in a single control volume-type computational fluid dynamic code, in a moderate Hartmann number and interaction parameter regime.
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Megasonic agitation for enhanced electrodeposition of copper

TL;DR: In this article, an agitation method based on megasonic acoustic streaming is proposed to overcome the limitations in plating rate and uniformity of the metal deposits during the electroplating process.
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The CFD analysis of simple parabolic and elliptic MHD flows

TL;DR: In this article, a model for three interesting magnetohydrodynamic (MHD) flows has been considered, whereby predicted numerical solutions are compared with their analytical counterparts, with a Fortran attachment supplying momentum sources to the equations of motion to model the effect of an externally imposed magnetic field.
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Numerical algorithms for modelling electrodeposition: tracking the deposition front under forced convection from megasonic agitation

TL;DR: In this article, two different numerical approaches have been developed, which capture the motion of the deposition interface and 2-D simulations are presented for both methods under two deposition regimes: those where surface kinetics is governed by Ohm's law and the Butler-Volmer equation, respectively.