I have recently been granted my Doctorate in the field of Computational Fluid Dynamics through Swinburne University of Technology where I have studied for the last five years.
My professional experience has been in teaching Mathematics as a senior lecturer at Baghdad University, and more recently as a lecturer at Swinburne University of Technology, where I taught students how to conduct experiments in the laboratory for mechanical engineering, and how to record the results. My teaching experience has provided me with opportunities to develop additional skills beyond the formal delivery of curriculum content, such as effective communication, and an understanding of how I can meet students at their point of need. I also have supervised students in their final undergraduate year.
I have participated in the development Kiof the curriculum, the assessment of the performance of the department in educational delivery, and the assessment of staff and student welfare. These were undertaken both in collaboration with other teaching staff and in conjunction with the department head in the overall formulation and review of the teaching programme. I have also been responsible for other administrative duties within the Mathematics Department and have the ability to work constructively and responsibly with others.
PhD in Computational Fluid Dynamics
Lecturer at the Department of Mathmatics, University of Baghdad, Baghdad, Iraq
Computational Fluid Dynamics, Mathematical Modelling, Numerical Analysis, Programming,
An annular two-phase, steady and unsteady, flow model in which a conductingfluid flow under the action of magnetic field is concavely. Two models arepresented, in the model one; the magnetic field is perpendicular to the long side ofthe channel, while in the model two is perpendicular to the short side. Also, westudy, to some extent the single-phase liquid flow.It is found that the motion and heat transfer equations are controlled by differentdimensionless parameters namely, Reynolds, Hartmann, Prandtl, and Poiseuilleparameters. The Laplace transform technique is used to solve each of the motion andheat transfer equations. The effects of each of dimensionless parameters upon thevelocity and heat transfer is analyzed.A comprehensive study fo
... Show MoreThis paper deals with the Magnetohydrodynyamic (Mill)) flow for a viscoclastic fluid of the generalized Oldroyd-B model. The fractional calculus approach is used to establish the constitutive relationship of the non-Newtonian fluid model. Exact analytic solutions for the velocity and shear stress fields in terms of the Fox H-function are obtained by using discrete Laplace transform. The effect of different parameter that controlled the motion and shear stress equations are studied through plotting using the MATHEMATICA-8 software.