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News of the Australasian Fluid Mechanics Society

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Fluid Mechanics in Australasia

Fluid mechanics is the analysis of fluid flows. The air flowing in our lungs, the blood flowing in our veins, the lava erupting from a volcano, the air flowing over an aircraft wing, water flooding from a dam and the chemicals mixing in a pharmaceuticals plant are all examples of flowing fluids. Fluid mechanicians aim to understand fluid flows, predicting, adapting and harnessing flows for practical applications.

Members of the Australasian Fluid Mechanics Society provide service to aerospace, automotive, biological, chemicals, defence, energy, environmental, food, maritime, medical, mining, pharmaceuticals, sports, and water industries. We teach biomedical, civil, chemical, environmental, and mechanical engineers, applied mathematicians, meteorologists and oceanographers, continuing a 50-year-old tradition of excellence in Australian and New Zealand fluid mechanics.

Our 350-plus members are taking on the greatest challenges of our time in water, food security, energy, health, transportation, weather prediction and climate change, under the overarching imperative of sustainability.

Job Offers and Scholarships

To advertise a position or scholarship, please contact the AFMS administrative officer at afms.admin@gmail.com.

Multiple Positions in Aeronautics

Department of Mechanical Engineering, The University of Hong Kong

Applications are invited for appointment as Tenure-Track Associate Professor/Assistant Professor of Aeronautics and Lecturer/Senior Lecturer in the Department of Mechanical Engineering, to commence as soon as possible.

Click here for more information (Tenure-Track Associate Professor/Assistant Professor)

Click here for more information (Lecturer/Senior Lecturer)

Closing Date: Tuesday, 15th April 2025

PhD scholarship - Simulating offshore wind turbine wake dynamics and its dependence on atmospheric stability

The University of Queensland and Indian Institute of Technology Delhi Research Academy

On- and offshore wind farms are getting larger, with trends toward larger turbines and more turbines per unit area now the norm. To enable the efficient use of turbines within a wind farm, it is important that the reduced efficiency of turbines located in the wake of neighbouring turbines is well understood and quantified. Unfortunately, these wake losses are complicated, with strong dependencies on atmospheric stability, surrounding terrain and topography, flow turbulence, and for offshore wind turbines, wave conditions. With the expectation of increased penetration of offshore wind energy into national electricity grids, the ability to effectively predict power from these wind farms is becoming increasingly important.

This project seeks to explore two main research challenges. Firstly, we seek to better understand the complex relationship between offshore wind turbine wakes, wave conditions and atmospheric stability. This is a particularly difficult modelling challenge as the processes that influence these wake dynamics span a wide range of spatial and temporal scales that are difficult to capture in a single simulation model. This has been deemed a "Grand Challenge" in wind energy research and will be explored here parametrically through both experimental and numerical methods. The second challenge relates to the methods used to study this process. Here we will use numerical simulations (Large Eddy Simulations or Hybrid Turbulence Models) to model the flow behind an offshore wind turbine under different atmospheric stability conditions and with different underlying wave conditions (IIT). We will then attempt to replicate a selection of these flow conditions in the wind-wave tunnel at UQ. We will then do the same in the UQ wind tunnel but make the simplification that the waves can be represented and replaced by a textured undulating surface. In all cases the flow characteristics of the turbine wake will be measured and compared.

Click here for more information

PhD scholarship - Effect of the Acoustic Black Hole on the turbulence transition of a laminar boundary layer flow over a compliant panel

University of Technology Sydney (UTS)

This scholarship is funded by UTS, DIN and DSTG. Each PhD stipend is $47,000 per annum tax-free for a full-time student with the possibility (to be confirmed) to have an additional $5k per year for travelling and attending national/international conferences. This would be in addition to the travel funds from the university/school. Only Australian citizens and permanent residents are eligible for this scholarship.

Project Description

UTS Tech Lab website

Enquiries and Applications should be sent to Dr Mahmoud Karimi (Mahmoud.Karimi@uts.edu.au)

Newsletters

Newsletter Year
AFMS Newsletter 16 2023
AFMS Newsletter 15 2022
AFMS Newsletter 14 2021
AFMS Newsletter 13 2020
AFMS Newsletter 12 2019
AFMS Newsletter 11 2018
AFMS Newsletter 10 2017
AFMS Newsletter 9 2016
AFMS Newsletter 8 2015
AFMS Newsletter 7 2014
AFMS Newsletter 6 2013
AFMS Newsletter 5 2013
AFMS Newsletter 4 2012
AFMS Newsletter 3 2011
AFMS Newsletter 2 2010
AFMS Newsletter 1 2009