PROF MICHAEL BREAR

PROF MICHAEL BREAR

Positions

  • Alternative fuels
  • Low emission technologies
  • Reciprocating engines and gas turbines
  • Technical and economic analysis of transport and energy systems

Overview

OverviewText1

  • Michael Brear is the Director of the Melbourne Energy Institute at the University of Melbourne. He guides the Institute’s research on the technical, economic, environmental and social impacts of energy systems. His own research is collaborative with industry and government on • the technical, economic and environmental analysis of transport and energy systems; • systems with reciprocating engines and gas turbines; • combustion of conventional and alternative fuels. Michael is a Fellow of Engineers Australia and the Australian Institute of Energy and he previously established the University’s Master of Energy Systems. Prior to commencing at the University, he worked for ICI Australia (now Orica), then undertook graduate studies at Cambridge University and post-doctoral research at the Massachusetts Institute of Technology.    

Affiliation

Member of

  • AIE - Australian Institute of Energy. Full Membership 2010 - 2016
  • ASME - American Society of Mechanical Engineers. Member 2010 - 2016
  • SAE - Society of Automotive Engineers. Full Member 2006 - 2016
  • SAE-A - Society of Automotive Engineers Australasia. Member 2006 - 2016
  • IEAust - Engineers Australia. Full Membership 1993 - 2016

Publications

Selected publications

Research

Investigator on

Awards

Education and training

  • PhD, University of Cambridge 2001
  • MPhil, University of Cambridge 1997
  • BSc, University of Melbourne 1994
  • BEng, University of Melbourne 1993

Awards and honors

  • Fellow of the Institution of Engineers of Australia, 2010
  • ARC Future Fellowship 2010-2013, Australian Research Council (ARC), 2010
  • Fellow of the Australian Institute of Energy, 2010

Supervision

Available for supervision

  • Y

Supervision Statement

  • Michael Brear's research group is interested in both fundamental and applied aspects of energy systems. All of this work is focused on developing affordable, new technologies that can significantly reduce greenhouse gas emissions whilst improving air quality.

    Our activities range from the modelling of complete power plants and power systems, both non-renewable and renewable, to the fundamental fluid dynamics and thermodynamics of specific devices. We emphasise experimental validation, and collaborate closely with other academics and a range of industry and government partners.