A/Professor Laure Bourgeois
Microscope Manager, Monash Centre for Electron Microscopy
Associate Professor, Materials Science and Engineering
Department of Materials Science and Engineering
Laure works at the Monash Centre for Electron Microscopy within Office of the Vice-Provost (Research and Research Infrastructure) at Monash University as an Associate Professor. She is also Adjunct Research Fellow at the Department of Materials Science and Engineering.
- 2012 Associate Professor, Monash Centre for Electron Microscopy & Adjunct Research Fellow, Department of Materials Engineering, Monash University, Australia
- 2007 Senior Lecturer, Monash Centre for Electron Microscopy & Adjunct Research Fellow, Department of Materials Engineering, Monash University, Australia
- 2006 Electron Microscopist, Monash Centre for Electron Microscopy, Monash University, Australia
- 2001 Logan Research Fellow, Department of Materials Engineering, Monash University, Australia
- 2000 Research Fellow, Department of Materials Engineering, Monash University, Australia
- 1998 Japan Science and Technology Agency Fellow, National Institute for Research in Inorganic Materials (former National Institute for Materials Science)
- 1997 Center of Excellence Fellow, National Institute for Research in Inorganic Materials (former National Institute for Materials Science).
Doctor of Philosophy (Ph.D), University of Melbourne
Diploma of Advanced Studies, UniversitY Paris Sud, France
B.Sc., University of Western Australia
Invitations and Awards
- 2016 Invited Speaker, The 16th European Microscopy Congress, France, August – September 2016
- 2015 Invited Speaker, International Conference on Solid-Solid Phase Transformations in Inorganic Materials, Canada, June – July 2015
- 2015 Invited Speaker, International Conference on Frontiers in Materials Processing, Applications Research & Technology, India, June 2015
- 2012 Invited Speaker, International Conference on Aperiodic Crystals, Australia, September 2012
- 2012 Invited Speaker,The Minerals, Metals & Materials Society (TMS) Annual Meeting, March 2012
- 2011 Invited Speaker, International Conference on Small Science, Australia, August 2011
- 2011vInvited Speaker, 21st Australian Conference on Microscopy & Microanalysis, Australia, July 2010
- 2009 Invited Speaker, 26th Conference of the Society of Crystallographers in Australia and New Zealand, Australia, April 2009
- 2001-2006 Monash Logan Research Fellowship.
Australian Microscopy and Microanalysis Society
Laure Bourgeois’s area of expertise is in the application of advanced transmission electron microscopy techniques for the determination of the atomistic structure of inorganic materials. My current research interests include the nucleation and growth of solid-state precipitates in light alloys and curved graphitic structures.
Not started projects
Atomistic modeling at the mesoscale of solid-state aggregates in light alloys
Complex Interfaces and Solid-State Precipitation in Advanced Materials
Solid-state precipitates are key features of the microstructures of many natural and artificial materials and govern their properties. Yet understanding, let alone designing, the microstructures of materials remains a formidable challenge. The recent discovery of a new class of embedded interfaces in aluminium alloys offers the prospect of determining the atomic-scale mechanisms of precipitation. In this project we will apply the latest microscopy and computational techniques synergistically to characterise such interfaces and develop atomic-scale mechanisms of nucleation and growth in model alloy systems. This work will constitute a major step towards practical control of solid-state precipitation in technologically important materials.
Annealing strengthening in magnesium alloys
Magnesium extrusion alloys developed for improved fuel efficiency and green environment suffer from a tension-compression yield strength asymmetry problem: they are strong under tension but weaker under compression, thus limiting their use in high-strength applications. An unusual annealing strengthening phenomenon of magnesium extrusion alloys was recently discovered that offers a significant opportunity to solve this problem. In this project, advanced experimental techniques, including high-resolution electron microscopy, will be used to reveal the mechanisms underlying this annealing strengthening phenomenon. The outcomes are likely to form the scientific basis for developing next-generation magnesium wrought alloys.
High Sensitivity Broad Range Digitised Electron Microscopy
To install in a central location at Monash University a digital image plate reader and appropriate recording hardware and software as a multi-user facility for high-resolution electron imaging and diffraction. Imaging plates are, in appearance, like photographic film and are used in the electron microscope in the same way. They are, however, nearly a hundred times more sensitive, have a range a hundred thousand times greater, and, when interrogated by a reader, generate a digitised output and can then be used again. We propose to exploit those characteristics in the study of advanced materials, in the investigation of phases changes, and in the characterisation of materials not sufficiently stable in the electron beam to observe by more conventional methods.
Atomistic modelling at the mesoscale of solid-state aggregates in light alloys
Imaging and Modelling of Nanoscale Aggregates in Light Alloys
Template-Directed Growth and Assembly of Nanoscale Graphitic Carbon Structures
The various nanometre-scale forms of graphitic carbon have been strong candidates for use as novel building blocks in electronic, opto-electronic and electro-mechanical devices. However, their development has been hampered by a lack of control of the type, quality and homogeneity of structures produced by conventional methods. This project aims to fabricate and characterise thin films of ordered, high-quality carbon nanostructures. A novel synthesis route, involving the controlled deposition of carbon onto template substrates, is proposed. The products will be studied with near-atomic resolution to understand their formation mechanisms, and hence approach the goal of elaborating carbon-based nanodevices.
States of Aggregation - Clustering, Segregation, Nucleation and Nanostructure
High strength light alloys are nanostructured materials, deriving their mechanical properties from nanoscale dispersions of strengthening precipitate phases controlled by alloy composition and thermomechanical processing. Atom-probe field-ion microscopy and high-resolution electron microscopy will be combined to study the aggregation of solute atoms that precedes formation of the precipitate phases. Experimental studies at high spatial resolution will be complemented by elastic strain energy calculations and first-principles modelling of the aggregation behaviour, to define its role in controlling precipitation processes and thus properties. The work will provide a basis for improved alloy design and a platform for computer-aided design of high-performance alloys.
Atomistic simulations of solid-state aggregates in aluminium alloys
Last modified: 28/04/2020