Julie M Cairney | |
---|---|
Born | Julie M Cairney |
Alma mater | University of New South Wales (BEng, PhD) |
Scientific career | |
Fields | Microstructural Characterisation Materials science |
Institutions | University of Sydney |
Thesis | (2002) |
Doctoral advisor | Paul Munroe |
Website | sydney |
Julie M. Cairney is the Pro Vice Chancellor - Research Enterprise and professor in the School of Aerospace, Mechanical and Mechatronic Engineering [1] at the University of Sydney. She is an expert in microscopy, focusing on the understanding and characterization of materials used for structural applications, renewable energy, medical science [2] [3] and geosciences [4] [5] including the use and development of the atom probe microscope. [6]
Julie serves on the board of Cicada Innovations and Uniseed.
Cairney grew up in Broken Hill, [6] an outback town in Australia. She studied for her Bachelor of Metallurgical Engineering (Physical Metallurgy) at the University of New South Wales sponsored by Pasminico Limited and graduated in 1998. [1] Subsequently, she undertook PhD studies with Professor Paul Munroe [6] also at the University of New South Wales and completed her PhD in 2007.
After her PhD, in 2001-2002 Cairney undertook a Royal Academy of Engineering funded research fellowship [6] with Professor Ian Jones at the University of Birmingham. [1] In 2002, she was a Vice Chancellor's Post-doctoral Fellow with Prof. Mark Hoffman at the University of New South Wales, with a stint as a visiting scientist in 2004 with Professor Manfred Rühle [6] at the Max Planck Institute in Stuttgart. [1] In 2006, Cairney moved to the University of Sydney as a Lecturer and established a materials characterisation group. Since moving Cairney has occupied the role of Associate Dean Talented Students Program Showcase in the Faculty of Science, [7] the Director of the Sydney Microscopy and Microanalayis [1] and Head of Research for the School of Aerospace, Mechanical and Mechatronic Engineering. In service to the microscopy community, since 2014 Cairney serves on the Advisory Board for the Journal "Ultramicroscopy" [6] [8] and since 2014 she serves on the International Steering Committee for the International Field Emission Society (IFES) [6] and currently is Vice-President of IFES. [9] Her research spans materials science, medicine, and geosciences, with recent applications which enable the understanding of the structure of tooth enamel [2] [5] as well as advanced materials for mining. [10] Cairney is one of the youngest full professors at the University of Sydney and one of the few female professors of engineering in Australia. [4] Cairney has also served on the Australian Research Council College of Experts and the New Zealand Marsden Fund. [11]
Her awards include:
Atom Probe Microscopy by Baptiste Gault, Michael P. Moody, Julie M. Cairney and Simon P. Ringer [16]
The atom probe was introduced at the 14th Field Emission Symposium in 1967 by Erwin Wilhelm Müller and J. A. Panitz. It combined a field ion microscope with a mass spectrometer having a single particle detection capability and, for the first time, an instrument could “... determine the nature of one single atom seen on a metal surface and selected from neighboring atoms at the discretion of the observer”.
Nanotechnology was defined by the National Nanotechnology Initiative as the manipulation of matter with at least one dimension sized from 1 to 100 nanometers (nm). At this scale, commonly known as the nanoscale, surface area and quantum mechanical effects become important in describing properties of matter. The definition of nanotechnology is inclusive of all types of research and technologies that deal with these special properties. It is therefore common to see the plural form "nanotechnologies" as well as "nanoscale technologies" to refer to the broad range of research and applications whose common trait is size. An earlier description of nanotechnology referred to the particular technological goal of precisely manipulating atoms and molecules for fabrication of macroscale products, also now referred to as molecular nanotechnology.
The Molecular Foundry is a nanoscience user facility located at the Lawrence Berkeley National Laboratory in Berkeley, California, and is one of five Nanoscale Science Research Centers sponsored by the United States Department of Energy.
A scanning transmission electron microscope (STEM) is a type of transmission electron microscope (TEM). Pronunciation is [stɛm] or [ɛsti:i:ɛm]. As with a conventional transmission electron microscope (CTEM), images are formed by electrons passing through a sufficiently thin specimen. However, unlike CTEM, in STEM the electron beam is focused to a fine spot which is then scanned over the sample in a raster illumination system constructed so that the sample is illuminated at each point with the beam parallel to the optical axis. The rastering of the beam across the sample makes STEM suitable for analytical techniques such as Z-contrast annular dark-field imaging, and spectroscopic mapping by energy dispersive X-ray (EDX) spectroscopy, or electron energy loss spectroscopy (EELS). These signals can be obtained simultaneously, allowing direct correlation of images and spectroscopic data.
The Department of Materials at the University of Oxford, England was founded in the 1950s as the Department of Metallurgy, by William Hume-Rothery, who was a reader in Oxford's Department of Inorganic Chemistry. It is part of the university's Mathematical, Physical and Life Sciences Division
Focused ion beam, also known as FIB, is a technique used particularly in the semiconductor industry, materials science and increasingly in the biological field for site-specific analysis, deposition, and ablation of materials. A FIB setup is a scientific instrument that resembles a scanning electron microscope (SEM). However, while the SEM uses a focused beam of electrons to image the sample in the chamber, a FIB setup uses a focused beam of ions instead. FIB can also be incorporated in a system with both electron and ion beam columns, allowing the same feature to be investigated using either of the beams. FIB should not be confused with using a beam of focused ions for direct write lithography. These are generally quite different systems where the material is modified by other mechanisms.
George David William Smith FRS, FIMMM, FInstP, FRSC, CEng is a materials scientist with special interest in the study of the microstructure, composition and properties of engineering materials at the atomic level. He invented, together with Alfred Cerezo and Terry Godfrey, the Atom-Probe Tomograph in 1988.
David J. Smith is a Regents' Professor of physics at Arizona State University. He is an Australian experimental physicist and his research is focussed on using the electron microscope to study the microstructure of different materials. He is a pioneer in high-resolution relectron microscopy technique and is very well known in his field. His interests are focused on thin films, nanostructures, novel materials and magnetism.
The following outline is provided as an overview of and topical guide to nanotechnology:
Ondrej L. Krivanek is a Czech/British physicist resident in the United States, and a leading developer of electron-optical instrumentation. He won the Kavli Prize for Nanoscience in 2020 for his substantial innovations in atomic resolution electron microscopy.
Nanosensors Inc. is a company that manufactures probes for use in atomic force microscopes (AFM) and scanning probe microscopes (SPM). This private, for profit company was founded November 21, 2018. Nanosensors Inc. is located in Neuchatel, Switzerland.
Franz Josef Gießibl is a German physicist and university professor at the University of Regensburg.
Sergei V. Kalinin is a corporate fellow at the Center for Nanophase Materials Sciences (CNMS) at Oak Ridge National Laboratory (ORNL). He is also the Weston Fulton Professor at the Department of Materials Science and Engineering at the University of Tennessee-Knoxville.
Liquid-phase electron microscopy refers to a class of methods for imaging specimens in liquid with nanometer spatial resolution using electron microscopy. LP-EM overcomes the key limitation of electron microscopy: since the electron optics requires a high vacuum, the sample must be stable in a vacuum environment. Many types of specimens relevant to biology, materials science, chemistry, geology, and physics, however, change their properties when placed in a vacuum.
A probe tip is an instrument used in scanning probe microscopes (SPMs) to scan the surface of a sample and make nano-scale images of surfaces and structures. The probe tip is mounted on the end of a cantilever and can be as sharp as a single atom. In microscopy, probe tip geometry and the composition of both the tip and the surface being probed directly affect resolution and imaging quality. Tip size and shape are extremely important in monitoring and detecting interactions between surfaces. SPMs can precisely measure electrostatic forces, magnetic forces, chemical bonding, Van der Waals forces, and capillary forces. SPMs can also reveal the morphology and topography of a surface.
This glossary of nanotechnology is a list of definitions of terms and concepts relevant to nanotechnology, its sub-disciplines, and related fields.
Joanne Etheridge is an Australian physicist. She is Director of the Monash Centre for Electron Microscopy and Professor in the Department of Materials Science and Engineering at Monash University.
Peter David Nellist, is a British physicist and materials scientist, currently a professor in the Department of Materials at the University of Oxford. He is noted for pioneering new techniques in high-resolution electron microscopy.
Angus Ian KirklandFInstP FRSC FRMS is the JEOL Professor of Electron Microscopy at the Department of Materials, University of Oxford. Professor Kirkland specialises in High-resolution transmission electron microscopy and Scanning transmission electron microscopy.
Transmission Kikuchi Diffraction (TKD), also sometimes called transmission-electron backscatter diffraction (t-EBSD), is a method for orientation mapping at the nanoscale. It’s used for analysing the microstructures of thin transmission electron microscopy (TEM) specimens in the scanning electron microscope (SEM). This technique has been widely utilised in the characterization of nano-crystalline materials, including oxides, superconductors, and metallic alloys.
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