Professor Saulius Juodkazis received his doctorate in experimental physics and material science jointly from Vilnius University (Lithuania) and Lyon-I University (France) in '97. From then on, he held previous faculty positions at the University of Tokushima (lecturer and assistant professor) and Hokkaido (associate professor) in Japan. He has contributed to development of a three-dimensional femtosecond laser micro-fabrication for optofluidic, optical memory, and photonic crystal applications. He is author of more than 500 peer-reviewed journal papers, reviews, and several book chapters.
His current research is focused on applying principles of plasmonic light-field enhancement and its spectral control for applications in sensing, solid-state lighting, and solar energy conversion.
S. Juodkazis is a Fellow of OSA and SPIE. He organised series of Australian-Japanese student research conferences, promotes domestic and international student research projects and initiated the first Australian joint SPIE-OSA student chapter in 2013.
His current research is focused on applying principles of plasmonic light-field enhancement and its spectral control for applications in sensing, solid-state lighting, and solar energy conversion.
S. Juodkazis is a Fellow of OSA and SPIE. He organised series of Australian-Japanese student research conferences, promotes domestic and international student research projects and initiated the first Australian joint SPIE-OSA student chapter in 2013.
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GaN surface ablation by femtosecond pulses: atomic force microscopy studies and accumulation effects
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This course explains basic experimental and theoretical principles of nanoscale 3D fabrication/printing and characterisation of nanoscale properties by light scattering and absorption using nano-sharp tip. 3D nanofabrication has become an important tool for fabrication of photonic circuitry and sensors. This course will be overviewing the current existing methods of 3D laser fabrication of photonic wire bonding and interconnects, holographic larger area patterning, focused ion and electron lithography, and thermal scanning tip writing. Students and researchers will gain better understanding of scaling properties and fabrication throughput of nanoscale devices based on modern 3D nanofabrication tools. Also, characterisation of nanoscale structures and patterns with nanoscale imaging tools will be introduced based on most recent commercial equipment.
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