Robert Fedosejevs
Electrical and Computer Engineering
University of Alberta
Canada
Biography
Dr Fedosejevs has over 30 years experience in the development of laser systems and their applications in various areas including fusion energy research, the generation of XUV and soft x-ray radiation for lithography applications, micromachining, thin film coatings and studies in ultrafast phenomena. Dr Fedosejevs' past research and development work includes the development and application of picosecond optical probe techniques to the study of high power laser-plasma interactions and high temperature plasma phenomena. He has been a visiting scientist at the National Research Council of Canada, the Max-Planck-Institute fuer Quantenoptik in Germany, CELIA (Centre Laser Intenses et Applications) at Bordeaux and at the Institute for Laser Engineering at Osaka University in Japan. He has worked on a number of laser systems including high power nanosecond carbon-dioxide, iodine and glass lasers, picosecond glass and krypton fluoride lasers, and femtosecond krypton fluoride and Ti:Sapphire laser systems. With these systems he has studied a number of high temperature plasma phenomena including absorption, plasma instabilities, x-ray generation, hydrodynamics of the laser produced plasmas and applications in micromachining, laser sensing and laser deposition of thin film coatings. Many of the studies have been related to the quest to develop laser fusion energy.
Research Interest
As a visiting scientist I spent five years total at the National Research Council of Canada, three years at the Max-Planck-Institut fuer Quantenoptik in Germany, one year at the CELIA laser institute in Bordeaux, five weeks at the Lawrence Livermore National Laboratory in California and three weeks at the Institute for Laser Engineering at Osaka University in Japan. During those periods I worked with a number of laser systems including high power nanosecond carbon-dioxide, iodine and glass lasers, picosecond glass and krypton fluoride lasers, and femtosecond titanium sapphire and glass laser systems. Recently, I started a new collaboration with the Lawrence Livermore National Laboratory on experiments related to Fast Ignition and Fusion Energy. With these systems I’ve studied a number of high temperature plasma phenomena including x-ray generation and hydrodynamics of laser produced plasmas. Current Research Relativistic Laser Plasma Interactions and Fast Ignition for Laser Fusion (NSERC strategic Grant) Laser sensor technology for identification and characterization of materials (MPBT/NSERC Industrial Research Chair) The development of high power fibre optic and femtosecond laser systems The study of laser-plasma interactions on a femtosecond and picosecond time scale including high intensity particle and x-ray generation and applications to laser fusion Precision micromachining and nanomachining using femtosecond laser pulses (NCE - Canadian Institute for Photonic Innovations) Development of high energy proton telescope for use on proposed satellite mission (CSA funding in collaboration with the Space Sciences group of the Physics Department).