Professor Kurnaev was born on 21 December 1942, graduating in 1966 from the Moscow Engineering and Physics Institute, as MEPhI was then known. He subsequently devoted his entire life and career to the University. Defending his "Kandidat nauk" (Candidate of Sciences, the equivalent of a PhD) in 1975, and the "Doctor nauk" (literally "Doctor of Sciences," equivalent to the Habilitation in many European countries) in 1992, he was awarded the title of Professor in 1995. Since 1990, Valery Aleksandrovich has been at the helm of MEPhI's Plasma Physics Department, making it one of Russia's leading centres for R&D in plasma science and for the training of highly qualified specialists in the field of controlled thermonuclear fusion. Valery Aleksandrovich was also highly regarded at state level and was awarded the status of Honoured Worker of both Russian Higher Professional Education and Nuclear Science and Industry.
Beginning his career with pioneering studies of the scattering of light ions (hydrogen and helium), including unique experiments with low energy and molecular ions typical of those found in the cool tokamak plasma boundary region, Professor Kurnaev worked for more than 50 years on problems of controlled fusion. A particular focus of his research, and of his Plasma Physics Department, is in the broad area of plasma-surface interaction, so critical to the success of magnetic fusion. Many of the scientists and engineers trained in the department may now be found throughout the fusion community and in the ITER Organization itself.
Passionately devoted to the education of young scientists, Professor. Kurnaev developed a number of fusion-related lecture courses during his tenure and authored many books, both physics texts and popular science accounts. More than 20 PhD and 70 Masters students earned their degrees under his supervision. His most recent project, now to be carried forward by his colleagues, is the construction of a small spherical tokamak, MEPHIST, intended as a platform for student education and testing of plasma-facing component concepts and novel plasma-surface interaction diagnostics.