“This award, which I value highly, is not only for me and the whole team but also for the whole field of X-ray astronomy, which has a great future ahead of it”, said Werner. The development of this field now allows scientists to study the vast majority of the universe, which primarily made up of a hot, strongly ionized, low-density, X-ray-emitting plasma.
It is the space between galaxies and clusters of galaxies, an intergalactic gas that cannot be observed with optical telescopes but only with the help of X-ray telescopes. These must be placed above the Earth’s atmosphere as it absorbs the X-rays.
Werner won the award for his achievements to date, which include the first detection of X-ray-emitting intergalactic gas in a fibre connecting two clusters of galaxies and his finding that hot plasma was evenly enriched with heavy elements by supernovae more than 10 billion years ago. His previous studies have also shown that black hole activity can lift relatively large amounts of cooling gas from the innermost regions of host galaxies, preventing cooling and star formation.
More recently, Werner’s efforts have focused on demonstrating that nanosatellites can be used to critically monitor gamma-ray bursts caused by neutron star collisions or the gravitational collapse of very massive, rapidly rotating stars.
Werner is 40-years-old and comes from Rožňava, Slovakia. After studying at Pavel Jozef Šafárik University in Košice, he received his Doctorate from Utrecht University and the Netherlands Institute for Space Research. From 2008 to 2016, he worked at Stanford University and led the Hot Space Research Group at Loránd Eötvös University in Budapest. Since 2016, he has been an associate professor at the Department of Theoretical Physics and Astrophysics, Faculty of Science, MU. In 2020, he received the MUNI Award for Science and Humanities, an extraordinary grant from the MU Internal Grant Agency.
Translated by Kevin Roche