Ever wondered what the sun is made of? Right here before us stands the Institute of Plasma Physics of the Czech Academy of Sciences. This isn’t just any building. It’s a place where scientists unravel the mysteries of plasma the state of matter that makes up 99% of the visible universe.
Established on January 1 1959 the Institute began as a division of the Research Institute for Vacuum Electronics. Its focus shifted to plasma physics in 1963. This was driven by the burgeoning interest in thermonuclear research in the then Czechoslovakia. Early research concentrated on high-frequency plasma heating and the interaction of high-current particle beams with plasma. This led to fascinating discoveries about plasmochemical reactions pulsed plasma technologies and advanced materials.
The Institute’s legacy is marked by remarkable achievements. In 1977 they acquired the TM-1-MH tokamak from the I V Kurchatov Institute of Atomic Energy in Moscow. This wasn’t just any scientific equipment. It marked a pivotal moment in the Institute’s research capabilities. Further developments led to the creation of the CASTOR experimental complex in 1985. This complex facilitated international collaborations expanding the Institute’s reach beyond the Eastern Bloc to France and Italy.
A significant leap forward came in 2007 with the acquisition of the COMPASS tokamak from the UKAEA in Culham Britain. By 2012 COMPASS had reached impressive parameters placing it among the world’s leading tokamaks. Research on COMPASS focused intensely on edge plasma physics. This also integrated fully into the EURATOM program a crucial step in European fusion research.
The Institute is deeply involved in the EUROfusion consortium. Its scientists contribute to the Joint European Torus (JET) and other European tokamaks. They play a crucial role in developing diagnostics for ITER and DEMO fusion reactors. The Institute also collaborates extensively with fusion laboratories worldwide. This underscores the Institute’s position at the forefront of global fusion energy research.
But the Institute’s work goes beyond tokamaks. In 1996 they embarked on a collaboration with the Max Planck Institute of Quantum Optics. This resulted in the acquisition and commissioning of the ASTERIX IV terawatt iodine laser in 2000. This powerful tool has established the PALS research center as one of the most significant laser facilities in Central and Eastern Europe.
The Institute’s dedication extends to the development of ultra-precise optics. In 2010 it established the TOPTEC Regional Center for Special Optics and Optoelectronic Systems in Turnov. This center produces world-class optical systems for space research.
Today with over 300 employees the Institute stands as a leading research institution. Its work encompasses thermonuclear fusion plasma interactions with other matter waste treatment using plasma streams plasma-assisted material processing ultra-precise and special optics and various other plasma-related challenges. The Institute’s pursuit of safe and sustainable energy solutions a key to global energy stability represents a major contribution to the future. This is a true testament to its legacy and ongoing vital role in the world of plasma physics.