Kirensky Institute of Physics

- Laboratory of Physics of Magnetic Phenomena headed by Leonid Vasil’evich Kirensky.
- Laboratory of Biophysics headed by Ivan Aleksandrovich Terskov.
- Laboratory of Spectroscopy headed by Anatolii Vasil’evich Korshunov.
- In 1959, the Laboratory of Crystallophysics was organized and headed by Kirill Sergeevich Aleksandrov.
- In 1970, the Institute was named after Academician Leonid Vasil’evich Kirensky.
Leaders:
- Academician Leonid V. Kirensky (1956—1969);
- Corresponding Member of the AS USSR Ivan A. Terskov (1969—1983);
- Academician of the AS USSR/RAS Kirill S. Aleksandrov (1983—2003);
- Academician of the RAS Vasilii F. Shabanov (2003—2011).
- Since 2011, the Institute has been led by Dr. of Phys. and Math. Sci. Nikita Valentinovich Volkov.
At present, the Kirensky Institute of Physics is a Federal state budgetary institution, a noncommercial scientific organization within the Siberian Branch of the Russian Academy of Sciences. The Institute’s structure comprises 14 laboratories.
Research focus:
- Physics of Condensed Matter (dielectrics, magnetic materials, nanostructures).
- Physical Materials Science (materials for electronics and spintronics, superconducting materials).
- Optics and Laser Physics (photonic crystals, novel optical materials, techniques, and devices).
- Radiophysics (radiophysical methods for environmental diagnostics).
Recent advances:
- Synthesis of new dielectric, ferroelectric, and ferroelastic crystals; complex experimental study of their structure and properties; development of the methods for their description and for predicting the structure and characteristics of materials.
- Study of electromagnetic wave propagation in composite photonic crystals, including those with the liquid crystal components; development of the methods for controlling the light field parameters on the basis of the photonic crystals; fabrication of novel functional materials and devices for optoelectronics and information technologies on the basis of the liquid crystals capsulated in polymeric matrices.
- Development of the unique technology of the group crystal growth from fluxes, which allows obtaining large high-quality crystals; synthesis and complex investigations of the magnetic state and spin dynamics of new oxide copper compounds; development of the theory of the incommensurate state and the spin dynamics in these systems.
- Experimental and theoretical study of the dynamic and kinetic properties of strongly correlated systems, inhomogeneous media, meso- and nanostructures; discovery of fundamentally new physical effects in the systems with strong electron correlations, such as high-temperature superconductors, manganite crystals with colossal magnetoresistance, fullerenes and fullerene-based systems; development of the theory of quantum transport in integrable billiards.
- Fabrication of integrated microstrip devices on dielectric substrates for microwave engineering, automated systems for designing and manufacturing of microwave components; development of fundamentals of the description of nanometer electronic systems; investigation of the effect of inhomogeneities on the electromagnetic wave spectrum and attenuation in superlattices.