Vladimer Chavchanidze Institute of Cybernetics of the Georgian Technical University was established on October 3, 1960. Interdisciplinary fundamental and applied researches have been carried out at the Institute since its establishment. The goals of the institute in brief: • The control of quantum systems, construction of the elementary gates for quantum computer and investigation of the complexity for quantum and classical algorithms. Development of the theory of dynamic multiplicity logic for its application in neural networks; • Making representations of risk-neutral measures that are needed to calculate asset prices in incomplete markets, as well as providing methods for approximating them. Development of methods for predicting stochastic processes; • An investigation on the efficacy of using cybernetic methods in the mechanization task of selective picking of tea leaves; • Investigating the reception, processing, storage, and transmission of the information at the individual neuron level, and to investigate the effects of external electromagnetic fields on these processes; • Biomedical studies aimed at early diagnosis of cancer of urological organs; • Measurement and analysis of the functional properties of doped high-temperature superconductors and cobaltite thermoelectrics in order to improve their performance for large-scale applications; • A continuous technological line of information and automatic control for the synthesis of multifunctional magnetic nanoparticles was created at the institute. Consequently, the possibilities of treating cancerous diseases in living organisms are studied here; • Optical-spectroscopic study of biological objects. Quantum information and calculations based on spectroscopic transitions; • Study of optical, electro- and photo-optical properties of anisotropic materials such as semiconductors and liquid crystals. Investigation of the laser emission from the liquid crystals; • Develop technologies of obtaining new nanomaterials for their use in nanomaterials; • Photo- and thermochromic liquid crystals for visualization of optical and thermal fields. Controlled drug delivery systems. Visualization and destruction of tumor cells. Titanium dioxide nanoparticles based, environment purification films. Solar radiation concentrators; • The Polarization Holographic Research Laboratory carries out fundamental and applied investigations in optics, polarization holography, and optical materials, including full Stokes polarimetry based on the polarization-holographic diffraction element developed in the Laboratory.