ACADEMICIAN EMIL DJAKOV INSTITUTE OF ELECTRONICS
BULGARIAN ACADEMY OF SCIENCES

72, Tzarigradsko chaussee blvd, 1784-Sofia, Bulgaria


 

  

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Acad.E.Djakov

Acad. Emil Djakov
founder of the Institute of Electronics

ABOUT THE ACADEMICIAN EMIL DJAKOV INSTITUTE OF ELECTRONICS

In its quality of a part of the Bulgarian Academy of Sciences, the Institute's mission is to acquire, accumulate and disseminate scientific knowledge and technologies in its research field, thus contributing to Bulgarian people's intellectual and material enrichment and to widening humankind's scientific horizons.

The Institute of Electronics at the Bulgarian Academy of Sciences was established in 1963 as a non-profit state organization conducting research, education and dissemination of scientific knowledge in the fields of Physical Electronics, Photonics and Quantum Electronics and Radio Sciences. Soon, the Institute of Electronics evolved as a leading scientific institution in these areas of applied physics and engineering within the Bulgarian Academy of Sciences and in Bulgaria.

Through the years, the Institute's research field and structure have developed dynamically in response to the changes taking place in the main trends in applied physics and technologies: materials science and technologies, physics of nano-sized objects and nanotechnologies, nanoelectronics, photonics, opto-electronics, quantum optics, environmental physics and monitoring, biomedical photonics and biomedical applications.

The Institute's main areas of scientific development have been preserved, while the specific research today takes into account the contemporary problems and requirements, the world-wide tendencies and Bulgaria's specificity and traditions.

The research efforts in physical electronics are concentrated on studying and solving the problems of generating and controlling electron and ion beams and their interaction with materials. This includes theoretical modeling, modern techniques, research and industrial equipment for micro- and nano-structuring, thin films deposition and study, modification of surfaces, vacuum melting and welding of metals by intense electron beams. The physical basis is being formed of creating nanostructures, nanomaterials and nanoelements by using electron and ion beams. Furthermore, fundamental properties are being investigated of gasses and gas plasma, plasma arcs and plasma torches in view of developing diagnostic techniques and applications in thin films deposition and plasma chemistry.

The research in photonics and quantum electronics comprises theoretical and experimental studies on the interaction of short and ultrashort lasers pulses with matter; development of novel nanostructuring technologies; laser thin-films deposition and treatment; light-induced absorption and transmission in alkaline vapors; development of complex laser systems for analysis and modification of semiconducting and superconducting materials; theoretical and experimental investigation of non-linear optical phenomena; biomedical photonics.

The research efforts in radiophysics are directed to clarifying the processes of interaction of optical and microwave electromagnetic radiation with the atmosphere and the Earth's surface; developing experimental systems for laser remote sensing and monitoring of the atmosphere; microwave remote radiometric measurement of soil moisture content; developing algorithms and techniques for signals and information processing; constructing microwave units and systems for radar and communication applications; studying non-linear processes in optical communication media. New ferrite devices with micrometric dimensions were developed with possibility for a higher degree of integration. Active research on gyro-magnetic materials is underway, in view of reaching higher frequency ranges, especially mm-waves for wireless communications and protection from powerful microwave radiation.

In all three fields of research, the Institute's scientists have achieved internationally-recognized priority by discovering new physical phenomena and relations, among which are ion channeling in the semi-channels of a crystal surface and hyperchanneling at grazing angles; ion-stimulated sorption; plasma electrodes for gas lasers; particularities in the interaction of electron and ion beams with materials; electromagnetically induced absorption in Hanle configuration.

Scientists from the Institute are actively involved as experts in the work of a number of governmental and international organizations, such as the National Scientific Fund, scientific boards at other institutes within the Bulgarian Academy of Sciences, academic boards of universities, editorial boards of Bulgarian and international scientific journals, expert boards of the European Commission, program committees of national and international scientific events.

Scientists from the Institute are delivering 35 academic courses in ten universities in Bulgaria and have been invited to lecture at universities in the European Union, Japan, etc. At present, eight doctoral students are preparing their theses in the Institute.

The Academician Emil Djakov Institute of Electronics was where the first Bulgarian laser, lidar, plasma torch, ultrahigh vacuum pump, micro-channel electron-optical converter, parametric microwave amplifier, Josephson junctions and SQUID, portable microwave moisture meter, magnetometer, installations for electron lithography, electron beam melting, refining, and welding were built, followed by the development of several advanced e-beam technologies, novel types of optical gas sensors, pioneering achievements in nanostructuring and nanoparticle formation, laser and plasma high technologies.

The Academician Emil Djakov Institute of Electronics aims to sustain and advance previous pioneering work by promoting the theory, basic science and technology of photonics, optoelectronics, environmental monitoring, laser bio-medical research and applications. This involves searching for new materials, new techniques, new devices and new applications.

    

STRATEGIC PLAN AND PRIORITIES FOR 2014-2016

The development is envisaged of research subjects and short-and long-term plans, including the prospects for strengthening the interdisciplinary cooperations within the Academy, at national level and internationally (in Europe and worldwide).

The physical and engineering sciences are key driving forces for research and innovation, providing fundamental insight and creating new applications.

The Institute of Electronics' strategic plan for scientific research is based on the results and achievements obtained by the most competitive researchers and laboratories. It coincides nowadays with several emerging fields. The research activity of the Institute has had the tendency of becoming more complex and interdisciplinary. Bearing in mind the priorities of the National Strategy for Scientific Development 2020 and of Horizon 2020 for the next three years the Institute's research priorities will be:

Topic 1. Electronic, ionic and optical techniques for development of new materials and methods for their characterization. Nanomaterials and nanotechnologies.
1.1. Electronic techniques;
1.2. Ionic techniques;
1.3. New magnetic materials and superconductivity;
1.4. Optical techniques.
Topic 2. Photonics for quality of life improvement: photonic techniques for analysis of media and structures.
2.1. Biophotonics;
2.2. Remote sounding of the atmosphere: remote studies of aerosol processes, cloud formations and gaseous pollution in the atmosphere over Republic of Bulgaria and across Europe as a part of the EARLINET European Lidar Network;
2.3. Quantum-optical techniques for monitoring the Earth's magnetic field and the electromagnetic pollution;
2.4. New techniques for analysis of food contamination based on surface-enhanced Raman spectroscopy.
Topic 3. Physics and diagnostics of the plasma in controlled thermonuclear fusion (CTF) reactors. Theory, modeling, experiments. (Within the framework of the European Fusion Development Agreement (EFDA) and EURATOM).
3.1. Development and application of novel, highly-efficient techniques for experimental determination of the parameters of magnetically-confined plasma in CTF reactors of the tokamak (incl. ITER and DEMO) and stellarator types;
3.2. Theoretical and numerical studies of high-power gyrotrons for electron cyclotron resonance heating (ECRH) and current drive (ECCD) in CTF reactors and of high-frequency gyrotrons for novel technological applications and for fundamental scientific research. Development of computer software and carrying out numerical experiments for computer-aided design (CAD), analysis and optimization of new gyrotrons with improved parameters.
Topic 4. Social physics and application of physical methods in economics.

    

   

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