Date of birth: April 5, 1967
Place of birth: Kharkov, Ukraine
Status: Married, daughter (1997), son (1994)

e-mail: koloskov@rian.kharkov.ua

Education/Diplomas:

• MS in Radio Physics and Electronics in 1989 from the University of Kharkov, Ukraine,

• Candidate of Sci. (PhD) in Radio Physics, 1998 from the Institute of Radio Physics and Electronics, National Academy of Sciences of Ukraine, Kharkov, Ukraine

• Doctor of Sci. (DSc) in Radio Physics, 2016 from the Institute of Radio Physics and Electronics, National Academy of Sciences of Ukraine, Kharkov, Ukraine

Academic ranks:
Senior Scientist from the National Academy of Sciences of Ukraine – 2005

Professional experience:

• Institute of Radio Astronomy, National Academy of Sciences of Ukraine, Kharkov, Ukraine.

• Research fellow – 1989 to 1991

• PhD student – 1991 to 1994

• Research assistant – 1994 to 1998

• Research fellow – 1998 to 2001

• Research associate 2001 to 2003

• Senior Scientist – 2003 to 2017,

• Leading Scientist – 2017 till now

 Expeditions:

• VII – Ukrainian Antarctic expedition (geophysicist, wintering 2002-2003)

• X – Ukrainian Antarctic expedition (chief science officer, wintering 2005-2006)

Scientific interests:

• Koloskov’s scientific interests cover studying of global electromagnetic resonances of the Earth, different aspects of propagation of radio waves in the near-earth plasma, remote sensing, geospace research in Antarctic and Arctic areas. Since 2002 Dr. Koloskov takes active part in Antarctic investigations. He is a member of Scientific and Technical Council of the National Scientific Center of Ukraine. Dr. Koloskov participated in two wintering at the Ukrainian Antarctic research station Akademik Vernadsky: in 7-th Ukrainian Antarctic expedition (UAE), 2002-2003 as geophysicist, in 10-th UAE, 2005-2006 as geophysicist and science deputy leader of the station. Since February till April 2017 Dr. Koloskov visited United States research station Palmer and Ukrainian Antarctic station Akademik Vernadsky. The aims of his visit are to upgrade the research facilities at both stations and implement new type of observations

• Koloskov is coauthor of more than 150 scientific publications (about 60 in English)

 International Grants, Contracts:
AFRL US Special Contract 1998,
NSF of the USA grants, 2004,
INTAS Project 2004 – 2007,
STCU Projects 2000 – 2003,
EOARD (AFRL US) – STCU Partner Project  2002 – 2003,
AFRL – UMLCAR – IRA Partner Project 2007 – 2010,
SIU (Norway-Ukraine) Educational Projects 2011-2015,
EOARD (AFRL US) – STCU Partner Project 2016 – 2019

Teaching activities:
BSc and MSc (24) and PhD (2) theses supervised since 2005 till now,
The list of publications includes 150 titles (monographs, journal articles and conference theses).

Selected publications:
D.L. Hysell et al. HF radar observations of decaying artificial field-aligned irregularities. Journal of Geophysical Research, v. 101. n. A12, 1996, p. 26981‑26993.

Yu.M. Yampolski et al. Bistatic HF radar diag-nostics induced field-aligned irregularities. Journal of Geophysical Research, v. 102. n. A4, 1997, p. 7461‑7467.

R.S. Shubova et al. Sunrise variations of the VLF radio signals at the Academician Vernadsky (Faraday) Antarctic station. Radio Physics and Radio Astronomy. – 2000. – v. 5, no 4,   стр. 337-347. (in Russian)

A.V. Koloskov et al. HF pump-induced large scale radial drift of small scale magnetic field-aligned density striations. Journal of Geophysical Research, v. 107. n. A7, 2002, p. SIA 1-1 – SIA 1-10.

V.G. Galushko et al. Frequency-and-Angular HF Sounding and VHF ISR Diagnostics of TIDs. Radio Science, vol. 38, no. 6, 1102, doi: 10.1029/2002/RS002861, 2003.

A.V. Koloskov et al. Location of superpowerful lightning flashes through polarization magnetic measurements in Schumann resonance waveband. Radio Physics and Radio Astronomy. – 2004. – v. 10, no 4,   стр. 391-403. (in Russian)

A.V. Koloskov et al. Polarization monitoring of the Schumann resonances in the Antarctic and revelation of characteristics of the world thunderstorm activity. Radio Physics and Radio Astronomy. – 2005. – v. 10, no 1,   стр. 11-29. (in Russian)

N.F.Blagoveshchenskaya et al. Probing of medium-scale traveling ionospheric disturbances using HF-induced scatter targets. Ann. Geophysicae, 2006, 24, 2333-2345.

V.G.Galushko et al. Bistatic HF diagnostics of TIDs over the Antarctic Peninsula. Journal of Atmospheric and Solar-Terrestrial Physics, 69 (2007), 403-410.

Bezrodny et al. The ELF Band as a Possible Spectral Window for Seismo-Ionospheric Diagnostics. Sun and Geosphere, v.2, №2, 2007, с.34-39.

V.G.Galushko et al. Self-Scattering of the HF Heater Emissions Observed at Geographically Dispersed Receiving Sites. IEEE Antennas and Propagation Magazine, v. 50, n. 6, December 2008, p. 155-161.

A.V. Koloskov et al. ELF resonant cavities in the geospace as space weather indicators. Space science and technology, 2008, v. 15, no5, p.49-64. (in Russian)

A.V. Koloskov et al. Observations of the radiation from power mains of the North America in Antarctica. Radio Physics and Radio Astronomy. – 2009. – v. 14, No 4,   стр. 367-376. (in Russian)

S.B. Kascheev et al. Experimental investigation of spectral characteristics of HF signals on long- and ultra-long-range radio paths. Radio Physics and Radio Astronomy. – 2010. – v. 1, Issue 2,   стр. 125-136. (in Russian)

A.A. Zhamaletdinov et al. Deep Electromagnetic Sounding of the Lithosphere in the Eastern Baltic (Fennoscandian) Shield with High-Power Controlled Sources and Industrial Power Transmission Lines (FENICS Experiment). ISSN 1069-3513, Physics of the Solid Earth, 2011, Vol. 47, No. 1, p. 2–22.

V.G. Galushko, et al. HF wave scattering by field-aligned plasma irregularities considering refraction in the ionosphere // Radio Science, 2013, 48, 180–189, doi:10.1029/2012RS005072

Williams, et al. Global Circuit Response to the 11-Year Solar Cycle: Changes in Source or in Medium? XV International Conference on Atmospheric Electricity, 15-20 June 2014, Norman, Oklahoma, U.S.A, p.12

N.A. Baru, et al. Evaluation technique for the F2 layer critical frequency by the difference of ionosphere Alfven resonance eigenfrequencies // Radio Physics and Radio Astronomy, Vol.19 (2), 2014, pp. 151-159 (in Russian).

A.V. Koloskov, et al. Network of INTERNET-controled HF receivers for ionospheric research // Radio Physics and Radio Astronomy, Vol.19 (4), 2014, pp. 324-335 (in Russian)

A.P. Nickolaenko, et al. 11-year solar cycle in Schumann resonance data as observed in Antarctica // Sun and Geosphere, т.15, №1, 2015, p.39-50

A.A. Zhamaletdinov et al. Study of Interaction of ELF–ULF Range (0.1–200 Hz) Electromagnetic Waves with the Earth’s Crust and the Ionosphere in the Field of Industrial Power Transmission Lines (FENICS Experiment) // ISSN 0001-4338, Atmospheric and Oceanic Physics, 2015, Vol. 51, No. 8, pp. 826–857.

Najmi, et al. Studies of the ionospheric turbulence excited by the fourth gyroharmonic at HAARP // Geophys. Res. Space Physics, v. 120, i. 8, 2015, 6646–6660, doi:10.1002/2015JA021341.

A.V. Koloskov, et al. Observations and analysis of the Ionospheric Alfven resonance mode structure in a complete 11-year solar cycle // Sun and Geosphere, v.16, N1, 2016, p. 49-54.

Satori, et al. Effects of Energetic Solar Emissions on the Earth–Ionosphere Cavity of Schumann Resonances // Surveis in Geophysics, v 37, i 4, July 2016, p. 758-798, DOI https://doi.org/10.1007/s10712-016-9369-z

Koloskov,·et al. Multipoint observations of Ionospheric Alfvén Resonance // Advances in Astronomy and Space Physics, 6, pp. 45-49, 2016, doi: 10.17721/2227-1481.6.45-49, 2016

V.G. Bakhmutov, et al. Structure and dynamics of geophysical fields in Western Antarctica // Lviv, Lvivpolytechnic Publishing House, 2017, – 340 p. (in Ukrainian).

E. Williams, et al. Rigorous Validation of a Schumann Resonance Method for Global Lightning Mapping in Absolute Units // 1st International Symposium on Lightning Physics and Lightning Meteorology, Beijing, China, September 23-26, 2017, http://islpm2017.csp.escience.cn/dct/page/65580

E.I. Yatsevich, et al. Comparison of long-term Antarctic observations of the schumann resonance with computations on the basis of a two-component OTD-DMM model // Telecommunications and Radio Engineering, v. 76, i. 3, 2017, p. 253-268, DOI: 10.1615/TelecomRadEng.v76.i3.60.

A.V. Zalizovski, et al. A prototype of a portable coherent ionosonde model // // Space science and technology, Vol. 24 (3), 2018, pp. 10-22 (in Russian).