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Investigations of solar radio emission, solar wind and ionospheric disturbances with using Ukrainian decameter radio telescope system URAN and spacecrafts. Kosm. nauka tehnol. 2015 ;21(3):03–08.
. The results of observations of dynamic processes in the ionosphere that accompany the effect of acoustic radiation on the atmospheric boundary layer. Kosm. nauka tehnol. 2015 ;21(1):54–57.
. Approximation of ionosphere parameters using spherical functions. Space Science and Technology. 2018 ;24(6):74-79.
. Ionospheric response to acoustic influence according to the data of DEMETER and Chibis-M microsatellites. Space Sci. & Technol. 2018 ;24(6):41-56.
. Atmospheric gravity waves among other physical mechanisms of seismic-ionospheric coupling. Space Science and Technology. 2020 ;26(3):55-80.
Global and local effects of seismic activity in the ionosphere. Space Science and Technology. 2022 ;28(6):12-24.
. Space project "IONOSAT – MICRO": readiness for implementation. Space Science and Technology. 2022 ;28(6):03-11.
. Ionospheric total electron content variations caused by the Tonga volcano explosion of January 15, 2022. Space Science and Technology. 2023 ;29(3):67-87.
. Modelling of spatial temporal variations of dynamic and thermal process parameters in geospace over Ukraine during the minimum of 24th cycle of solar activity (2009, 2019). Space Science and Technology. 2023 ;29(1):15-35.
. Physical effects of the January 15, 2022, powerful Tonga volcano explosion in the Earth-atmosphere-ionosphere-magnitosphere system. Space Science and Technology. 2023 ;29(2):54-77.
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