Space weather laboratory
The team of the lab
Projects & research
Studies on coronal mass ejections and associated solar events (coronal dimmings, EUV waves, etc.)
Coronal mass ejections (CMEs) and solar flares are the most energetic phenomena in our solar system. CMEs are giant billion-ton magnetic plasma clouds expelled from the Sun at speeds from 100 to over 3,000 kilometers per second, and can hit the Earth in a matter of days, it accidentally gets in the way. Heating Earth, the plasma bubble may compress the magnetopause from a day side to the point inside the orbits of geosynchronous satellites, leaving them, as well as astronauts without natural protection. The Earth's atmosphere heats and expands and as a result, satellites decelerate, lose their orbits and can fall uncontrollably to the Earth, and geomagnetic storms accompanied with spectacular aurora displays cover our planet. We study the origin and impulsive evolution of CMEs using different space-based extreme ultraviolet (EUV) and coronagraph instruments, which includes also the research on associated phenomena such as coronal dimmings - transient regions of strongly reduced emission in soft X-ray and EUV wavelengths, and EUV waves, which like a supersonic airplane can initiate shockwaves. CMEs and the associated shocks can accelerate hazardous high-energy particles, posing a strong risk to astronauts and technology in space and on Earth.
Video description: Halloween Solar Storms during a two-week period in October and November of 2003, that affected a variety of technological systems around the world. Coronal Mass Ejections propagating into the interplanetary space. These events are usually accompanied by polar auroras and intense geomagnetic storms. Credit: SOHO/EIT/MDI/LASCO COR1+COR2
SOLARNET - Integrating High Resolution Solar Physics
Solarnet is dedicated to preparing for the European Solar Telescope (EST) and is supported by the EU research and innovation funding programme Horizon 2020. We focus on data reduction and data homogenization of ground-based solar images, including deep learning methods for stable classification and quantification of image quality, modeling of atmospheric effects, mitigating image degradations with the support of Skoltech’s high-performance cluster. It has high importance for providing a robust data stream to be used for real-time event detections like solar flares and autonomous monitoring of the Sun using cutting-edge technology of observational solar physics.
video description: Gregor/ Sunspot in HD. Gregor Solar Telescope
Space weather services.
We focus on forecasting of solar wind high speed streams associated with coronal holes on the Sun - extended dark regions, where plasma particles can escape along the open magnetic field from the solar surface into interplanetary space, leaving a ‘hole’ in the solar corona. Such forecasts are important as solar wind high-speed streams cause recurrent geomagnetic storms and background solar wind speed is important parameter for modeling CME transit times and arrival speeds at Earth. We also develop advanced forecasting techniques of the solar radio flux at F10.7 cm and F30 cm, which is required by most models characterizing the state of the upper Earth atmosphere to specify satellite orbits, re-entry services, collision avoidance maneuvers and modeling of space debris evolution. And we are working on solar activity, solar cycle, geomagnetic storm and polar aurora predictions.
Tatiana Podladchikova, C. Quintero Noda, R. Schlichenmaier, L. R. Bellot Rubio, M. G. Löfdahl, E. Khomenko, J. Jurčák, J. Leenaarts, C. Kuckein, S. J. González Manrique, S. Gunár, C. J. Nelson, J. de la Cruz Rodríguez, K. Tziotziou, G. Tsiropoula, G. Aulanier & etc...
The European Solar Telescope.
Astronomy & Astrophysics, 666, A21 (2022) number of page 36.
Tatiana Podladchikova, Shantanu Jain, Astrid M. Veronig, Olga Sutyrina, Mateja Dumbović, Frédéric Clett
and Werner Pötzi.
Maximal growth rate of the ascending phase of a sunspot cycle for predicting its amplitude.
Astronomy & Astrophysics, 663 (2022) A88, number of page 11.
Jonas Saqri, Astrid M. Veronig, Alexander Warmuth, Ewan C. M. Dickson, Andrea Francesco Battaglia, Tatiana Podladchikova, Hualin Xiao, Marina Battaglia, Gordon J. Hurford and Säm Krucker.
Multi-instrument STIX microflare study.
Astronomy & Astrophysics, 659, A52 (2022), number of page 11.
Werner Pötzi, Astrid Veronig, Robert Jarolim, Jenny Marcela Rodríguez Gómez, Tatiana Podlachikova, Dietmar Baumgartner, Heinrich Freislich & Heinz Strutzmann .
Kanzelhöhe Observatory: Instruments, Data Processing and Data Products.
Solar Physics, 296, A164 (2021), number of page 35.
M. Dumbović, A. M. Veronig, T. Podladchikova, J. K. Thalmann, G. Chikunova, K. Dissauer, J. Magdalenić, M. Temmer, J. Guo and E. Samara.
2019 International Women’s Day event. Two-step solar flare with multiple eruptive signatures and low Earth impact.
Astronomy & Astrophysics, 652 (2021) A159, number of page 20.