I. Nasyrov

发表

Study of large-scale irregularities generated in the ionosphericF-region by high-power HF waves

V. P. Uryadov, A. M. Nasyrov, K. Groves, 2000 .

Mutual Allocation of the Artificial Airglow Patches and Large‐Scale Irregularities in the HF‐Pumped Ionosphere

S. Grach, E. Sergeev, I. Nasyrov, 2018, Geophysical Research Letters.

Geophysical Research Letters Mutual Allocation of the Artiﬁcial Airglow Patches and Large-Scale Irregularities in the HF-Pumped Ionosphere

S. Grach, E. Sergeev, S. Mousavi, 2018 .

Photometry of artificial airglow emission of the ionosphere stimulated by “Sura” facility radiation

S. Grach, I. Nasyrov, R. Gumerov, 2017, 2017 Radiation and Scattering of Electromagnetic Waves (RSEMW).

Airglow during ionospheric modifications by the sura facility radiation. experimental results obtained in 2010

V. Klimenko, S. Grach, E. Sergeev, 2012 .

Results of integrated studies of the perturbed ionosphere region using short-wave ranging in a wide frequency band and stimulated electromagnetic emission of the ionosphere

E. Sergeev, A. Akchurin, V. G. Vertogradov, 2012 .

The Structure and Dynamics of the HF-Pumped Ionosphere Based on a Joint Analysis of the Artificial Airglow Spots and Two-Dimensional Maps of the Total Electron Content

S. Grach, R. Zagretdinov, I. Nasyrov, 2019, 2019 Russian Open Conference on Radio Wave Propagation (RWP).

The measurement of the ionospheric total content variations caused by a powerful radio emission of “Sura” facility on a network of GNSS-receivers

S. Grach, R. Zagretdinov, I. Nasyrov, 2016 .

Simultaneous observations of the 557.7 nm airglow and stimulated electromagnetic emission during HF pumping of the ionosphere with diagnostic schedule: first results

A. M. Nasyrov, G. Komrakov, S. Grach, 2004 .

The 630 nm and 557.7 nm Airglow During HF Ionosphere Pumping by the SURA Facility Radiation for Pump Frequencies Near the Fourth Electron Gyroharmonic

V. Klimenko, S. Grach, E. Sergeev, 2015 .

IRI electron density analytical model and its comparison with empirical data and high latitude models

T. N. Soboleva, I. Nasyrov, N. Egorova, 1995 .

Propagation of HF radio waves over northerly paths: measurements,simulation and systems aspects

E. M. Warrington, D. Siddle, A. Stocker, 2004 .

Dynamics of large-scale ionospheric inhomogeneities caused by a powerful radio emission of the Sura facility from the data collected onto ground-based GNSS network

S. Grach, R. Zagretdinov, I. Nasyrov, 2017, Geomagnetism and Aeronomy.

Dynamic Changes of the Ionospheric Artificial Airglow Region Caused by High-Power Radio Waves Based on a Joint Analysis of Night-Sky Snapshots in the 630 nm Line and Total Electron Content Variation Maps

S. Grach, R. Zagretdinov, I. Nasyrov, 2020, Radiophysics and Quantum Electronics.

Studies of artificial airglow emission at 557.7 nm (green line) of upper atmosphere caused by Sura facility

Savely Grach, Evgeny Sergeev, G. P. Komrakov, 2006, Atmospheric and Ocean Optics.

Some Results of Photometric Measurements of Ionospheric Artificial Airglow at 557.7 and 630 nm Lines of Atomic Oxygen Caused by High-Frequency Radio Emission of the SURA Facility during Development of Sporadic E Layer

S. Grach, R. Vasilyev, I. Nasyrov, 2022, Atmosphere.

On the Connection Between the Spatial Behavior of the Total Electron Content of the Ionosphere on the GPS Signal Path and the Ionospheric Artificial Airglow in the 630 nm Line

S. Grach, E. Sergeev, A. Akchurin, 2018, Radiophysics and Quantum Electronics.

Analysis of GNSS Signals Strength Passed Through the Heated Volume of the Ionosphere Produced by the SURA Facility

I. Nasyrov, A. Shindin, D. Kogogin, 2022, 2022 IEEE 8th All-Russian Microwave Conference (RMC).

The Method of Plotting a Spatial Distribution Pattern of the Total Electron Content in the Region of Artificial Airglow of the Ionosphere

S. Grach, R. Zagretdinov, I. Nasyrov, 2021, Uchenye Zapiski Kazanskogo Universiteta. Seriya Fiziko-Matematicheskie Nauki.

Spatial Spectrum of Artificial Ionospheric Irregularities Induced by Powerful HF Radiowaves

A. M. Nasyrov, K. Groves, V. Frolov, 2001 .