Library

In this section:

Basic papers

1. Saraev A., Simakov A., Shlykov A., Tezkan B.. Controlled source radiomagnetotellurics: A tool for near surface investigation in remote regions // Journal of Applied Geophysics 146 (2017) 228–237. 

2. Сараев А.К. Симаков А.Е., Шлыков А.А. Метод радиомагнитотеллурических зондирований с контролируемым источником // Геофизика, 2014, № 1, с. 18-25.

3. Tezkan B., Saraev A. A new broadband radiomagnetotelluric instrument: application to near surface investigations // Near Surface Geophysics, Vol. 6, No 4, 2008: 245-252.

4. Tezkan B. Radiomagnetotellurics. Groundwater Geophysics: A Tool for Hydrogeology (edited by Kirsh R.). 2008, pp. 295-317.

5. Pedersen L.B., Bastani M., Dynesius L. Some characteristics of the electromagnetic field from radio transmitters in Europe // Geophysics,Vol. 71, No. 6, 2006; pp. G279–G284

6. M. Bastani and L.B. Pederson, Estimation of magnetotelluric transfer functions from radio transmitters. Geophysics, Vol. 66, № 4, 2001, P. 1038-1051.

7. Turberg and Barker 1996, Joint application of radio-magnetotelluric and electrical imaging surveys in complex subsurface environments // First Break, Vol 14, No 3, Marth 1996.

Theses

1. Шлыков А.А. Интерпретация данных метода радиомагнитотеллурических зондирований с контролируемым источником: дис. … канд. физ.-мат. наук: 25.00.10: защищена 23.09.12: утв. 24.12.15. — М., 2015. — 106 с.

2. Ismail N. Controlled source radiomagnetotelluric (CSRMT) application in enviromental and resource exploration. ACTA Universitatis Upsaliensis, Uppsala, 2009, 68 p.

3. Kalscheuer T. Improvement and Assessment of Two-Dimensional Resistivity Models Derived from Radiomagnetotelluric and Direct-Current Resistivity Data. ACTA Universitatis Upsaliensis, Uppsala, 2008, 84 p.

4. Juanatey. Joint inversion of Direct Current (DC) and Radiomagnetotelluric (RMT) data. ACTA Universitatis Upsaliensis, Uppsala, 2007, 57 p.

5. Linde N. Characterization of hydrogeological media using electromagnetic geophysics. ACTA Universitatis Upsaliensis, Uppsala, 2005, 66 p.

6. Bastani M. EnviroMT – a new Controlled Source/ Radio Magnetotelluric System. ACTA Universitatis Upsaliensis, Uppsala, 2001, 179 p.

Joint usage and inversion

1. Каминский А., Ерохин С., Шлыкоа А. Совместная инверсия данных электротомографии и РМТ/АМТ // Геофизика, №4, 2015, с. 32 - 39,

2. Sudha, Tezkan B., Siemon B. Appraisal of a new 1D weighted joint inversion of ground based and helicopter-borne electromagnetic data // Geophysical Prospecting, 2014, P. 1-18.

3. Bastani M., Hübert J., Kalscheuer T., Pedersen L.B., Godio A., Bernard J. 2D joint inversion of RMT and ERT data versus individual 3D inversion of full tensor RMT data: An example from Trecate site in Italy // GEOPHYSICS, VOL. 77, NO. 4, 2012, P. WB233–WB243.

4. Perttu N., Persson L., Erlström M., Elming S. Magnetic resonance sounding and radiomagnetotelluric measurements
   used to characterize a limestone aquifer in Gotland, Sweden // Journal of Hydrology 424–425, 2012, P. 184–195. 

5. Candansayar M.E., Tezkan B. Two-dimensional joint inversion of radiomagnetotelluric and direct current resistivity data // Geophysical Prospecting, 2008, 56, P. 737–749.

Displacement current

1. Shlykov A.A., Saraev A.K. Wave effects in the field of a high-frequency horizontal electric dipole // Izvestiya, Physics of the Solid Earth, 2014, Vol. 50, № 2, pp. 249–262.

2. Kalscheuer T., Pedersen L.B., Siripunvaraporn W. Radiomagnetotelluric two-dimensional forward and inverse modelling accounting for displacement currents // Geophys. J. Int., 2008, 175, P. 486–514.

3. Persson L., Pedersen L.B. The importance of displacement currents in RMT measurements in high resistivity environments // Journal of Applied Geophysics, 51, 2002, P. 11 –20.

4. Вешев А.В., Ладатко О.Н., Морозова О.М. Нормальное поле вертикального магнитного диполя // Вопросы геофизики, Вып. 30, Учен. зап. Ленингр. гос. ун-та. Сер. физич. и геологич. наук, № 411 - Л.: Изд-во Ленингр. ун-та, 1983, с. 159-204.

Extended abstracts

1. A. Saraev, A. Simakov, A. Shlykov and B. Tezkan. Experience of Application of the Radiomagnetotelluric Sounding Method for the Solution of Environmental Tasks // Near Surface Geoscience 2012 – 18th European Meeting of Environmental and Engineering Geophysics.

2. A. Shlykov, A. Saraev. Features of electromagnetic field of a horizontal electric dipole used in the controlled source RMT method // 75th EAGE Conference & Exhibition incorporating SPE EUROPEC 2013 London, UK, 10-13 June 2013.

3. Shlykov A. Saraev A. Estimations of the macro-anisotropy of geological sections using data of the controlled source radiomagnetotellurics // Extended Abstract, 22nd EM Induction Workshop Weimar, Germany, August 24-30, 2014.

4. A. Saraev, K. Antashuk, A. Simakov, A. Shlykov, A. Konkov. Near surface exploration for horizontal welling using CSRMT method: case study // International Conference on Engineering Geophysics, 9-12 October 2017, United Arab Emirates University, Al Ain, UAE.

5. A. Shlykov, K. Antashchuk, A. Saraev, A. Simakov, S. Agrahari. Applications of the controlled-source radiomagnetotelluric method in near-surface investigations // 9th Congress of the Balkan Geophysical Society 5-9 November 2017, Antalya, Turkey.

6. A. Shlykov, S. Agrahari, K. Antaschuk, A. Saraev, A. Simakov. Estimation of the anisotropy using CSRMT data in the transition zone of electric dipole // 24th EM Induction Workshop, Helsingør, Denmark, August 12-19, 2018.

7. A. Shlykov, A. Saraev. Detectability of the resistivity anisotropy using the CSRMT method with a horizontal electric dipole // 24th EM Induction Workshop, Helsingør, Denmark, August 12-19, 2018.