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Geoinformatika 2015; 1(53) : 27-40 (in Russian)

THEORY AND PRACTICE OF TECHNOLOGIES OF GEOTHERMAL EXPLORATION ON A DATABASE OF MULTISPECTRAL SATELLITE SURVEY

N.K. Vinnichenko1, O.N. Vinnichenko2, I.V. Glushchenko1, V.N. Stepchenko1, V.A. Bagryantsev1

1“Special Centre of Aerospace Technologies”, 81 Karl Marx Ave., off. 12, Dnepropetrovsk 49000, Ukraine,e-mail: aero_space@ukr.net
2Taras Shevchenko National University of Kyiv, 90 Vasylkivska Str., Kiev 03022, Ukraine, e-mail:  kse95641898@yandex.ua

Purpose. The purpose of the paper is to present a systemic exposition, based on modern concepts of the physics of thermal processes in geologic environment, of the thermodynamic foundation of geothermal exploration methods based on remote monitoring in the optical, infrared and radio wavelengths of electromagnetic waves. To popularize basic principles that have served as the starting point for the creation of methods and introscopy technologies (geotomography), which significantly increase the amount of information on the structure and thermodynamics of geologic environment that complements data from other geophysical methods.
Design/methodology/approach. The technology of thermal introscopy (geotomography) the results of which are presented, rests on the R.D. Muhamedjarov’s “Method of video thermovision generalization”. Technology allows us to conduct sensing of the Earth at a near arbitrary depth, which in terms of Petroleum Geology permits to determine not only the localization of hydrocarbon deposits but also their nature.
Findings. The publication significantly contributes to the scientific literature on the subject because the primary sources used in it are scattered and few. Examples of application of the thermal geotomography technology by developed “Special Center of Aerospace Technologies” (Dnepropetrovsk, Ukraine), which are widely presented in the article, show high efficiency of its solutions for diverse geostructural and search problems of oil and gas areas. Of special attention is the possibility to indicate HC directly.
Practical value/implications. The practical advantages primarily related to the tact that it is possible to apply the technology independent from terrain conditions; the technology is also environmentally clean, efficient, of relatively low cost, and of high success rate.
Keywords: geothermal exploration, remote methods, introscopy, geotomography, method of video thermovision generalization, geological environment, hydrocarbons.

 The full text of papers

References

  1. Vinnichenko O.N., Vinnichenko N.K., Glushchenko I.V., Stepchenko V.N., Bagryantsev V.A. Ispol’zovanie tehnologii teplovoj geotomografii dlja izuchenija vnutrennej struktury geosredy i poiska lovushek uglevodorodov [Using of thermal geotomography technology to investigate inner structure of the geologic environment and hydrocarbon traps searching]. Geoinformatika (Ukraine), 2014, no. 2 (50), pp. 22-37.
  2. Gonsales R.S., Vuds R.E. Cifrovaja obrabotka izobrazhenij [Digital processing of images]. Moscow, Tehnosfera, 2012.
  3. Muhamedjarov R.D. “Oko Zemli – Vsevidjashhij glaz” – Global’naja ajerokosmicheskaja sistema distancionnoj geotermicheskoj introskopii [“Eye of the Earth – All-Seeing Eye” – Global aerospace system of remote geothermal introscopy]. Ajerokosmicheskij kur’er, 2006, no. 3 (45).
  4. Mukhamedyarov R.D. Metod videoteplovizionnoy generalizatsii aerokosmicheskikh s’emok dlya resheniya geotekhnogennykh zadach [Method of video-thermovision generalization of aerospace survey for the solution of geotechnogenic tasks]. Sbornik dokladov V Mezhdunarodnoy nauchno-prakticheskoy konferentsii “Aktual’nye problemy uranovoy promyshlennosti” [Collection of reports of V International scientific and practical conference “Actual problems of the uranium industry”]. 18-20 September 2008, Almaty, pp. 319-334.
  5. Mukhamedyarov R.D. Metod videoteplovizionnoy generalizatsii i poluprozrachnost’ glubinnykh struktur Zemli [Method of video thermovision generalization and translucency of Earth deep structures]. Materialy konferentsii “Innovatsionnye tekhnologii v geologii i razrabotke uglevodorodov” [Conference materials “Innovative technologies in geology and development of hydrocarbons”]. Kazan, 2009.
  6. Mukhamedyarov R.D., Timofeev V.N. O polyarizatsionnykh kharakteristikakh sobstvennogo izlucheniya morskoy poverkhnosti [About polarization characteristics of self-radiation of the sea surface]. Izv. AN SSSR, seriya Fizika atmosfery i okeana [TheProceedings of the USSR Academy of Sciences, area of  Atmospheric and Oceanic Physics], 1981, vol. 17, no. 11, pp. 1178-1183.
  7. Mukhamedyarov R.D. Teoriya i razrabotka optiko-elektronnykh sistem s simmetrichnym vkhodom. Doktorskaya dissertatsiya [Theory and development of optoelectronic systems with balanced input. Doctor dissertation]. 1991
  8. Patent 2086935 RF. Sposob izmereniya temperatury [Method for measuring the temperature]. R.D. Mukhamedyarov, R.I.Kharisov / 10.01.1994.
  9. Tumanov V.R., Mukhamedyarov R.D. Metod videoteplovizionnoy generalizatsii – odno iz perspektivnykh napravleniy issledovaniy geologii uglevodorodov [Method of video-thermovision generalization – one of the most perspective areas of hydrocarbon geology research]. V knige “Povyshenie nefteotdachi plastov na pozdney stadii razrabotki mestorozhdeniy i kompleksnoe osvoenie vysokovyazkikh neftey i prirodnykh bitumov” [In the book “Increase of oil recovery of layers at a late stage of deposuit development and integrated development of high-viscosity oil and native bitumens”]. Kazan, Fen, 2007, pp. 580-585.
  10. Tumanov V.R., Mukhamedyarov R.D. Metod videoteplovizionnoy generalizatsii v geologorazvedke [Method of video-thermovision generalization in geological exploration]. V knige “Teplovoe pole Zemli I metody ego izucheniya” [In the book “Thermal field of Earth and methods of its studying”]. Moskow, RIO RGGRU, 2008, pp.250-256.
  11. Khristoforova N.N. Zavisimost’ mezhdu teplovymi I uprugimi svoystvami gornykh porod [The relationship between the thermal and elastic properties of the rocks]. Georesursy, 2002, no. 4 (12), pp. 9-10.

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