Summary
The temperature-depth distribution was calculated to a depth of 70 km along the 520 km long Taratashskiy refraction profile crossing the Ural Mts., approximately along latitude 56°N. The steady-state model was solved numerically using the finite-difference method, the vertical distribution of heat production was derived from the observed seismic velocities. It was shown that at the Moho boundary, the mantle heat flow varied between 10 and 25 mWm−2, and the Moho temperature amounted to 300–550°C for the two versions studied.
Similar content being viewed by others
References
A. V. Peive, V. E. Khain, M. V. Mouratov, F. Delany: (Eds.), Tectonics of Europe and Adjacent Areas, (Explanatory Note to the International Tectonic Map of Europe and Adjacent Areas, scale 1:2,500,000). Nauka, Moscow, (1981), 415.
V. B. Sokolov: Stroyeniye zoni sochleneniya Uralskogo poyasa s Vostochno-Evropeyskoy plitoy. In: Sharirovaniye i Geologicheskiye Processi. Ufa, (1989a), 41 (in Russian).
V. B. Sokolov: . Glubinnoye stroyeniye i dinamika formirovaniya zemnoy kori Urala. In: Tektonika, Geodinamika i Metalogeniya Uralsko-Tyanshanskoy skladchatoy sistemi. Sverdlovsk, (1989b), 141 (in Russian).
V. I. Valchak, V. S. Druzhinin, S. N. Kashubin, T. V. Kashubina, V. M. Ribalka: Glubinnoye stroyeniye Urala v prodolnom sechaniyi (po novym dannym GSZ na merydiyalnom profile N.Tura-Orsk). Dokl. Akad. nauk SSSR, 277, (1984), 656 (in Russian).
V. S. Druzhinin, S. N. Kashubin, L. V. Sivkova, V. I. Valchak, T. V. Kashubina: Opit glubinnikh seismicheskikh zondirovaniy na Urale. NTO Gornoye, Sverdlovsk, (1982), 72 (in Russian).
V. S. Druzhinin, S. V. Avtoneev, S. N. Kashubin, V. M. Ribalka: Noviye denniye v glubinnom stroyeniyi severnoy chasti Yuzhovo Urala v secheniyi Taratashskogo profila GSZ. Geol. i Geof., No.1, (1990), 121 (in Russian).
J. Šafanda: Calculation of temperature distribution in two-dimensional geothermal profile. Stud. geoph. geod., 29 (1985), 191.
V. Čermák, L. Rybach: Thermal conductivity and specific heat of minerals and rocks. In: G. Angenheister (Ed.), Physical Properties of Rocks. Landolt-Börnstein New Series, Vol. V1a, Springer Verlag, Berlin, (1982), 305.
J. Šafanda: Heat flow variations in the presence of an irregular contact of different rock types. Stud.geoph.geod., 32 (1988), 159.
L. Rybach, G. Buntebarth: The variation of heat generation, density and seismic velocity with rock type in the continental lithosphere. Tectonophysics, 103 (1984), 335.
V. Čermák, L. Bodri, L. Rybach: Radioactive heat production in the continental crust and its depth dependence. In: V. Čermák and L. Rybach (Eds.), Terrestrial Heat Flow and the Lithosphere Structure. Springer Verlag, Berlin, (1991), 23.
V. Čermák: Crustal heat production and mantle heat flow in Central and Eastern Europe. Tectonophysics, 159 (1989), 195.
R. F. Roy, D. D. Blackwell, F. Birch: Heat generation of plutonic rocks and continental heat flow provinces. Earth Planet. Sci. Lett., 5 (1968), 1.
A. H. Lachenbruch: Preliminary geothermal model of the Sierra Nevada. J. Geophys. Res., 73 (1968), 6977.
H. N. Pollack, D. S. Chapman: On the regional variation of heat flow, geotherms, and lithosphere thickness. Tectonophysics, 38 (1977), 279.
V. Čermák, L. Bodri: Two-dimensional temperature modelling along five East-European geotraverses. J. Geodyn., 5 (1986), 133.
E. Hurtig, V. Čermák, R. Haenel, V. I. Zui (Eds.): Geothermal Atlas of Europe. Hermann-Haack Verlag, Gotha. (1991).
D. Stromeyer: Downward continuation of heat flow data by means of the least square method. Tectonophysics, 103 (1984), 55.
Author information
Authors and Affiliations
Rights and permissions
About this article
Cite this article
Šafanda, J., Kashubin, S. & Čermák, V. Temperature modelling along the Taratashskiy profile crossing the ural mountains. Stud Geophys Geod 36, 349–357 (1992). https://doi.org/10.1007/BF01625488
Received:
Published:
Issue Date:
DOI: https://doi.org/10.1007/BF01625488