Зональность профиля выветривания среднепермских глин на территории Восточного Закамья

A. I. Latypov, A. N. Garaeva, E. A. Korolev, Yu. N. Kolchina

Аннотация


Рассматриваются основные закономерности формирования элювиальных глин на территории Восточного Закамья. Для глинистых толщ установлен зональный характер строения, физико-механических свойств, минерального и химического состава в соответствии со степенью их гипергенного изменения. В результате лабораторных исследований получены сведения об элементном составе глин и его изменении в процессе выветривания. На основании систематизации и анализа полученных материалов построены региональные таблицы механических характеристик глин различных зон выветривания. Результаты исследований имеют важное инженерно-геологическое значение и позволят оптимизировать проектирование и строительство инфраструктуры и сооружений на данной территории.

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Литература


Aleksandrov S.A., Guman O.M. 2019. Opyt izucheniya elyuvialnykh glinistykh gruntov uralskogo regiona [Experience of study of the eluvium clayey soil of the Urals region]. In: Perspektivy razvitiya inzhenernykh izyskaniy v stroitelstve v Rossiiskoy federatsii. Moskva, GeomarketinG, pp. 78-82. (in Russian)

Baranovskiy A.G. 2015. Otechestvennyy i mirovoy opyt izucheniya skalnykh i dispersnykh elyuvialnykh glinistykh gruntov dlya inzhenerno-geologicheskikh tseley [Domestic and foreign experience of studying the bedrock and dispersive eluvium clayey soils for engineering and geological purposes]. Inzhenernye izyskaniya. 12:34–41. (in Russian)

Bondarik G.K. 1971. Osnovy teorii izmenchivosti inzhenerno-geologicheskikh svoystv gornykh porod [Fundamentals of theory of alteration of the rock engineering-geological properties]. Moskva, Nedra, pp. 272. (in Russian)

Bondarik G.K., Pendin V.V., Yarg L.A. 2007. Inzhenernaya geodinamika [Engineering geodynamics]. Moskva, KDU, p. 440. (in Russian)

Galkin A.N. 2016. Gruntovye tolshchi Belarusi [Soils of Belarus]. Litosfera, 1:73-79. (in Russian)

Golodkovskaya G.A. 1968. O vliyanii tektonicheskikh protsessov na formirovanie inzhenerno-geologicheskikh svoistv gornykh porod [About influence of tectonic processes on the formation of engineering geological properties of rocks]. In: Voprosy inzhenernoy geologii i gruntovedeniya, Moskva, MGU, pp. 17–34. (in Russian)

Zolotarev G.S. 1983. Inzhenernaya geodinamika [Engineering geodynamics]. Moskva, MGU, p. 328. (in Russian)

Zolotarev G.S. 1971. Sovremennye zadachi inzhenerno-geologicheskogo izucheniya protsessov i kor vyvetrivaniya [Current problems of engineering–geological study of processes and weathering crusts]. In: Voprosy inzhenerno-geologicheskogo izucheniya protsessov i kor vyvetrivaniya. Moskva, MGU, pp. 4–25. (in Russian)

Ilalova R.K. Gulbin Yu.L. 2017. Osobennosti khimicheskogo sostava i termometriya khloritov ostatochnoy kory vyvetrivaniya Kolskogo massiva

(Severnyy Ural) [Features of chemical composition and thermometry of weathering crust chlorites of the Kolskiy massif (Northern Urals)]. In: Yubileinyy syezd RMO «200 let RMO». SPb, Gornyy universitet, pp. 226-228. (in Russian)

Kolomenskiy N.V. 1951-1956. Inzhenernaya geologiya [Engineering geology]. Moskva, Gosgeolizdat, T. 1-2. p. 320. (in Russian)

Kone A.M. 2012. Stroenie, sostav i svoystva lateritnye kory vyvetrivaniya regiona Dimbokro (Kot D’Ivuar) [Structure, composition, and properties of laterite weathering crusts of Dimbokro region (Côte d'Ivoire)]. Izv. vuzov. Geologiya i razvedka. 1:4–55. (in Russian)

Lomtadze V.D. 1970. Inzhenernaya geologiya. Inzhenernaya petrologiya [Engineering geology. Engineering petrology]. Leningrad, Nedra, p. 527. (in Russian)

Lukashev K.I. 1956. Zonalnye geokhimicheskie tipy kory vyvetrivaniya na territorii SSSR [Zonal geochemical types of weathering crust on the USSR territory]. Minsk, BGU, p. 305. (in Russian)

Maslov N.N. 1982. Osnovy inzhenernoy geologii i mekhaniki gruntov [Fundamentals of soil engineering geology and mechanics]. Moskva, Vysshaya shkola, p. 511. (in Russian)

Safronova A. A. 2004. Osobennosti obrazovaniya karbonatnoy muki [Features of the ground carbonate formation]. In: Karstovedenie XXI: teoret. i praktich. znachenie. Perm, pp. 78-81. (in Russian)

Sergeev E.M. 1986. Teoreticheskie osnovy inzhenernoy geologii [Theoretical basics of the engineering geology]. In: Mekhaniko-matematicheskie osnovy. Ed. E.M. Sergeev. Moskva, Nedra, p. 254. (in

Russian)

Trofimov V.T. 1977. Zakonomernosti prostranstvennoy izmenchivosti inzhenerno-geologicheskikh usloviy Zapadno-Sibirskoy plity [Regularities of spatial distribution of the engineering-geological conditions on the Western-Siberian Plate]. Moskva, MGU, p. 276. (in Russian)

Chapovskii E.G. 1975. Inzhenernaya geologiya (osnovy inzhenerno-geologicheskogo izucheniya gornykh porod) [Engineering geology (basics of engineering-geological study of rock)]. Moskva, Vysshaya shkola, p. 296. (in Russian)

Chernyak Eh.R. 2011. Budushchee – za regionalnymi tablitsami normativnykh i raschѐtnykh pokazateley fiziko-mekhanicheskikh svoystv gruntov [Future of the regional tables of standard and estimated parameters of soil physical-mechanical properties]. Inzhenernaya geologiya. 9:4–9. (in Russian)

Shvets V.B. 1993. Elyuvialnye grunty kak osnovaniya sooruzheniiy [Eluvium soils as the construction basment]. Moskva, Stroiizdat, p. 224. (in Russian)

Shesternev D.M. 2017. Fizicheskoe i khimicheskoe vyvetrivanie massivov gornykh porod v kriolitozone [Physical and chemical weathering of rock

massif in the permafrost zone]. Gornyi informatsionno-analiticheskiy byullyuten, 3:350-360. (in Russian)

Shirokov V.N. et al. 1989. Rekomendatsii po otsenke prosadochnosti elyuvialnykh gpuntov Chelyabinskoy oblasti [Guidance on the evaluation of subsidence of eluvium soils]. Chelyabinsk. CHPI, p. 23. (in Russian)

Yarg L.A. 1974. Izmenenie fiziko-mekhanicheskikh svoystv porod pri vyvetrivanii [Alteration of physical-mechanical properties of soil while weathering]. Moskva, Nedra, p. 144. (in Russian)

Derakhshan-Babaei F., Nosrati K., Tikhomirov D., Chistl M., Sadough H., & Egli M. 2020. Relating the spatial variability of chemical weathering and erosion to geological and topographical zones. Geomorphology, 363, 107235.

Dixon J., von Blankenburg F. 2012. Soils as pacemakers and limiters of global silicate weathering Les sols, des «pacemakers» et des «limiteurs» pour l’altération globale des silicates. Comptes Rendus Geoscience. 344(11-12):597–609.

Dosseto A., Turner S., Chappel J. 2008. The evolution of weathering profiles through time: New insights from uranium-series isotopes. In: Earth and Planetary Science Letters, pp. 359–371.

Fookes P.G.. 1975. The classification and description of near-shore carbonate sediments for engineering purpose. Geotechnique. 25(2):406–411.

Little A.L. 1969. The engineering classification of residual tropical soils. In: Proc. Seventh International Conference on Soil Mechanics and Foundation Engineering, Mexico City, 1. 1969. pp. 1–10.

Mayne P. 2001. Stress-strain-strength-flow parameters from enhances in-situ tests. In: International Conference on In-Situ Measurement of Soil Properties and Case Histories, pp. 27–48.

Meyer N., Kuhwald M., Petersen J., & Duttman R. 2021. Soil development in weathering pits of a granitic dome (Enchanted Rock) in central Texas. Catena, 199, 2021. 105084.

Migoń P. 2004. Structural control in the evolution of granite landscape. Acta Universitatis Carolinae, Geographica, 39(1):19–32.

Ollier C.D. 1969. Geomorphology: Weathering. Elsevier, New York, p. 304, Geomorphology Texts vol 2.

Taylor G., Eggleton R.A. 2001. Regolith Geology and Geomorphology. Chichester, New York, p. 375.

Xiaolidong M., Cohen J., Martin D., McLaughlin A., BradMurray N., Ward M., Flint J., & Heffernan B. 2019. Ecohydrologic processes and soil thickness feedbacks control limestone-weathering rates in a karst Landscape. Chemical Geology, 527. 118774.

Yongsheng Cheng. 2012. Analysis on mineralization geological conditions of Danchi metallogenetic belt. Guanxi, China. Procedia Environmental sciences, 12:978–983.


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