Experience in a Complex Study of Small Lakes in the City to Assess their Environmental Status and Anthropogenic Pollution

А.Е. Rybalko; V.A. Shcherbakov; V.V. Polovkov; N.Y. Bobrov; P.Y. Belyaev; А.Y. Alekseev; I.V. Fedorova

doi:10.3997/2214-4609.202051073

Experience in a Complex Study of Small Lakes in the City to Assess their Environmental Status and Anthropogenic Pollution
Authors А.Е. Rybalko^1,3, V.A. Shcherbakov^2,3, V.V. Polovkov^1,2, N.Y. Bobrov^1,2, P.Y. Belyaev⁴, А.Y. Alekseev³, I.V. Fedorova¹
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Affiliations: ¹ Saint Petersburg State University ² LLC «SPbU IMRC» ³ FSBI «VNIIOceangeologia» ⁴ FSBI «VSEGEI»
Publisher: European Association of Geoscientists & Engineers
Source: Conference Proceedings, Engineering and Mining Geophysics 2020, Sep 2020, Volume 2020, p.1 - 10
DOI: https://doi.org/10.3997/2214-4609.202051073

Abstract

Summary

The results of a comprehensive geological and geophysical study of the Suzdal Lakes of St. Petersburg in 2019 are discussed. The objectives of this work were the preparation of the landscape basis for the subsequent assessment of the ecological state of these reservoirs and the development of a methodology for the comprehensive study of small lakes by geophysical methods. The following methods were used: sonar, acoustic profiling, side-scan location, georadar (GPR), electrical resistivity tomography and geological sampling. GPR and side-scan location proved to be the most effective for assessment section of loose deposits and distribution of the surface sediments and identification of technogenic objects. Maps the lakes bottom relief, lithological maps, maps of the location of technogenic objects on the lake bottom were prepared. Proposals are made for the most efficient integration of geophysical methods for creating landscape maps as the basis for environmental research.

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2020-09-14

2024-04-25

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References

АндрееваИ.А., ЛапинаН.Н.
Гранулометрический анализ донных осадков Мирового океана. НСОММИ. Литологические методы. Методические рекомендации №114. М.: ВИМС, 2001. 37с.
[Google Scholar]
Наук С.А.Кондратьева и док. хим. наук Г.Т.Фрумина
Водные объекты Санкт-Петербурга / Под редакцией док. физ.-мат. Наук С.А.Кондратьева и док. хим. наук Г.Т.Фрумина. СПБ: Комитет по природопользованию, охране окружающей среды и обеспечению экологической безопасности, 2002, 348с
[Google Scholar]
ГусеваМ.А., КузнецовД.Д., СапелкоТ.В.
Элементный состав донных отложений Среднего Суздальского озера // Вопросы Естествознания, 2018, № 1(15) – С. 57–62
[Google Scholar]
Инструкция по составлению и подготовке к изданию листов Государственной геологической карты Российской Федерации масштаба 1:200000. М.: Роскомнедра, 1995, 244с
[Google Scholar]
ЛудиковаА.В.
Факторы формирования состава диатомовых комплексов водоемов мегаполиса (на примере г. Санкт-Петербурга) // Вода: химия и экология. 2014. № 12. – С. 60–65.
[Google Scholar]
РухинЛ.Б.
Основы литологии, Учение об осадочных породах. Л.: Гостоптехиздат, 1961, 778 с.
[Google Scholar]
AndreevaI.A. and LapinaN.N.
[2001] Granulometric analysis of bottom sediments of the World ocean. NSOMMI. Lithologic methods. Methodical recommendations No. 114. VIMS, Moscow (in Russian).
[Google Scholar]
GusevaM.A., KuznetsovD.D. and SapelkoT.V.
[2018] The elemental composition of bottom sediments of the Middle Suzdal Lake. Voprosy Estestvosnania, 15, 57–62 (in Russian).
[Google Scholar]
Instruction on maping and preparing for the publication of sheets of the State Geological Map of the Russian Federation scale 1:200000. [1995]. Roscomnedra, Moscow (in Russian).
[Google Scholar]
LudikovaA.V.
[2014] Factors of the composition of diatom complexes of megalopolis reservoirs (on the example of St. Petersburg). Voda: chimia i ecología. No. 12. 60–65 (in Russian).
[Google Scholar]
RukhinL.B.
[1961] Basis of Lithology, The studies of sedimentary rocks. Gostoptekhizdat, 778 (in Russian).
[Google Scholar]
Water objects of St. Petersburg [2002] Saint Petersburg: Committee on Nature Management, Environmental Protection and Ecological Safety. 348(in Russian).
[Google Scholar]

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Experience in a Complex Study of Small Lakes in the City to Assess their Environmental Status and Anthropogenic Pollution

Conference Proceedings 2020, 1 (2020); https://doi.org/10.3997/2214-4609.202051073

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Experience in a Complex Study of Small Lakes in the City to Assess their Environmental Status and Anthropogenic Pollution

Abstract

From This Site

Most Read This Month

Most Cited This Month Most Cited RSS feed

The natural combination of full and image‐based waveform inversion

Poststack diffraction imaging using reverse‐time migration

Characterizing the effect of elastic interactions on the effective elastic properties of porous, cracked rocks

Fracture detection by Gaussian beam imaging of seismic data and image spectrum analysis

Laboratory measurements of guided‐wave propagation within a fluid‐saturated fracture