Analysis and Dynamics of the Archeda-Don Interfluve Sands Phytoecological Conditions from a Long Series of Aerospace Images
UDC 631.6.02:528
DOI: 10.34736/FNC.2023.120.1.005.28-37
Konstantin N. Kulik,1,3acad. RAS, Dr. Sci. (Agr.), ORCID 0000-0001-7124-8116
Konstantin D. Kulik2, ORCID 0000-0002-3121-8075
Alexander S. Khnykin1, ORCID 0000-0001-8577-1960
Elizaveta S. Slaykovskaya1,31,3, ORCHID 0000-0001-6799-5418, slaykovskaya02@mail.ru
1Federal Scientific Centre of Agroecology, Complex Melioration and Protective Afforestation of the Russian Academy of Sciences (FSC of Agroecology RAS), e-mail: nfo@vfanc.ru, 400062, Universitetsciy Avenue, 97, Volgograd, Russia
2Moscow State University of Geodesy and Cartography (MIIGAiK), e-mail: kulik.k2000@gmail.com, 105064, Gorokhovsky Lane, 4, Moscow, Russia
3Volgograd State University, e-mail: rector@volsu.ru, 400062, Universitetskiy Prospekt, 100, Volgograd, Russia
Abstract.The paper presents the result of the analysis of Archeda-Don interfluve sands (Volgograd region) aerospace images (ASI), taken from 1961 to 2018. For survey mapping, satellite images (SI) M 1:1000000 were used, which increased to a working M 1:250000 and were used in field work. According to the decoding signs (tone and pattern of the photo image), landscape complexes of sands are distinguished: 1 – hilly-barkhane ungrown and lightly overgrown, 2 – hilly medium-grown and overgrown, 3 – ridge-hilly sands; 4 – gently undulating sandy plain; 5 – large depressions; 6 – flat sandy loam plain. For detailed mapping and field work on test (key) sites, M 1:100000 photo schemes, M 1:50000-1:25000 aerial photographs (AFS), enlarged to working M 1:30000- 1:10000 and larger, high-resolution spectrosonal and multizonal SI were used. The comparison of the images shows the relative stability of the medium hilly part of the massif overgrowth processes and the slow waving of coarse-hilly sands in its central part, which is associated with climate change and the intensity of anthropogenic impact on the ecosystem. The boundaries and areas of sand types for 60 years, in various time periods, have been established on the «Viltov» key section. For these purposes, sand types transitions matrices into each other in 24 directions were constructed and their quantitative indicators were obtained. They show a clear connection of successions and changes in the sandy massif morphology and phytoecology with the climate and anthropogenic load. This methodological approach will make it possible to further form a mathematical model of dynamics and forecast the degradation and restoration processes in the ecosystem.
Keywords:Archeda-Don interfluve sands, sandy lands, aerospace images, phytoecological conditions
Funding. The work was carried out in accordance with the plan of the state task «Development of a new methodology for optimal management of biological resources in agricultural landscapes of the arid zone of the Russian Federation using system-dynamic modeling of soil-hydrological processes, a comprehensive assessment of the climate change and anthropogenic loads impact on agrobiological potential and forest conditions» (No. FNFE-2022-0011).
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