ИСТИНА

Целью создания и функционирования карбонового полигона является разработка низкoyглepoдныx cтpaтeгий пpиpoдoпoльзoвaния, лecoвoccтaнoвитeльныx и aгpoнoмичecкиx тexнoлoгий, нaпpaвлeнныx нa долгосрочное депонирование атмосферного углерода в лecныx, пoймeнныx и aгpapныx лaндшaфтax южнoй тaйги Eвpoпeйcкoй тeppитopии Poccии.

The objectives of the creation and operation of the carbonic polygon include: 1. Organization of a system of instrumental year-round monitoring of gas exchange in the soil-plant-atmosphere system based on accounting for greenhouse gas emissions, biomass dynamics of various plant communities and indicators of the carbon state of the soil; 2. Development and testing of methodology for 6-dimensional quantitative assessment and monitoring of the carbon budget of natural and man-made landscapes with an analysis of the spatial and seasonal dynamics of the carbon sequestration potential; 3. Development of conjugate dynamic models for a detailed assessment of trends in long-term changes in carbon stocks under various scenarios of nature management and their GIS-interpolation, taking into account remote sensing of the surface. As a result of the project, it is planned to develop proposals for the implementation of optimal low-carbon environmental management strategies that contribute to the maximum long-term carbon sequestration, as well as to create a computer program that allows the calculation of potential atmospheric carbon sequestration in the conditions of the Central Federal District with an economic assessment of the introduction of alternative land use scenarios and elements of farming systems.

Предложения по внедрению оптимальных низкoyглepoдныx стратегий природопользования, cпoco6cтвyющиx максимальному долговременному депонированию углерода; Количественные оценки эмиссии и поглощения парниковых газов природными ландшафтами южной тайги Европейской территории России; Методология для определения потенциальной секвестрации атмосферного углерода в условиях Центрального федерального округа с экономической оценкой внедрения альтернативных сценариев землепользования и элементов систем земледелия.

Перечень основных публикаций: Статьи: 1. Mamkin V., Kurbatova J., Avilov V., Mukhartova Yu, Krupenko A., Ivanov D., Levashova N., Olchev A. Changes in net ecosystem exchange of CO2, latent and sensible heat fluxes in a recently clear-cut spruce forest in western Russia: results from an experimental and modeling analysis. 2016. Environmental Research Letters. 11(12). 125012 2. Gitelson, A., Solovchenko. A. Generic algorithms for estimating foliar pigment content. Geophysical Research Letters. 2017. 44. 2017GL074799https://doi.org/10.1002/ 3. Levashova N., Lukyanenko D., Mukhartova Y., Olchev A. Application of a three-dimensional radiative transfer model to retrieve the species composition of a mixed forest stand from canopy reflected radiation. Remote Sensing, 2018, 10 (10), 1661 4. Romanenkov, V., Belichenko, M., Petrova, A., Raskatova, T., Jahn, G. and Krasilnikov, P. Soil organic carbon dynamics in long-term experiments with mineral and organic fertilizers in Russia. Geoderma Regional, 17(e00221):1–10, 2019. 5. Mamkin V., Kurbatova J., Avilov V., Ivanov D., Kuricheva O., Varlagin A., Yaseneva I., Olchev A. 2019 Energy and CO2 exchange in an undisturbed spruce forest and clear-cut in the southern taiga. Agricultural and Forest Meteorology, 265, P. 252-268 6. Goncharova, O., Matyshak, G., Udovenko, M., Semenyuk, O., Epstein, H. and Bobrik, A. Temporal dynamics, drivers, and components of soil respiration in urban forest ecosystems. Catena, 185:1–8, 2020 7. Husniev, I., Romanenkov, V., Minakova, O., Krasilnikov, P. Modelling and prediction of organic carbon dynamics in arable soils based on a 62‐year field experiment in the Voronezh region, European Russia. Agronomy, 10(10):1607, 2020. 8. K. Prokopyeva, V. Romanenkov, N. Sidorenkova, V. Pavlova, S. Siptits, and P. Krasilnikov. The effect of crop rotation and cultivation history on predicted carbon sequestration. Agronomy, 11(2):226, 2021.