Fekete, I., Berki, I., Lajtha, K., Trumbore, S., Francioso, O., Gioacchini, P., Montecchio, D., Varbiro, G., Beni, A., Makadi, M., Demeter, I., Madarasz, B., Juhos, K. and Kotroczo, Z. (2021) How Will a Drier Climate Change Carbon Sequestration in Soils of the Deciduous Forests of Central Europe? Biogeochemistry, 152, 13-32.
https://doi.org/10.1007/s10533-020-00728-w

has been cited by the following article:

• TITLE: Improving Forest Soil Health and Ecosystem Services to Minimize the Impact of Climate Change

  AUTHORS: Michael Aide, Indi Braden, Shakirah Nakasagga, Sven Svenson

  KEYWORDS: Soil Carbon, Afforestation, Land Management, Climate Change, Nature-Based Solutions

  JOURNAL NAME: Agricultural Sciences, Vol.14 No.9, September 1, 2023

  ABSTRACT: The presence of increasing quantities of greenhouse gases is fostering climate change. This review chronicles the emerging research addressing the role of soil to sequester carbon across biomes, understand the soil mechanisms responsible for soil carbon preservation and indicate the need to estimate the intensity for site-specific carbon sequestration. To negate the continuing increase of atmospheric greenhouse gases requires using well-documented soil pathways to sequester carbon. For deciduous forests, emerging concepts center around two approaches: 1) increasing the ecosystem’s net primary productivity coupled with increasing the carbon supply into soil using appropriate land management practices, and 2) supporting soil processes that increase soil carbon retention. New perspectives suggest that soil carbon may be preferentially preserved because organic materials are adsorbed onto phyllosilicates and oxyhydroxides and subsequently protected from microbial degradation because of soil structure improvement. Thus, augmenting soil structure may promote soil organic matter persistence. Each soil has a soil carbon carrying capacity; however, soil survey databases infer that soil organic matter concentrations have a significant variance at the soil series level. The need exists for more precise estimates of the soil’s carbon carrying capacity at the pedon level to support land management practices that encourage land management options designed to preserve soil carbon. However, the complexity of the soil system may limit its usefulness for routine soil management decisions. Our modern understanding of soil carbon preservation processes and emerging soil carbon saturation deficit concepts may potentially improve decision support tools for managing soils for carbon sequestration.