4 results match your criteria: "Institute of Geography Augsburg University Augsburg Germany.[Affiliation]"

Preserving biodiversity under rapidly changing climate conditions is challenging. One approach for estimating impacts and their magnitude is to model current relationships between genomic and environmental data and then to forecast those relationships under future climate scenarios. In this way, understanding future genomic and environmental relationships can help guide management decisions, such as where to establish new protected areas where populations might be buffered from high temperatures or major changes in rainfall.

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Variability in climate exerts a strong influence on vegetation productivity (gross primary productivity; GPP), and therefore has a large impact on the land carbon sink. However, no direct observations of global GPP exist, and estimates rely on models that are constrained by observations at various spatial and temporal scales. Here, we assess the consistency in GPP from global products which extend for more than three decades; two observation-based approaches, the upscaling of FLUXNET site observations (FLUXCOM) and a remote sensing derived light use efficiency model (RS-LUE), and from a suite of terrestrial biosphere models (TRENDYv6).

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The terrestrial carbon sink has increased since the turn of this century at a time of increased fossil fuel burning, yet the mechanisms enhancing this sink are not fully understood. Here we assess the hypothesis that regional increases in nitrogen deposition since the early 2000s has alleviated nitrogen limitation and worked in tandem with enhanced CO fertilization to increase ecosystem productivity and carbon sequestration, providing a causal link between the parallel increases in emissions and the global land carbon sink. We use the Community Land Model (CLM4.

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Article Synopsis
  • The study focuses on monodominant patches of forest in central Africa, examining their functional community structure compared to mixed forests; these monodominant forests are influenced more by species traits than by soil conditions.
  • Researchers analyzed leaf and wood traits across 10 plots in the Congo basin, discovering that dominant species have traits advantageous for water use near rivers and face limitations in nitrogen (N) and phosphorus (P) availability.
  • Findings indicate that environmental filtering in monodominant forests results in lower functional diversity, with reduced nutrient contents in the community compared to mixed forests, affecting tree community assembly.
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