Tropical rainforest plants and their associated microbial communities navigate drought challenges through unique root metabolism in the rhizosphere.
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Tropical forest roots play a crucial role in climate change dynamics, yet they’re often overlooked. New research highlights the significance of understanding root function in tropical ecosystems. By integrating this knowledge into vegetation models, scientists aim to improve predictions of carbon stock changes, essential for mitigating climate impacts.
New research reveals that tree mortality increases with overcrowding, especially in tropical forests. The study, involving 52 scientists worldwide, suggests specialized pathogens or herbivores as culprits. These findings shed light on why tropical forests harbor more species and underscore the importance of long-term forest studies for biodiversity conservation.
A new study highlights and quantifies the effectiveness of agroforestry practices in mountain agricultural systems to mitigate the effects of climate change while improving agricultural resilience and protecting biodiversity.
Africa’s forests, constituting 14% of global cover, face accelerating decline due to human-driven economic activities, impacting climate and biodiversity. A study provides high-resolution mapping of post-deforestation land use, aiding conservation efforts and supporting the EU’s Deforestation Regulation, crucial for sustainable resource management.
A major international collaboration of 356 scientists has found almost identical patterns of tree diversity across the world’s tropical forests.
New research has made significant strides in understanding how coniferous forest ecosystems may respond to climatic changes. The study investigates the relationship between tree-ring indices (TRI) and the Normalized Difference Vegetation Index (NDVI) in the context of climate, topography, and soil conditions.
New research reveals that deforestation in the Amazon not only warms immediate surroundings but also impacts areas up to 100 kilometers away. Analyzing data from 2001 to 2020, the study links regional forest loss to a significant temperature rise—4.4 °C in areas with both local and regional deforestation. The findings emphasize the critical importance of understanding how Amazon deforestation contributes to climate change and highlight the potential benefits of reducing deforestation for local, regional, and national scales.
Urban environments have become hotspots for understanding how rapid evolution occurs in response to extreme environmental changes. These habitats exert selective pressures on resident organisms that impact their evolutionary trajectories. Recently, researchers from Japan investigated how the creeping woodsorrel plant might adapt in response to elevated temperatures that result from urbanization. Understanding these effects can help predict evolutionary traits to manage plant evolution in the face of shifting climatic conditions.
Retention of dead biomass by plants is common in the temperate herbaceous flora and can be related to certain plant traits, indicating relevance to ecosystem functioning. These are the main findings of an experimental study on more than 100 plant species jointly performed by researchers from the Germany and Czech Republic.
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