Climate warming stimulates ecosystem respiration in tundra, leading to increased carbon release into the atmosphere, with the magnitude and persistence of this effect driven by local soil conditions and nutrient dynamics.
Enhanced rock weathering (EW) is a simple technology that can simultaneously address climate change by removing carbon dioxide from the atmosphere and improve global food security by releasing essential minerals to fertilize the soil.
Pre-trained weather models enhance global vegetation modeling, improving NDVI estimates.
The author argues that drought conditions are a significant factor in promoting overnight burning, challenging traditional fire management practices and the diurnal fire cycle model.
The author proposes a new methodological framework for extreme quantile regression using neural networks to capture complex non-linear relationships and improve predictive performance.
The author introduces Environmental Insights, an open-source Python package, to democratize access to air pollution concentration data and enable forecasting of future conditions through machine learning models.
The author argues that rising sea levels and coastal subsidence pose a significant threat to major US coastal cities, with potential consequences for population and property.
The author argues that model uncertainty hinders the identification of a significant driver of soil carbon levels, emphasizing the importance of understanding microbial carbon use efficiency.
The author argues that microbial carbon use efficiency plays a crucial role in promoting global soil carbon storage, highlighting the significance of understanding microbial community-level regulation.
The author explores the use of machine learning techniques for time series predictions in unmonitored sites, highlighting the superiority of modern ML methods over traditional models and the challenges faced in transferring knowledge to new regions.