气溶胶
环境科学
云计算
泰加语
大气科学
卫星
辐射传输
气候模式
气候变化
气象学
气候学
计算机科学
地理
生态学
物理
生物
操作系统
工程类
量子力学
航空航天工程
地质学
林业
作者
Sara M. Blichner,Taina Yli‐Juuti,Tero Mielonen,Christopher Pöhlker,Eemeli Holopainen,Liine Heikkinen,Claudia Mohr,Paulo Artaxo,Samara Carbone,Bruno B. Meller,Cléo Q. Dias‐Júnior,Markku Kulmala,Tuukka Petäjä,Catherine E. Scott,Carl Svenhag,Lars Nieradzik,Moa K. Sporre,Daniel G. Partridge,Emanuele Tovazzi,Annele Virtanen,Harri Kokkola,Ilona Riipinen
标识
DOI:10.1038/s41467-024-45001-y
摘要
Abstract Natural aerosol feedbacks are expected to become more important in the future, as anthropogenic aerosol emissions decrease due to air quality policy. One such feedback is initiated by the increase in biogenic volatile organic compound (BVOC) emissions with higher temperatures, leading to higher secondary organic aerosol (SOA) production and a cooling of the surface via impacts on cloud radiative properties. Motivated by the considerable spread in feedback strength in Earth System Models (ESMs), we here use two long-term observational datasets from boreal and tropical forests, together with satellite data, for a process-based evaluation of the BVOC-aerosol-cloud feedback in four ESMs. The model evaluation shows that the weakest modelled feedback estimates can likely be excluded, but highlights compensating errors making it difficult to draw conclusions of the strongest estimates. Overall, the method of evaluating along process chains shows promise in pin-pointing sources of uncertainty and constraining modelled aerosol feedbacks.
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