Publication Abstracts
Tselioudis et al. 2025, accepted
, , C. Jakob, and W. Rossow, 2025: Contraction of the world's storm-cloud zones the primary contributor to the 21st century increase in the Earth's sunlight absorption. Geophys. Res. Lett., accepted.
Recent Earth energy budget observations show an increase in the sunlight absorbed by the Earth of 0.45 W/m2 per decade, caused primarily by a decrease in cloud reflection. Here we decompose the solar radiative budget trends into general circulation and cloud controlling process components. Regimes representing the midlatitude and tropical storm zones are defined, and the trends in the areal coverage of those regimes which are potentially induced by circulation changes are separated from trends in the cloud radiative effect within each regime which are potentially induced by changes in local cloud controlling processes. The regime area change component, which manifests itself as a contraction of the midlatitude and tropical storm regimes, constitutes the largest contribution to the solar absorption trend, causing decreased sunlight reflection of 0.37 W/m2 per decade. This result provides a crucial missing piece in the puzzle of the 21st century increase of the Earth's solar absorption.
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BibTeX Citation
@unpublished{ts01400p, author={Tselioudis, G. and Rémillard, J. and Jakob, C. and Rossow, W.}, title={Contraction of the world's storm-cloud zones the primary contributor to the 21st century increase in the Earth's sunlight absorption}, year={2025}, journal={Geophysical Research Letters}, }
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RIS Citation
TY - INPR ID - ts01400p AU - Tselioudis, G. AU - Rémillard, J. AU - Jakob, C. AU - Rossow, W. PY - 2025 TI - Contraction of the world's storm-cloud zones the primary contributor to the 21st century increase in the Earth's sunlight absorption JA - Geophys. Res. Lett. JO - Geophysical Research Letters ER -
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