This study demonstrates a new method for reconstructing cloud vertical structures using geostationary satellite imagery, suggesting advantages for monitoring in real-time.
The Cloud vertical structure (CVS) is important, yet operational CVS products depend on active observation or reanalysis fields, limiting high-frequency monitoring. In this study, we propose a lightweight and satellite-only model that reconstructs volumetric cloud masks from geostationary multispectral imagery. This method employs a compact one-dimensional convolutional neural network that combines three convolutional layers, channel attention and L1 regularization, which is trained on CALIPSO/CloudSat joint profiles and Himawari-8 multispectral observations. The network produces per-pixel 38-layer cloud masks at 500 m vertical resolution and attains strong performance (Intersection over Union = 0.8609; mean absolute error = 0.4851; cloud top height bias ≈ 470 m). Ablation experiments demonstrate that the chosen architecture and regularization considerably improve layer discrimination. A case study of Typhoon Yutu shows that the reconstructed three-dimensional structure is consistent with active-sensor profiles. Because this approach only requires geostationary imagery (without reanalysis input), it is inherently well-suited for near-real-time monitoring.
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Yang et al. (2025) studied this question.
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