A 3D Lithospheric Thermal Model of the South China Sea Jointly Constrained by Heat Flow, Curie-Point Depth and S-Wave Velocity

In this study, we develop a 3D thermal model of the South China Sea (SCS) lithosphere through the joint analysis of heat flow, Curie-point depth derived from magnetic anomalies, and shear wave velocity. Results show the Moho temperature is below 250 °C in the oceanic basin but exceeds 350 °C in continental margins. We evaluate potential Moho drilling sites based on temperature, crustal thickness, water depth, and sediment thickness, identifying six favorable zones in the east sub-basin. The thermal lithosphere thickness correlates with tectonic settings in continental areas, while the oceanic lithosphere is thicker than predicted by theoretical models. Global analysis suggests that the slow spreading rate may have also contributed to the thickening of the oceanic lithosphere in the SCS.

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Publication Details

Journal
Journal of Marine Science and Engineering
Published
2025-12-08
DOI
https://doi.org/10.3390/jmse13122337
Primary Topic
Geological and Geophysical Studies
Type
article
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article

A 3D Lithospheric Thermal Model of the South China Sea Jointly Constrained by Heat Flow, Curie-Point Depth and S-Wave Velocity

Zhaocai Wu, Liang Huang, Chun‐Feng Li, Jinyao Gao
Journal of Marine Science and Engineering
Geological and Geophysical Studies
article

A 3D Lithospheric Thermal Model of the South China Sea Jointly Constrained by Heat Flow, Curie-Point Depth and S-Wave Velocity

Zhaocai Wu, Liang Huang, Chun‐Feng Li, Jinyao Gao
article en

Abstract

In this study, we develop a 3D thermal model of the South China Sea (SCS) lithosphere through the joint analysis of heat flow, Curie-point depth derived from magnetic anomalies, and shear wave velocity. Results show the Moho temperature is below 250 °C in the oceanic basin but exceeds 350 °C in continental margins. We evaluate potential Moho drilling sites based on temperature, crustal thickness, water depth, and sediment thickness, identifying six favorable zones in the east sub-basin. The thermal lithosphere thickness correlates with tectonic settings in continental areas, while the oceanic lithosphere is thicker than predicted by theoretical models. Global analysis suggests that the slow spreading rate may have also contributed to the thickening of the oceanic lithosphere in the SCS.

Journal of Marine Science and EngineeringVol. 13(12)
Ministry of Natural Resources (CN), Naval University of Engineering (CN), Zhejiang Ocean University (CN), Second Institute of Oceanography (CN), Zhejiang University (CN)
Openalex Percentile: Top 51%
Geological and Geophysical Studies
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