Temperature-driven hydrate dissociation in pressure-preserved coring: A fully coupled modeling study with burst-decay kinetics

Meng Xu; Ya-chen Xie; Le Zhao; Ling Chen; Chao Yuan; Jia-liang Chen; Cheng-hang Fu; Han Wu; Gui-kang Liu; Ming-zhu Qi; Ming Zhang; He-ping Xie

doi:10.31035/cg2025257

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Xu Meng, Xie Ya-chen, Zhao Le, Chen Ling, Yuan Chao, Chen Jia-liang, Fu Cheng-hang, Wu Han, Liu Gui-kang, Qi Ming-zhu, Zhang Ming, Xie He-ping. 2026. Temperature-driven hydrate dissociation in pressure-preserved coring: A fully coupled modeling study with burst-decay kinetics. China Geology, 9(3), 535‒552. doi: 10.31035/cg2025257.

Citation: Xu Meng, Xie Ya-chen, Zhao Le, Chen Ling, Yuan Chao, Chen Jia-liang, Fu Cheng-hang, Wu Han, Liu Gui-kang, Qi Ming-zhu, Zhang Ming, Xie He-ping. 2026. Temperature-driven hydrate dissociation in pressure-preserved coring: A fully coupled modeling study with burst-decay kinetics. China Geology, 9(3), 535‒552. doi: 10.31035/cg2025257.

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Temperature-driven hydrate dissociation in pressure-preserved coring: A fully coupled modeling study with burst-decay kinetics

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Temperature-driven hydrate dissociation in pressure-preserved coring: A fully coupled modeling study with burst-decay kinetics

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