Seepage Behavior of CO2 Hydrate Bearing Sands Regulated by l‑Methionine: Insights into Hydrate-Based CO2 Sequestration

Hydrate-based CO2 sequestration in submarine sediments is a promising large-scale carbon mitigation strategy. This study examined the effects of sediment grain size on CO2 hydrate formation kinetics, seepage behavior, and morphology evolution regulated b...

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Váldodahkki:	Yang Li (7082) (author)
Eará dahkkit:	Xiaodong Shen (1542499) (author), Xinlei Shi (6110765) (author), Nanqin Zhou (22676907) (author), Yinde Zhang (22676910) (author), Bo Wang (86769) (author)
Almmustuhtton:	2025
Fáttát:	Biophysics Cell Biology Ecology Sociology Computational Biology Environmental Sciences not elsewhere classified visual observations reveal sediment grain size grained systems exhibit experimental results demonstrate 027 min ). seepage tests showing grain size reduction morphology evolution regulated highest effective permeability optimizing kinetic promoter 90 </ sub 2 </ sub hydrate formation kinetics l ‑ methionine effective permeability kinetic promoter seepage behavior marked reduction like morphology hydrate formation kinetic promotion regulated co >< sub whereas medium throat clogging submarine sediments submarine organic study examined rich sediments promising large optimum reflects nonunidirectional relationship mass transfer injection strategies harsh environment controlled conditions coarse fractions 6 mpa 369 mol 15 k
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Seepage Behavior of CO<sub>2</sub> Hydrate Bearing Sands Regulated by l‑Methionine: Insights into Hydrate-Based CO<sub>2</sub> Sequestration

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