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Path-dependent morphology of CH<sub>4</sub> hydrates and their dissociation studied with high-pressure microfluidics

Jidong Zhang, Zhenyuan Yin, Saif A. Khan, Shuxia Li, Qingping Li, Xiaohui Liu, Praveen Linga

2024Lab on a Chip52 citationsDOIOpen Access PDF

Abstract

thermal stimulation: (a) single gas bubble growth with an expanding water layer at an initial slow dissociation rate, (b) rapid generation of clusters of gas bubbles at a fast dissociation rate, and (c) gas bubble coalescence with uniform distribution in the pore space. The novel apparatus designed and the image analysis technique developed in this study allow us to directly capture the dynamic evolution of the gas-liquid interface during MH formation and dissociation at the pore-scale. The results provide direct first-hand visual evidence of the growth of MHs in pores and valuable insights into gas-liquid two-phase flow behavior during fluid production from NGHs.

Topics & Concepts

MicrofluidicsDissociation (chemistry)High pressureNanotechnologyMorphology (biology)Path (computing)Materials scienceChemical physicsChemical engineeringChemistryEngineeringBiologyComputer scienceEngineering physicsPhysical chemistryZoologyProgramming languageMethane Hydrates and Related PhenomenaAtmospheric and Environmental Gas DynamicsHydrocarbon exploration and reservoir analysis
Path-dependent morphology of CH<sub>4</sub> hydrates and their dissociation studied with high-pressure microfluidics | Litcius