Research progress of gas hydrate synthesis

The utilization of hydrate-based capture and storage of CO2 presents a promising avenue for substantial emissions reduction, contributing significantly to achieving carbon neutrality goals and addressing climate change. This paper delves into the foundational aspects of gas hydrates, including their...

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Main Author: WU Caifang,GAO Bin,LI Qing,CHEN Zhenlong
Format: Article
Language:zho
Published: Editorial Department of Petroleum Reservoir Evaluation and Development 2024-04-01
Series:Youqicang pingjia yu kaifa
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Online Access:https://red.magtech.org.cn/fileup/2095-1426/PDF/1715050952216-2057273002.pdf
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author WU Caifang,GAO Bin,LI Qing,CHEN Zhenlong
author_facet WU Caifang,GAO Bin,LI Qing,CHEN Zhenlong
author_sort WU Caifang,GAO Bin,LI Qing,CHEN Zhenlong
collection DOAJ
description The utilization of hydrate-based capture and storage of CO2 presents a promising avenue for substantial emissions reduction, contributing significantly to achieving carbon neutrality goals and addressing climate change. This paper delves into the foundational aspects of gas hydrates, including their properties, formation mechanisms, and models, as well as hydrate synthesis within porous media and the use of molecular dynamics simulations for understanding hydrate formation. Key challenges identified in the synthesis process of gas hydrates include the limited solubility of CO2 in porous media, which poses a significant hurdle in precisely determining the storage capacity of CO2 hydrates. Additionally, the local structural mechanisms, particularly nucleation processes involved in gas hydrate formation, are highlighted as complex areas that warrant further investigation. The paper also evaluates the potential of coal-bearing strata, especially in high-latitude and permafrost regions, as viable underground repositories for CO2 storage via hydrate formation. This approach not only offers a method for reducing atmospheric CO2 levels but also leverages the unique geological characteristics of these regions to enhance the efficiency and stability of CO2 storage. In summary, while hydrate-based CO2 capture and storage technologies hold considerable promise for climate change mitigation, addressing the scientific and technical challenges identified in this review is crucial for advancing the field and optimizing the efficacy of this storage method.
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spelling doaj-art-51b36e648e05401fb145bfaae38cefb12025-08-20T02:32:18ZzhoEditorial Department of Petroleum Reservoir Evaluation and DevelopmentYouqicang pingjia yu kaifa2095-14262024-04-0114226727610.13809/j.cnki.cn32-1825/te.2024.02.012Research progress of gas hydrate synthesisWU Caifang,GAO Bin,LI Qing,CHEN Zhenlong01. Key Laboratory of Coalbed Methane Resource & Reservoir Formation Process, Ministry of Education, China University of Mining & Technology, Xuzhou, Jiangsu 221116, China;2. School of Resources and Earth Science, China University of Mining & Technology, Xuzhou, Jiangsu 221116, China;3. Sinopec East China Oil & Company, Nanjing, Jiangsu 210000, ChinaThe utilization of hydrate-based capture and storage of CO2 presents a promising avenue for substantial emissions reduction, contributing significantly to achieving carbon neutrality goals and addressing climate change. This paper delves into the foundational aspects of gas hydrates, including their properties, formation mechanisms, and models, as well as hydrate synthesis within porous media and the use of molecular dynamics simulations for understanding hydrate formation. Key challenges identified in the synthesis process of gas hydrates include the limited solubility of CO2 in porous media, which poses a significant hurdle in precisely determining the storage capacity of CO2 hydrates. Additionally, the local structural mechanisms, particularly nucleation processes involved in gas hydrate formation, are highlighted as complex areas that warrant further investigation. The paper also evaluates the potential of coal-bearing strata, especially in high-latitude and permafrost regions, as viable underground repositories for CO2 storage via hydrate formation. This approach not only offers a method for reducing atmospheric CO2 levels but also leverages the unique geological characteristics of these regions to enhance the efficiency and stability of CO2 storage. In summary, while hydrate-based CO2 capture and storage technologies hold considerable promise for climate change mitigation, addressing the scientific and technical challenges identified in this review is crucial for advancing the field and optimizing the efficacy of this storage method.https://red.magtech.org.cn/fileup/2095-1426/PDF/1715050952216-2057273002.pdf|hydrate|carbon neutralization|coal-based medium|co2 hydrate synthesis|research progress
spellingShingle WU Caifang,GAO Bin,LI Qing,CHEN Zhenlong
Research progress of gas hydrate synthesis
Youqicang pingjia yu kaifa
|hydrate|carbon neutralization|coal-based medium|co2 hydrate synthesis|research progress
title Research progress of gas hydrate synthesis
title_full Research progress of gas hydrate synthesis
title_fullStr Research progress of gas hydrate synthesis
title_full_unstemmed Research progress of gas hydrate synthesis
title_short Research progress of gas hydrate synthesis
title_sort research progress of gas hydrate synthesis
topic |hydrate|carbon neutralization|coal-based medium|co2 hydrate synthesis|research progress
url https://red.magtech.org.cn/fileup/2095-1426/PDF/1715050952216-2057273002.pdf
work_keys_str_mv AT wucaifanggaobinliqingchenzhenlong researchprogressofgashydratesynthesis