Critical Review on Carbon Dioxide Sequestration Potentiality in Methane Hydrate Reservoirs via CO2–CH4 Exchange: Experiments, Simulations, and Pilot Test Applications
Many researchers have investigated the potential of methane hydrate reservoirs (MHRs) for carbon dioxide (CO2) sequestration and methane (CH4) production through the CO2–CH4 replacement method. This technique is not yet commercially implemented due to various limitations, especially economic reasons...
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Published in | Energy & fuels Vol. 37; no. 15; pp. 10843 - 10868 |
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Main Authors | , , , , , |
Format | Journal Article |
Language | English |
Published |
American Chemical Society
03.08.2023
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Subjects | |
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Abstract | Many researchers have investigated the potential of methane hydrate reservoirs (MHRs) for carbon dioxide (CO2) sequestration and methane (CH4) production through the CO2–CH4 replacement method. This technique is not yet commercially implemented due to various limitations, especially economic reasons. This study investigated recent advancements in MHRs potentiality for CO2 sequestration through CO2 or mixed gas exchange injection while recovering CH4. From the experiments, modeling, and simulations, and one pilot test conducted, it was found that there is a great potentiality of sequestrating CO2 in MHRs while recovering CH4. In addition, it was revealed that to produce more CH4, the nitrogen/hydrogen (N2/H2) mole fraction in the injector gas stream should be more significant than that in CO2, while to sequestrate more CO2, the CO2 mole fraction in the injector gas stream should be greater than the N2/H2 mole fraction. The CO2–mixture gases mole fraction ratio recommended from one successful pilot test conducted was 23:77 (CO2/N2), which revealed that approximately 60% of injected CO2 was sequestrated with 855 × 103 standard cubic feet of CH4 produced. The challenges identified in this review will urge researchers to explore suitable technologies to conduct more pilot tests and pave the way toward entire field operations on CO2 sequestration in MHRs toward decarbonization. |
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AbstractList | Many researchers have investigated the potential of methane hydrate reservoirs (MHRs) for carbon dioxide (CO2) sequestration and methane (CH4) production through the CO2–CH4 replacement method. This technique is not yet commercially implemented due to various limitations, especially economic reasons. This study investigated recent advancements in MHRs potentiality for CO2 sequestration through CO2 or mixed gas exchange injection while recovering CH4. From the experiments, modeling, and simulations, and one pilot test conducted, it was found that there is a great potentiality of sequestrating CO2 in MHRs while recovering CH4. In addition, it was revealed that to produce more CH4, the nitrogen/hydrogen (N2/H2) mole fraction in the injector gas stream should be more significant than that in CO2, while to sequestrate more CO2, the CO2 mole fraction in the injector gas stream should be greater than the N2/H2 mole fraction. The CO2–mixture gases mole fraction ratio recommended from one successful pilot test conducted was 23:77 (CO2/N2), which revealed that approximately 60% of injected CO2 was sequestrated with 855 × 103 standard cubic feet of CH4 produced. The challenges identified in this review will urge researchers to explore suitable technologies to conduct more pilot tests and pave the way toward entire field operations on CO2 sequestration in MHRs toward decarbonization. Many researchers have investigated the potential of methane hydrate reservoirs (MHRs) for carbon dioxide (CO₂) sequestration and methane (CH₄) production through the CO₂–CH₄ replacement method. This technique is not yet commercially implemented due to various limitations, especially economic reasons. This study investigated recent advancements in MHRs potentiality for CO₂ sequestration through CO₂ or mixed gas exchange injection while recovering CH₄. From the experiments, modeling, and simulations, and one pilot test conducted, it was found that there is a great potentiality of sequestrating CO₂ in MHRs while recovering CH₄. In addition, it was revealed that to produce more CH₄, the nitrogen/hydrogen (N₂/H₂) mole fraction in the injector gas stream should be more significant than that in CO₂, while to sequestrate more CO₂, the CO₂ mole fraction in the injector gas stream should be greater than the N₂/H₂ mole fraction. The CO₂–mixture gases mole fraction ratio recommended from one successful pilot test conducted was 23:77 (CO₂/N₂), which revealed that approximately 60% of injected CO₂ was sequestrated with 855 × 10³ standard cubic feet of CH₄ produced. The challenges identified in this review will urge researchers to explore suitable technologies to conduct more pilot tests and pave the way toward entire field operations on CO₂ sequestration in MHRs toward decarbonization. |
Author | Abelly, Elieneza Nicodemus Yu, Long Nyakilla, Edwin E. Mwakipunda, Grant Charles Mgimba, Melckzedeck Michael Ngata, Mbega Ramadhani |
AuthorAffiliation | Key Laboratory of Theory and Technology of Petroleum Exploration and Development in Hubei Province |
AuthorAffiliation_xml | – name: Key Laboratory of Theory and Technology of Petroleum Exploration and Development in Hubei Province |
Author_xml | – sequence: 1 givenname: Grant Charles orcidid: 0000-0003-3446-827X surname: Mwakipunda fullname: Mwakipunda, Grant Charles organization: Key Laboratory of Theory and Technology of Petroleum Exploration and Development in Hubei Province – sequence: 2 givenname: Elieneza Nicodemus surname: Abelly fullname: Abelly, Elieneza Nicodemus organization: Key Laboratory of Theory and Technology of Petroleum Exploration and Development in Hubei Province – sequence: 3 givenname: Melckzedeck Michael surname: Mgimba fullname: Mgimba, Melckzedeck Michael organization: Key Laboratory of Theory and Technology of Petroleum Exploration and Development in Hubei Province – sequence: 4 givenname: Mbega Ramadhani orcidid: 0000-0002-7396-2257 surname: Ngata fullname: Ngata, Mbega Ramadhani organization: Key Laboratory of Theory and Technology of Petroleum Exploration and Development in Hubei Province – sequence: 5 givenname: Edwin E. surname: Nyakilla fullname: Nyakilla, Edwin E. organization: Key Laboratory of Theory and Technology of Petroleum Exploration and Development in Hubei Province – sequence: 6 givenname: Long surname: Yu fullname: Yu, Long email: yulong36@cug.edu.cn organization: Key Laboratory of Theory and Technology of Petroleum Exploration and Development in Hubei Province |
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Snippet | Many researchers have investigated the potential of methane hydrate reservoirs (MHRs) for carbon dioxide (CO2) sequestration and methane (CH4) production... Many researchers have investigated the potential of methane hydrate reservoirs (MHRs) for carbon dioxide (CO₂) sequestration and methane (CH₄) production... |
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SubjectTerms | carbon dioxide carbon sequestration energy gas exchange hydrogen methane nitrogen |
Title | Critical Review on Carbon Dioxide Sequestration Potentiality in Methane Hydrate Reservoirs via CO2–CH4 Exchange: Experiments, Simulations, and Pilot Test Applications |
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