Exploring nanoporous carbon architectures for enhanced solid-state hydrogen storage: Recent progress and future prospects
Hydrogen (H2), with the highest energy density among energy carriers, is crucial for advancing renewable energy. Efficient H2 storage is key to transitioning to renewable sources. Solid-state H2 storage (SSHS) technology, known for its high energy density, safety, and cost-effectiveness, is emerging...
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Elsevier Ltd
2025
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| author | Hossain M.A.M. Hannan M.A. Tiong S.K. Ker P.J. Abu S.M. Wong R.T. Mahlia T.M.I. |
| author2 | 57226629032 |
| author_facet | 57226629032 Hossain M.A.M. Hannan M.A. Tiong S.K. Ker P.J. Abu S.M. Wong R.T. Mahlia T.M.I. |
| author_sort | Hossain M.A.M. |
| building | UNITEN Library |
| collection | Institutional Repository |
| content_provider | Universiti Tenaga Nasional |
| content_source | UNITEN Institutional Repository |
| continent | Asia |
| country | Malaysia |
| description | Hydrogen (H2), with the highest energy density among energy carriers, is crucial for advancing renewable energy. Efficient H2 storage is key to transitioning to renewable sources. Solid-state H2 storage (SSHS) technology, known for its high energy density, safety, and cost-effectiveness, is emerging as a vital method. However, finding the most efficient SSHS materials to meet remains an open question, requiring new strategies for material design. Among various investigated materials, nanoporous carbon architectures (NCAs) are promising due to their high surface area, adjustable pore structure, and excellent chemical stability. This review highlights recent advancements in optimizing nanoporous carbon materials (NCMs), specifically NCAs, through advanced synthesis techniques to enhance their practical potential for SSHS. It covers H2 storage fundamentals, including the impact of pore size and surface chemistry, alongside strategies to improve storage capacity and kinetics. Additionally, it addresses challenges such as limited storage capacity, slow reaction kinetics, and long-term stability, as well as promising approaches to advance SSHS. The paper emphasizes the need for further research to optimize pore structures, increase binding energy, and conduct comprehensive lifecycle analyses. These efforts are essential for transitioning to a sustainable H2 economy and ensuring the commercial viability of NCAs in H2 storage applications. Overall, the results indicate that addressing the current challenges and leveraging the unique properties of NCAs can lead to effective H2 storage methods, contributing to the broader adoption of H2 as a clean energy carrier. ? 2025 Hydrogen Energy Publications LLC |
| format | Review |
| id | my.uniten.dspace-36736 |
| institution | Universiti Tenaga Nasional |
| publishDate | 2025 |
| publisher | Elsevier Ltd |
| record_format | dspace |
| spelling | my.uniten.dspace-367362025-03-03T15:44:17Z Exploring nanoporous carbon architectures for enhanced solid-state hydrogen storage: Recent progress and future prospects Hossain M.A.M. Hannan M.A. Tiong S.K. Ker P.J. Abu S.M. Wong R.T. Mahlia T.M.I. 57226629032 7103014445 15128307800 37461740800 58116063000 57212535676 56997615100 Carbon capture and storage Carbon sequestration Hydrogen storage Energy Energy carriers Future prospects Higher energy density Nano-porous Nanoporous carbons Pores structure Recent progress Solid-state hydrogen storage Storage capacity Hydrogen (H2), with the highest energy density among energy carriers, is crucial for advancing renewable energy. Efficient H2 storage is key to transitioning to renewable sources. Solid-state H2 storage (SSHS) technology, known for its high energy density, safety, and cost-effectiveness, is emerging as a vital method. However, finding the most efficient SSHS materials to meet remains an open question, requiring new strategies for material design. Among various investigated materials, nanoporous carbon architectures (NCAs) are promising due to their high surface area, adjustable pore structure, and excellent chemical stability. This review highlights recent advancements in optimizing nanoporous carbon materials (NCMs), specifically NCAs, through advanced synthesis techniques to enhance their practical potential for SSHS. It covers H2 storage fundamentals, including the impact of pore size and surface chemistry, alongside strategies to improve storage capacity and kinetics. Additionally, it addresses challenges such as limited storage capacity, slow reaction kinetics, and long-term stability, as well as promising approaches to advance SSHS. The paper emphasizes the need for further research to optimize pore structures, increase binding energy, and conduct comprehensive lifecycle analyses. These efforts are essential for transitioning to a sustainable H2 economy and ensuring the commercial viability of NCAs in H2 storage applications. Overall, the results indicate that addressing the current challenges and leveraging the unique properties of NCAs can lead to effective H2 storage methods, contributing to the broader adoption of H2 as a clean energy carrier. ? 2025 Hydrogen Energy Publications LLC Final 2025-03-03T07:44:17Z 2025-03-03T07:44:17Z 2024 Review 10.1016/j.ijhydene.2025.02.262 2-s2.0-85217911561 https://www.scopus.com/inward/record.uri?eid=2-s2.0-85217911561&doi=10.1016%2fj.ijhydene.2025.02.262&partnerID=40&md5=8260b183f30e0b2023eb7ffc293b29c2 https://irepository.uniten.edu.my/handle/123456789/36736 110 271 299 Elsevier Ltd Scopus |
| spellingShingle | Carbon capture and storage Carbon sequestration Hydrogen storage Energy Energy carriers Future prospects Higher energy density Nano-porous Nanoporous carbons Pores structure Recent progress Solid-state hydrogen storage Storage capacity Hossain M.A.M. Hannan M.A. Tiong S.K. Ker P.J. Abu S.M. Wong R.T. Mahlia T.M.I. Exploring nanoporous carbon architectures for enhanced solid-state hydrogen storage: Recent progress and future prospects |
| title | Exploring nanoporous carbon architectures for enhanced solid-state hydrogen storage: Recent progress and future prospects |
| title_full | Exploring nanoporous carbon architectures for enhanced solid-state hydrogen storage: Recent progress and future prospects |
| title_fullStr | Exploring nanoporous carbon architectures for enhanced solid-state hydrogen storage: Recent progress and future prospects |
| title_full_unstemmed | Exploring nanoporous carbon architectures for enhanced solid-state hydrogen storage: Recent progress and future prospects |
| title_short | Exploring nanoporous carbon architectures for enhanced solid-state hydrogen storage: Recent progress and future prospects |
| title_sort | exploring nanoporous carbon architectures for enhanced solid-state hydrogen storage: recent progress and future prospects |
| topic | Carbon capture and storage Carbon sequestration Hydrogen storage Energy Energy carriers Future prospects Higher energy density Nano-porous Nanoporous carbons Pores structure Recent progress Solid-state hydrogen storage Storage capacity |
| url_provider | http://dspace.uniten.edu.my/ |