| Field |
Value |
Language |
|
dc.contributor.author |
Cashel, J |
|
|
dc.contributor.author |
Yan, D |
|
|
dc.contributor.author |
Han, R |
|
|
dc.contributor.author |
Jeong, H |
|
|
dc.contributor.author |
Yoon, CW |
|
|
dc.contributor.author |
Ambay, JA |
|
|
dc.contributor.author |
Liu, Y |
|
|
dc.contributor.author |
Ung, AT |
|
|
dc.contributor.author |
Yang, L |
|
|
dc.contributor.author |
Huang, Z |
|
|
dc.date.accessioned |
2025-03-25T07:23:16Z |
|
|
dc.date.available |
2025-03-25T07:23:16Z |
|
|
dc.date.issued |
2025-03-01 |
|
|
dc.identifier.citation |
Angewandte Chemie, 2025 |
|
|
dc.identifier.issn |
0044-8249 |
|
|
dc.identifier.issn |
1521-3757 |
|
|
dc.identifier.uri |
http://hdl.handle.net/10453/186202
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|
|
dc.description.abstract |
<jats:p>Compounds containing B–H, C–H, N–H, or O–H bonds with high hydrogen content have been extensivley studied as potential hydrogen carriers. Their hydrogen storage performance is largely determined by the nature of these bonds, decomposition pathways and the properties of the dehydrogenation products. Among these compounds, methanol, cyclohexane, and ammonia stand out due to their low costs and established infrastructure, making them promising hydrogen carriers for large‐scale storage and transport. They offer viable pathways for decarbonising society by enabling hydrogen to serve as a clean energy source. However, several challenges persist, including the high temperatures required for (de)hydrogenation, slow kinetics, and the reliance on costly catalysts. To address these isssues, strategies such as chemical modification and catalyst development are being pursued to improve hydrogen cycling performance. This review highlights recent progress in hydrogen carriers with B–H, C–H, N–H, or O–H bonds. It examines the fundamental charateristics of these bonds and carriers, as well as advances in catalyst development. Our objective is to offer a comprehensive understanding of current state of hydrogen carriers and identify future research directions, such as molecular modification and system optimisation. Innovations in these areas are crucial to advance hydrogen storage technologies for a large‐scale hydrogen deployment.</jats:p> |
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dc.language |
en |
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|
dc.publisher |
Wiley |
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dc.relation.ispartof |
Angewandte Chemie |
|
|
dc.relation.isbasedon |
10.1002/ange.202423661 |
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dc.rights |
info:eu-repo/semantics/openAccess |
|
|
dc.subject |
03 Chemical Sciences |
|
|
dc.subject.classification |
Organic Chemistry |
|
|
dc.subject.classification |
34 Chemical sciences |
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|
dc.title |
Chemical Bonds Containing Hydrogen: Choices for Hydrogen Carriers and Catalysts |
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|
dc.type |
Journal Article |
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|
utslib.for |
03 Chemical Sciences |
|
|
pubs.organisational-group |
University of Technology Sydney |
|
|
pubs.organisational-group |
University of Technology Sydney/Faculty of Engineering and Information Technology |
|
|
pubs.organisational-group |
University of Technology Sydney/Faculty of Engineering and Information Technology/School of Civil and Environmental Engineering |
|
|
pubs.organisational-group |
University of Technology Sydney/UTS Groups |
|
|
pubs.organisational-group |
University of Technology Sydney/UTS Groups/Centre for Green Technology (CGT) |
|
|
utslib.copyright.status |
open_access |
* |
|
dc.rights.license |
This work is licensed under a Creative Commons Attribution 4.0 International License (CC BY 4.0). To view a copy of this license, visit https://creativecommons.org/licenses/by/4.0/ |
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|
dc.date.updated |
2025-03-25T07:23:11Z |
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|
pubs.publication-status |
Published online |
|
