Synopsis of Social media discussions
The discussions reflect a balanced appreciation of the article's technical achievements, with phrases like 'significant improvements' and 'promising approach', highlighting both respect and optimism. The tone and choice of words indicate that participants recognize the potential impact of engineering heterojunctions, engaging with specific scientific concepts while also expressing broader enthusiasm for clean energy advances.
Agreement
Moderate agreementMost discussions acknowledge the significance of the research, with some users enthusiastically supporting its potential, although a few remain cautiously optimistic.
Interest
Moderate level of interestThe social discussions show moderate interest, with participants mentioning specific aspects like the stability and catalytic efficiency, indicating curiosity without deep technical engagement.
Engagement
Moderate level of engagementCommenters reference details from the study, such as the electronic modifications and energy barriers, suggesting attentive reading and meaningful interaction.
Impact
Moderate level of impactSeveral posts suggest that the work could be transformative for energy technology, emphasizing real-world applications like water splitting and sustainable energy solutions.
Social Mentions
YouTube
1 Videos
1 Posts
News
2 Articles
Metrics
Video Views
14
Total Likes
1
Extended Reach
1,192
Social Features
4
Timeline: Posts about article
Top Social Media Posts
BFML at UNIST
Interface Engineering of Co‐LDH@MOF Heterojunction in Highly Stable and Efficient Oxygen Evolution Reaction https://t.co/x0vq9tqbWd #mof #feedly
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Posts referencing the article
Enhanced Water Splitting Efficiency via Co-LDH@MOF Heterojunction Engineering
This study focuses on improving water splitting efficiency for clean energy by engineering heterojunctions between ZIF67 and layered double hydroxide. The interface engineering enhances catalytic activity and stability during oxygen evolution reactions.
August 10, 2023
14 views
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Interface Engineering of Co‐LDH@MOF Heterojunction in Highly Stable and Efficient Oxygen Evolution Reaction https://t.co/x0vq9tqbWd #mof #feedly
view full postDecember 14, 2020
1
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电催化两电子水氧化制备过氧化氢的研究进展 | PDF
Adv. Song, W.; Yang, Y. Adv. Sci. 2021, 8 (2), 2002631. Funct. Mater. 2019, 30 (1), 1906670. doi: 10.1002/adfm.201906670 doi: 10.1002/advs.202002631. (115) ...
view full postDecember 15, 2025
News
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Fchem 10 1089708 | PDF | Catalysis | Chemical Reactions
Adv. Sci. 8 (2), 2002631. doi:10.1002/advs.202002631 1021/acsanm.9b01833. Liang, M., Borjigin, T., Zhang, Y., Liu, B., Liu, H., and Guo, H. (2019) ...
view full postDecember 15, 2025
News
Abstract Synopsis
- The study focuses on improving the efficiency of water splitting for clean energy by engineering heterojunctions between ZIF67 and layered double hydroxide (CoLDH), which enhances both catalytic activity and stability during oxygen evolution reaction (OER).
- The interface between CoLDH and ZIF67 is formed through interactions between oxygen in CoLDH and nitrogen in ZIF67's ligand, which modifies the electronic structure of active sites, making it easier to break chemical bonds involved in OER.
- Experimental and theoretical results show that this engineered heterojunction significantly lowers the energy barrier for OER, achieving high activity with low overpotential and sustaining stability for over 50 hours, offering a promising approach to optimize catalytic performance for water splitting.]
BFML at UNIST
@bfml_unist (Twitter)