Metal–Organic Framework-Based Composites for Dual Functionalities: Advances in Microwave Absorption and Flame Retardancy

With the rapid expansion of electronic information technology and rising material safety needs, the creation of composite materials that perform both electromagnetic microwave absorption (EMA) and flame retardancy has arisen as a materials science research hotspot. Metal–organic frameworks (MOFs) have great potential for developing novel multifunctional composite materials due to their unique structural characteristics and customizable functions. This work presents a comprehensive assessment of the most recent research findings on MOF-based EMA-flame retardant dual-functional composites. The fundamental mechanisms of EMA and flame retardancy are covered, including dielectric loss, magnetic loss, and both condensed-phase and gas-phase flame retardancy mechanisms. The development of composites based on Fe-MOF, Co-MOF, Ni-MOF, and polymetallic MOF in terms of EMA and flame retardancy is highlighted. These materials offer exceptional EMA performance and strong flame retardancy effects thanks to their unique structural designs and component regulations. In addition, some materials have great infrared stealth, thermal insulation, hydrophobic, and mechanical qualities. Ultimately, the problems of MOF-based dual-functional composites and their development possibilities are reviewed, giving valuable references for the development of new multifunctional composite materials.

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Institutions

Publication Details

Journal
Journal of Composites Science
Published
2025-03-06
DOI
https://doi.org/10.3390/jcs9030121
Citations
9
Primary Topic
Electromagnetic wave absorption materials
Type
article
Field-Weighted Citation Impact
3.85

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article

Metal–Organic Framework-Based Composites for Dual Functionalities: Advances in Microwave Absorption and Flame Retardancy

Ye‐Tang Pan, Siqi Huo, Mingliang Ma, Jinhu Hu et al.
9 citations
Journal of Composites Science
Electromagnetic wave absorption materials
3.85
article

Metal–Organic Framework-Based Composites for Dual Functionalities: Advances in Microwave Absorption and Flame Retardancy

Ye‐Tang Pan, Siqi Huo, Mingliang Ma, Jinhu Hu, Qianlong Li, Jialin Jiang, Xiuhong Sun, Jin Cao
article en
9 citations

Abstract

With the rapid expansion of electronic information technology and rising material safety needs, the creation of composite materials that perform both electromagnetic microwave absorption (EMA) and flame retardancy has arisen as a materials science research hotspot. Metal–organic frameworks (MOFs) have great potential for developing novel multifunctional composite materials due to their unique structural characteristics and customizable functions. This work presents a comprehensive assessment of the most recent research findings on MOF-based EMA-flame retardant dual-functional composites. The fundamental mechanisms of EMA and flame retardancy are covered, including dielectric loss, magnetic loss, and both condensed-phase and gas-phase flame retardancy mechanisms. The development of composites based on Fe-MOF, Co-MOF, Ni-MOF, and polymetallic MOF in terms of EMA and flame retardancy is highlighted. These materials offer exceptional EMA performance and strong flame retardancy effects thanks to their unique structural designs and component regulations. In addition, some materials have great infrared stealth, thermal insulation, hydrophobic, and mechanical qualities. Ultimately, the problems of MOF-based dual-functional composites and their development possibilities are reviewed, giving valuable references for the development of new multifunctional composite materials.

Journal of Composites ScienceVol. 9(3)
Beijing Institute of Technology (CN), Tangshan College (CN), University of Southern Queensland (AU), Qingdao University of Technology (CN), University of Science and Technology Beijing (CN)
National Natural Science Foundation of China, Natural Science Foundation of Chongqing, Natural Science Foundation of Shandong Province
Openalex Percentile: Top 6%
Electromagnetic wave absorption materials
3.85
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