Li Ying, Jiang Zhiyuan, Liu Zijun, Li Bindong
School of Chemistry and Chemical Engineering, Nanjing University of Science and Technology, Nanjing 210094, China.
Langmuir. 2024 Jun 18;40(24):12313-12321. doi: 10.1021/acs.langmuir.4c01309. Epub 2024 Jun 5.
High energy and high risk have always restricted the application of materials in the military and civilian fields. To achieve this goal, researchers have studied the structural characteristics and structure-activity relationship of biomass polyphenol material to obtain core-shell biomass polyphenol composite energetic materials through molecular and structural design. The interface structure has a significant impact on the safety performance and thermal stability of energetic materials. The unique advantages of natural biomass polyphenol chemistry (tannic acid and tea polyphenols) include the structural design and performance control of energetic materials. This paper provides a review of the preparation of core-shell biomass polyphenol energetic materials, which involve the use of polyphenols as the shell layer, surface modification layer, and intermediate layer to enhance intermolecular interactions. This approach aims to enhance the thermal stability and reduce the sensitivity. Furthermore, the paper offers suggestions for potential future research directions based on the findings.
高能量和高风险一直限制着材料在军事和民用领域的应用。为实现这一目标,研究人员研究了生物质多酚材料的结构特征和构效关系,通过分子和结构设计获得核壳生物质多酚复合含能材料。界面结构对含能材料的安全性能和热稳定性有显著影响。天然生物质多酚化学(单宁酸和茶多酚)的独特优势包括含能材料的结构设计和性能控制。本文综述了核壳生物质多酚含能材料的制备,其中涉及使用多酚作为壳层、表面改性层和中间层来增强分子间相互作用。这种方法旨在提高热稳定性并降低敏感度。此外,本文还根据研究结果对未来潜在的研究方向提出了建议。