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首页> 外文期刊>New Journal of Chemistry >Combining the furoxanylhydrazone framework with various energetic functionalities to prepare new insensitive energetic materials with 3D-cube layer stacking
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Combining the furoxanylhydrazone framework with various energetic functionalities to prepare new insensitive energetic materials with 3D-cube layer stacking

机译:将呋喃胆腙框架与各种能量函数组合,用3D立方体层堆叠制备新的不敏感的能量材料

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摘要

A series of furoxanylhydrazone-derived energetic compounds including salts and neutral compounds were systematically studied using 3-methyl-4-furoxancarbaldehyde as a versatile starting material. Target compounds present a 3D-cube layer crystal packing style due to the special structure of furoxanylhydrazone and vast hydrogen bonds. This configuration breaks through the limitation of the 2D-plane layer structure. Target compounds, which feature such characteristics, exhibit excellent sensitivities toward impact and friction (IS > 24 J; FS > 180 N) and acceptable energetic performance. Moreover, the detonation velocities and pressures of all ionic compounds (6-9, 11-13) were both increased relative to their corresponding neutral compounds. Compared with 5-(3 '-methylfuroxanyl)methyleneamino-tetrazole (10), the sensitivities to impact and friction of its anion salts (11-13) were also lowered to some extent. The structure-property relationship was studied using theoretical calculations, crystal structure analysis and energetic properties. It is noted that five types of crystal packing have been analyzed, which may be useful for the further understanding of crystal and chemical phenomena in energetic materials. The results obtained demonstrate that this study enriches future prospects for the design of energetic materials.
机译:使用3-甲基-4-呋喃酰丙基作为通用原料,系统地研究了一系列呋喃烷腙衍生的能量化合物,包括盐和中性化合物。目标化合物由于呋喃西沙肼和广泛的氢键的特殊结构,具有3D立方层晶体填充风格。这种配置通过2D平面层结构的限制来破裂。具有这种特性的目标化合物表现出良好的敏感性,朝向冲击和摩擦(例如> 24 j; fs> 180 n)和可接受的能量性能。此外,相对于其相应的中性化合物,所有离子化合物(6-9,11-13)的爆炸速度和压力均增加。与5-(3'-甲基呋喃胆羰烷基)甲基氨基 - 四唑(10)相比,其阴离子盐(11-13)的冲击和摩擦的敏感性也在一定程度上降低。使用理论计算,晶体结构分析和能量特性研究了结构性质关系。应注意,已经分析了五种类型的晶体包装,这对于在能量材料中进一步了解晶体和化学现象的进一步了解。获得的结果表明,本研究丰富了能量材料设计的未来前景。

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  • 来源
    《New Journal of Chemistry 》 |2020年第15期| 共8页
  • 作者单位

    Nanjing Univ Sci &

    Technol Sch Engn Nanjing 210094 Peoples R China;

    Nanjing Univ Sci &

    Technol Sch Engn Nanjing 210094 Peoples R China;

    Nanjing Univ Sci &

    Technol Sch Engn Nanjing 210094 Peoples R China;

    Nanjing Univ Sci &

    Technol Sch Engn Nanjing 210094 Peoples R China;

    Nanjing Univ Sci &

    Technol Sch Engn Nanjing 210094 Peoples R China;

    Nanjing Univ Sci &

    Technol Sch Engn Nanjing 210094 Peoples R China;

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  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类 化学 ;
  • 关键词

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