Energetic materials: The preparation and structural characterization of three biguanidinium dinitramides

被引:33
|
作者
Martin, A
Pinkerton, AA
Gilardi, RD
Bottaro, JC
机构
[1] USN,RES LAB,WASHINGTON,DC 20375
[2] SRI INT,MENLO PK,CA 94025
关键词
D O I
10.1107/S0108768196013183
中图分类号
O6 [化学];
学科分类号
0703 ;
摘要
Three biguanidinium salts of the energetic dinitramide anion have been prepared and structurally characterized from room-temperature X-ray diffraction data. Biguanidinium mono-dinitramide, (BIGH)(DN), triclinic, <P(1)over bar>, a = 4.3686(4), b = 9.404(2), c = 10.742(1) Angstrom, alpha = 83.54(1), beta = 80.386(9), gamma = 79.93(1)degrees, V = 426.8 (1) Angstrom(3), Z = 2, D-x = 1.62 g cm(-3). Biguanidinium bis-dinitramide, (BIGH(2))(DN)(2), monoclinic, C2/c, a = 11.892(2), b = 8.131(1), c = 13.038(2) Angstrom, beta = 115.79(1)degrees, V = 1135.1(3) Angstrom(3), Z = 4, D-x = 1.84 g cm(-3). Biguanidinium bis-dinitramide monohydrate, (BIGH(2))(DN)(2) . H2O, orthorhombic, P2(1)2(1)2(1), a = 6.4201(6), b = 13.408(1), c = 14.584(2) Angstrom, V = 1255.4(4) Angstrom(3), Z = 4, D-x = 1.76 g cm(-3). All three structures are characterized by extensive hydrogen bonding. Both the mono- and diprotontated cations consist of two planar halves twisted with respect to each other. The dinitramide anion has a surprisingly variable and asymmetric structure. The two halves of the anion are twisted with respect to each other; however, the twist varies from 5.1 to 28.9 degrees. In addition, the two ends of the anion have significantly different geometries, e.g. the 'equivalent' N-N bond lengths differ by up to 0.045 Angstrom.
引用
收藏
页码:504 / 512
页数:9
相关论文
共 50 条
  • [31] Computer simulations and analysis of structural and energetic features of some crystalline energetic materials
    Eckhardt, Craig J.
    Gavezzotti, Angelo
    JOURNAL OF PHYSICAL CHEMISTRY B, 2007, 111 (13): : 3430 - 3437
  • [32] A Review on the Preparation and Application of Nano-energetic Materials
    Wang S.-W.
    Xiao L.
    Hu Y.-B.
    Zhang G.-P.
    Gao H.-X.
    Zhao F.-Q.
    Hao G.-Z.
    Jiang W.
    Huozhayao Xuebao/Chinese Journal of Explosives and Propellants, 2022, 44 (06): : 705 - 734
  • [33] Theoretical chemical characterization of energetic-materials
    Rice, Betsy M.
    Byrd, Edward F. C.
    MULTIFUNCTIONAL ENERGETIC MATERIALS, 2006, 896 : 213 - +
  • [34] CHARACTERIZATION OF ENERGETIC AND STRUCTURAL HETEROGENEITIES OF ACTIVATED CARBONS
    JARONIEC, M
    MADEY, R
    LU, X
    CHOMA, J
    LANGMUIR, 1988, 4 (04) : 911 - 917
  • [35] Three-dimensional printing of energetic materials: A review
    Zhang, Ji-chi
    He, Kuai
    Zhang, Da-wei
    Dong, Ji-dong
    Li, Bing
    Liu, Yi-jie
    Gao, Guo -lin
    Jiang, Zai-xing
    ENERGETIC MATERIALS FRONTIERS, 2022, 3 (02): : 97 - 108
  • [36] High-pressure structural studies of energetic materials
    Millar, David I. A.
    Marshall, William G.
    Oswald, Iain D. H.
    Pulham, Colin R.
    CRYSTALLOGRAPHY REVIEWS, 2010, 16 (02) : 115 - 132
  • [37] Facile preparation methods of hydrotalcite layered materials and their structural characterization by combined techniques
    Conterosito, Eleonora
    Gianotti, Valentina
    Palin, Luca
    Boccaleri, Enrico
    Viterbo, Davide
    Milanesio, Marco
    INORGANICA CHIMICA ACTA, 2018, 470 : 36 - 50
  • [38] Electroactive materials for organic electronics: preparation strategies, structural aspects and characterization techniques
    Pron, Adam
    Gawrys, Pawel
    Zagorska, Malgorzata
    Djurado, David
    Demadrille, Renaud
    CHEMICAL SOCIETY REVIEWS, 2010, 39 (07) : 2577 - 2632
  • [39] Preparation, quasi-static, and dynamic compressive mechanical properties of BMG-W energetic structural materials
    Hu, Aobo
    Cai, Shuizhou
    JOURNAL OF MATERIALS RESEARCH AND TECHNOLOGY-JMR&T, 2023, 24 : 9657 - 9676
  • [40] Preparation and characterization of GA/RDX nanostructured energetic composites
    YUANFEI LAN
    XUEBAO WANG
    YUNJUN LUO
    Bulletin of Materials Science, 2016, 39 : 1701 - 1707