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Progress in Chemistry 1997, Vol. 9 Issue (02): 201- Previous Articles   Next Articles

• Review •

Nanometer-Sized Diamond Powders Synthesized by Explosive Detonation

Xu Kang;Xue Qunji   

  1. (Solid Lubrication Research Laboratory, Lanzhou Institute of Chemical Physics, Chinese Academy of Sciences, Lanzhou 730000, China)
  • Received: Revised: Online: Published:
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The preparation, properties, structures and possible applications of nanometersized diamond powders synthesized by explosive detonation were reviewed. It is emphasized that this is a new assortment of synthetic diamond, which possesses a series of special properties and structures.

Key words: diamonds, explosive detonation, nanomaterials, applications

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[1 ] Gneiner N R, Phillips D S, Johnson J D, Volk F, Nature, 1988, 333, 440～ 442.
[2 ] ЛямкинАЕ, ПетровЕА, ЭршовАП, СаковичГВ, СтаверАМ, ТитовВМ, ДАНСССР, 1988, 302,611～ 613.
[3 ] 徐康, 金增寿, 魏发学, 江天籁, 含能材料, 1993, 1 (3) , 19～ 21.
[4 ] КозыревНВ, ГолубеваЕС, Физ. Гор. Взр. , 1992, 28 (5) , 119～ 123.
[5 ] ВерерщагинАЛ, СаковичГВ, ПетроваЛА, НовоселовВВ, БрыляковПМ, ДАНСССР, 1990, 315, 104～ 105.
[6 ] ПетровЕА, СаковичГВ, БрыляковПМ, ДАНСССР, 1990, 313, 862～ 864.
[7 ] Bogdanov S V , Moroz E M , Korobov Yu A , Inorg. Mater. , 1995, 31, 742～ 744.
[8 ] МиконочниковАЛ, РумянцевБВ, RU 2 036 835, 1995.
[9 ] 徐康, 金增寿, 饶玉山, 含能材料, 1996, 4 (4) , 175～ 181.
[10 ] АнисичкинВФ, МальковИЮ, ТитовВМ, ДАНСССР, 1988, 303, 625～ 627.
[11 ] МальковИЮ, Физ. Гор. Взр. , 1991, 27 (5) , 136～ 140.
[12 ] АнисичкинВФ, Физ. Гор. Взр. , 1994, 30 (5) , 100～ 106.
[13 ] КоломийчукВН, МальковИЮ, Физ. Гор. Взр. , 1993, 29 (1) , 120～ 128.
[14 ] МальковИФ, ФилатовЛЕ, ТитовВМ, ЛитвиновБВ, ЧувилинАЛ, ТесленкоТС, Физ. Гор. Взр. ,1993, 29 (4) , 131～ 134.
[15 ] АнисичкинВФ, ДолгушинДС, ПетровЕА, Физ. Гор. Взр. , 1995, 31 (1) , 109～ 112.
[16 ] ПершинСВ, ПетровЕА, ЦаплинДН, Физ. Гор. Взр. , 1994, 30 (2) , 102～ 105.
[17 ] ВыскубенкоБА, ДаниленкоВВ, ЛинЕЕ, Физ. Гор. Взр. , 1992, 28 (2) , 108～ 109.
[18 ] АнисичкинВФ, МальковИЮ, ТитовВМ, ДАНСССР, 1990, 314, 879～ 881.
[19 ] КозыревНВ, БрыляковПМ, СуСЧ, ШтейнМА, ДАНСССР, 1990, 314, 889～ 891.
[20 ] Van Thiel M , Ree F H, J. Appl. Phys. , 1987, 62, 1761～ 1767.
[21 ] Badziag P, Ellis W P, Gneiner N R, Nature, 1990, 343, 244～ 245.
[22 ] ЕршовАП, КуперштохАЛ, Физ. Гор. Взр. , 1991, 27 (2) , 111～ 117.
[23 ] Vereschagin A L , Sakovich G V , Komarov V F, Diamond Relat. Mater. , 1993, 3, 160～ 162.
[24 ] СаковичГВ, ГубаревичВД, БадаевРЗ, БрыляковПМ, ДАНСССР, 1990, 310, 402～ 404.
[25 ] КурдюмовАВ, БреусовОН, ДробышевВН, ТацийВФ, Физ. Гор. Взр. , 1989, 25 (3) , 126～ 128.
[26 ] 王大志, 徐康, 贾云波, 燕红, 周贵恩, 胡克良, 葛袁, 无机材料学报, 1995, 10, 281～ 287.
[27 ] Jiang T L , Xu K, Carbon, 1995, 33, 1663～ 1671.
[28 ] Jiang T L , Ji S F, Xu K, J. Chem. Soc. , Farad. Trans. , 1996, 92 (18) , 3401～ 3406.
[29 ] Fabiak K, Maar-Stumm M , Blank E, Diamond Relat. Mater. , 1993, 2, 722～ 727.
[30 ] Kuznetsov V L , Chuvilin A L , Butenko Y V , Mal′kov I Yu, Titov V M , Chem. Phys. Lett. , 1994,222, 343～ 348.
[31 ] Kuznetsov V L , Chuvilin A L , Moroz E M , Kolomiichuk V N , Shaikhutdinov S K, Butenko Yu V ,Carbon, 1994, 32, 873～ 882.
[32 ] Xu T , Xu K, Zhao J Z, Mater. Sci. Eng. B , 1996, 38, L 1～L 4.
[33 ] ЧигановаГА, ЧигановАС, ТушкоЮ В, Ж. Прикл. Хим. , 1992, 65, 2598～ 2600.
[34 ] Yosida Y, Appl. Phys. Lett. , 1995, 67, 1627～ 1629.
[35 ] Bassett W A , Weathers M S, A IP Conf . Proc. , 1994, 309 (High Pressure Sci. & Technol. , 1993,part 1) , 651～ 653.
[36 ] ГубаревичВД, ТышецкаяАВ, Ж. Прикл. Хим. , 1992, 65, 34～ 37.
[37 ] СтрелюхинВА, RU 1 765 255, 1992.
[38 ] МакарченкоЛВ, RU 2 031 982, 1995.
[39 ] Hiroaki K, 日本公开特许, 07 256 820, 1995.
[40 ] 阎逢元, 张绪寿, 薛群基, 徐康, 材料研究学报, 1994, 8, 573～ 576.
[41 ] 冶银平, 陈建敏, 徐康, 表面技术, 1996, 25 (4) , 27～ 29.
[42 ] Dorfman V , Pypkin B, US 5 352 493, 1994.
[43 ] Yamamoto Y, Imai T , Fujimori N , Eur. Pat. Appl. , E P 619 378, 1994.
[44 ] Ouyang Q , Okada K, Appl. Surf . Sci. , 1994, 78, 309～ 313.
[45 ] СаковичГВ, БрыляковПМ, ВерещагинАЛ, КомаровВФ, Ж. Всес. Хим. Общ. , 1990, 35, 600～ 602.
[46 ] ЧеповецкийИХ, БудникСН, Сверхтвер. Матер. , 1994, (3) , 62～ 63.
[47 ] Shebalin A I, Privalko Yu N , Sakovich G V et al. , PCT Int. Appl. W O 91 04 311, 1991.
[48 ] 曲建俊, 罗云霞, 润滑与密封, 1995, (2) , 29～ 32.
[49 ] ПороховВС, ЯценкоВА, ХунисЯЕ, RU 2 004 586, 1993.
[50 ] Komapov V F, Sakovich G V , PCT Int. Appl. W O 94 22 970, 1994.
[51 ] Maruyama M , 日本公开特许, 07 18 250, 1995.
[52 ] Chkhalo N I, Fedorchenko M V , Kruglyakov E P, Volokhov A I, Nucl. Instr. Methods Phys. Res.A , 1995, 359, 155～ 156.
[53 ] Gordeev S K, Zhukov S G, Nikitin Yu I, Inorg. Mater. , 1995, 31, 434～ 438.
[54 ] 金洙吉, 王黎钦, 齐毓霖, 哈尔滨工业大学学报, 1995, 27 (3) , 130～ 134.
[55 ] Alekceev O S, Nosova L V , Ryndina Yu A , Stud. Surf . Sci. Catal. , 1993, 75, 837～ 847.
[56 ] Mishima N , Fukagai T , Kawasahi, 日本公开特许, 07 28 267, 1995.
[57 ] Kossovsky N , Gelman A , Hnatyszyn H J , Rajguru S, Garrell R L , Torbati S, Freitas S S F, Chow G M , Bioconjugate Chem. , 1995, 6, 507～ 511.
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