全部 标题 作者
关键词 摘要

OALib Journal期刊
ISSN: 2333-9721
费用:99美元

查看量下载量

相关文章

更多...
含能材料  2010 

炸药研究中的微波效应及其机制

DOI: 10.3969/j.issn.1006-9941.2010.05.018

Keywords: 物理化学,微波,炸药,热点理论

Full-Text   Cite this paper   Add to My Lib

Abstract:

对炸药研究中的各种微波效应进行了综述,包括微波测试炸药性能的技术,应用微波进行炸药合成/制备/干燥/回收等,应用微波引发炸药等。分析了微波对炸药作用的基本原理,并从微波对炸药材料中各种组分的加热作用具有选择性出发,分析认为,微波引发炸药的过程仍遵循微波热点引发理论,可以解释微波有意/无意引发炸药的实验及其微观机制。

References

[1]  Asay B,Dickson P,Henson B,et al. Effect of temperature profile on reaction violence in heated and selfignited PBX 9501[C]∥AIP Conference Proceedings,620 (Shock Compression of Condensed Matter,Pt. 2),2002: 1065-1068.
[2]  Anicin B A,Jojic B,Blagojevic D,et al. Flame plasma and the microwave determination of solid propellant regression rates[J]. Combustion & Flame,1986,64(3): 309-319.
[3]  杨敏涛. BS310微波干涉仪在武器研制中的应用[J]. 测试技术学报,1996,10(2,3): 164-169. YANG Mintao. Application of BS310 microwave interferometer in weapon manufacture[J]. Journal of Test and Measurement Technique,1996,10(2,3): 164-169.
[4]  Kuznetsov A. Concept of a combined mobile device for explosives and landmines identification based on timed neutron source and electromagnetic UHF waves[J]. NATO Science Series Ⅱ: Mathematics,Physics and Chemistry,2002,66: 21-32.
[5]  刘慧君,樊月琴,冯峰,等.微波辅助合成2,4二硝基咪唑[J].含能材料,2010,18(1):1-3. LIU Huijun,FAN Yueqin,FENG Feng,et al. Synthesis of 2,4dinitroimidazole by microwave heating[J]. Chinese Journal of Energetic Materials(Hanneng Cailiao),2010,18(1):1-3.
[6]  Zhilin A Yu,Ilyushin M A,Tselinskii I V. Tetraamminecisbis(5nitrotetrazolatoN2) cobaltate (Ⅲ): Explosive for a safe initiating agent[J]. Khimicheskaya Fizika,2002,21(8): 54-57.
[7]  Ilyushin M A,Tselinskii I V,Zhilin A Yu,et al. Complex ammine cobalt (Ⅲ) perchlorates as nontoxic (green) initiating explosives[C]∥Sovremennye Problemy Tekhnicheskoi Khimii,Materialy Dokladov Mezhdunarodnoi NauchnoTekhnicheskoi i Metodicheskoi Konferentsii,Kazan,Russian,Dec. 22-24,2004: 35-41.
[8]  Zhilin A Yu,Ilyushin M A,Tselinskii I V,et al. Complex energetic perchlorates of cobalt (Ⅲ) amminates,with cyclopentamethylenetetrazole as ligand[J]. Russian Journal of Applied Chemistry,2005,78(2): 188-192.
[9]  Cartier J P. Microwave thermal treatment of acid residues[C]∥Recents Prog. Genie Procedes,5(12,Electr. Genie Procedes),1991: 139-141.
[10]  JeanPaul B. treatment of residuary acids by microwaves[C]∥AIChE Annual Meeting,Conference Proceedings,Austin,TX,United States,Nov. 7-12,2004,IC2/1IC2/3.
[11]  Burch D,Griggs J,Johnson M,et al. Recovery/reuse of energetics from military munitions[C]∥Proc. Int. Pyrotech. Semin.,24th,1998: 101-112.
[12]  Burch D,Griggs J,Johnson M,et al. Demilitarization technology development for military munitions[C]∥Proc. Int. Pyrotech. Semin.,27th,2000: 811-820.
[13]  Hayes R W. Melting explosives from obsolete 750 pound bombs with the use of microwave heating[C]∥Proceedings of Microwave Power Symposium,Milwaukee,US,1974.
[14]  Hayes R W,Frandsen R O. Microwave meltout of explosives from loaded munitions[C]∥CPIA Publ.,674(Vol. 1,1998 JANNAF Propellant Development & Characterization Subcommittee and Safety & Environmental Protection Subcommittee Joint Meeting,Vol. 1),1998: 345-356.
[15]  Perry W L,Son S F,Assay B W. Microwave heating of energetic materials: NTIS: PATAPPL10883 277[P]. 2004.
[16]  Hasue K,Tanabe M,Nakahara S,et al. Initiation of explosives by microwave irradiation[J]. Kogyo Kayaku,1985,46(2): 87-92.
[17]  Hasue K,WatanabeN,Nakahara S,et al. Initiation of explosives by microwave heating[J]. Kogyo Kayaku,1986,47(2): 70-76.
[18]  Hasue K,Tanabe M,Watanabe N,et al. Initiation of some energetic materials by microwave heating[J]. Propellants,Explos.,Pyrotech.,1990,15(5): 181-186.
[19]  Kury J. Informal progress report of the explosives group[R]. NTIS: DE97051333,1997.
[20]  Zucker J M,Dickson P M,Parker G R,et al. Quantification of reaction violence and combustion enthalpy of plastic bonded explosive 9501 under varying confinement[C]∥International Annual Conference of ICT,36th(Energetic Materials),85/185/12 (English) 2005 FraunhoferInstitut fuer Chemische Technologie.
[21]  Glancy B C,Sandusky H W,Krall A D. Microwave interferometric hot spot density measurements in energetic materials[C]∥Shock Compression Condens. Matter1991,Proc. Am. Phys. Soc. Top. Conf.,7th,Meeting Date 1991: 663-666.
[22]  Glancy B C,Sandusky H W,Krall A D. Microwave interferometry of shock waves. Ⅱ. Reacting porous media[J]. Journal of Applied Physics,1993,74(10): 6328-6334.
[23]  Lee J J,Pavlasek T J F. Development of a broadband microwave interferometer for diagnostic measurements of detonations[C]∥NonIntrusive Combust. Diagn.,[Pap. Int. Symp. Spec. Top. Chem. Propul. ]. 3rd,Meeting Date 1993: 285-293.
[24]  Pyper J W,Buettner H M,Cerjan C J,et al. The measurement of bound and free moisture in organic materials by microwave methods[R]. NTIS: DE87008745,1984.
[25]  黄平,石未凡,张存林,等. 六硝基芪、的太赫兹光谱研究[J]. 含能材料,2009,17(5): 544-548.HUANG Ping,SHI Weifan,ZHANG Cunlin,et al. Study on terahertz spectroscopy of HNS[J]. Chinese Journal of Energetic Materials(Hanneng Cailiao),2009,17(5): 544-548.
[26]  Murray F J,Moore C E,Wilczek F J. Microwave resonant absorption of potential exothermic compounds[R]. NTIS: ADA 279798,1989.
[27]  McIntosh G. Effect of 2.45 GHz microwave radiation on diverse explosive DREV memorandum No. Tm9702[R]. NTIS: MIC9802114/XAB,1997.
[28]  左军,韩超,雍炼. 微波加热熔融TNT安全性的实验研究[J]. 含能材料,2006,14(4): 283-285. ZUO Jun,HAN Chao,YONG Lian. Safety of heating TNT in microwave oven[J]. Chinese Journal of Energetic Materials(Hanneng Cailiao),2006,14(4): 283-285.
[29]  Kusurkar R S,Goswami S K,Talawar M B,et al. Microwave mediated fast synthesis of diamino glyoxime and 3,4diaminofurazan: Key synthons for the synthesis of high energy density materials[J]. Journal of Chemical Research,2005,4: 245-247.
[30]  Bhaumik K,Akamanchi K G. 2,4Dinitroimidazole: Microwave assisted synthesis and use in synthesis of 2,3dihydro6nitroimidazo[2,1b] oxazole analogues with antimycobacterial activity[J]. Journal of Heterocyclic Chemistry,2004,41(1): 51-55.
[31]  Burch D,Griggs J,Johnson M,et al. Development of demilitarization technology for military munitions[C]∥Proceedings of the International Disposal Conference,2nd,Linkoeping,Sweden,Nov. 9-10,2000,Meeting Date 2000: 71-80.
[32]  Burch D,Griggs J,Johnson M,et al. Demilitarization technology development[C]∥Proc. 28th Int. Pyrotech. Semin.,2001: 125-137.
[33]  YU Weifei,ZHANG Tonglai,HUANG Yigang,et al. Effect of microwave irradiation on TATB explosive[J]. Journal of Hazardous Materials,2009,142: 952-954.
[34]  李永祥,崔建兰,王建龙,等. 微波干燥RDX 新技术研究[J]. 火炸药学报,2008,31(3): 41-43. LI Yongxiang,CUI Jianlan,WANG Jianlong,et al. Study of a new technology about microwave desiccation of RDX[J]. Chinese Journal of Explosives & Propellants,2008,31(3): 41-43.
[35]  郁卫飞,曾贵玉,聂福德,等. 两种炸药的微波干燥[J]. 含能材料,2004,12(2): 101-103. YU Weifei,ZENG Guiyu,NIE Fude,et al. Microwave desiccation of TATB and RDX[J]. Chinese Journal of Energetic Materials(Hanneng Cailiao),2004,12(2): 101-103.

Full-Text

Contact Us

service@oalib.com

QQ:3279437679

WhatsApp +8615387084133