世界范围内,高张力键能材料如离子氮、全氮、聚合氮(Chong ZHANG,Cheng-guo SUN,Bing-cheng HU,et al. Synthesis and characterization of the pentazolateanion cyclo-N5-in(N5)6(H3O)3(NH4)4Cl[J]. Science,2017,335(6323):374-376;Y...世界范围内,高张力键能材料如离子氮、全氮、聚合氮(Chong ZHANG,Cheng-guo SUN,Bing-cheng HU,et al. Synthesis and characterization of the pentazolateanion cyclo-N5-in(N5)6(H3O)3(NH4)4Cl[J]. Science,2017,335(6323):374-376;Yuan-gang XU,Qian WANG,Cheng SHEN,et al. A series of energetic metal pentazolatehydrates [J]. Nature,DOI:10.1038/nature23662)、金属氢(Brent Grocholski. Staming hydrogen into metal[J]. Science,2017,335(6326):706)等颠覆性含能材料的合成与表征仍处于探索阶段,近期难以工程化应用,“采用新型毁伤机理或模式,实现新效应毁伤”则成为常规毁伤技术的重点发展方向(宋浦,肖川.常规毁伤的新发展——超强毁伤技术[J].含能材料,2018,26(6):462-463)。展开更多
文摘世界范围内,高张力键能材料如离子氮、全氮、聚合氮(Chong ZHANG,Cheng-guo SUN,Bing-cheng HU,et al. Synthesis and characterization of the pentazolateanion cyclo-N5-in(N5)6(H3O)3(NH4)4Cl[J]. Science,2017,335(6323):374-376;Yuan-gang XU,Qian WANG,Cheng SHEN,et al. A series of energetic metal pentazolatehydrates [J]. Nature,DOI:10.1038/nature23662)、金属氢(Brent Grocholski. Staming hydrogen into metal[J]. Science,2017,335(6326):706)等颠覆性含能材料的合成与表征仍处于探索阶段,近期难以工程化应用,“采用新型毁伤机理或模式,实现新效应毁伤”则成为常规毁伤技术的重点发展方向(宋浦,肖川.常规毁伤的新发展——超强毁伤技术[J].含能材料,2018,26(6):462-463)。
