Control of particle size in energetic drop-on-demand inkjet method

Ruirui Zhang, Jun Luo, Hongcheng Lian, Haobo Liu, L. Qi
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引用次数: 2

Abstract

Nano-energetic materials have attracted the worldwide attention since they play an important role in fabricating insensitive high-energy explosives, microenergetic devices, and explosive detectors. However, applications of nano-energetic materials are still limited by the low loading accuracy, material-wasting, and complicated steps. To solve this problem, the drop-on-demand inkjet method is proposed to precisely print energetic droplets. We expect to achieve energetic materials with nanoscale particles by integrating the deposition and the nanocrystallization of energetic droplets in one step. A proprietary uniform energetic micro-droplet printing equipment is utilized to reveal the influence of temperature and frequency on the particle size of energetic materials. Finally, a uniform line, with the particle size between nanometer and microns, is successfully obtained, showing the feasibility of the proposed method for preparing the micro scale charge of nano-energetic materials.
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高能按需滴墨法中粒径的控制
纳米能材料在制造不敏感高能炸药、微能器件和炸药探测器等方面发挥着重要作用,引起了世界各国的广泛关注。然而,纳米能量材料的应用仍然受到装载精度低、材料浪费和步骤复杂等问题的限制。为了解决这一问题,提出了按需喷墨法精确打印高能液滴。我们期望通过将能滴的沉积和纳米晶化在一个步骤中结合起来,获得具有纳米级粒子的能材料。利用专有的均匀高能微滴打印设备,揭示了温度和频率对含能材料粒径的影响。最后,成功地获得了一条粒径介于纳米和微米之间的均匀线,证明了该方法制备纳米含能材料微尺度电荷的可行性。
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