连续流共振声混合技术:制备纳米含能材料的一种新颖高效的策略

Song Zhang , Lewu Zhan , Yifan Zhang, Jing Hou, Bindong Li
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引用次数: 0

摘要

近年来,微流体技术已广泛应用于纳米含能材料的制备。流体的混合效率是影响产品粒度和粒度分布的重要因素之一。在本报告中,通过结合连续流微流体和共振声学混合(RAM)技术,开发了一种提高流体混合性能的新策略。流体可视化和三维计算流体动力学(CFD)模拟结果表明,新型连续流共振声学混合(CFRAM)技术比传统的微流体方法具有更好的混合效率。为了证明这种CFRAM技术的实用性,它被用于连续制备1,3,5-三氨基-2,4,6-三硝基苯(TATB)纳米颗粒。与先前报道的结果相比,CFRAM技术制备的纳米TATB具有较小的平均粒径(D50=50.8nm)和较窄的粒径分布(D10=33.0nm;D90=69.6nm)。XRD光谱显示纳米TATB的晶体结构没有改变。DSC测试结果表明,纳米TATB的表观活化能为177.8 kJ/mol,比原料TATB低6.5 kJ/mol。我们期待这一策略为有效制备具有窄PSD的纳米含能材料开辟一条新的途径。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Continuous flow resonance acoustic mixing technology: a novel and efficient strategy for preparation of nano energetic materials

Continuous flow resonance acoustic mixing technology: a novel and efficient strategy for preparation of nano energetic materials

Recently, microfluidic technology has been widely applied to the preparation of nano-energetic materials. The mixing efficiency of fluid is one of the significant factors which could affect the particle size and particle size distribution (PSD) of products. In this report, a novel strategy to enhance the mixing performance of fluid is developed by combining continuous flow microfluidic and resonant acoustic mixing (RAM) technologies. The results of the fluid visualization and 3D-Computational fluid dynamics (CFD) simulation showed that the new continuous flow resonance acoustic mixing (CFRAM) technology has better mixing efficiency than the traditional microfluidic approach. To demonstrate the utility of this CFRAM technology, it was implemented in the continuous preparation of 1,3,5-triamino-2,4,6-trinitrobenzene (TATB) nanoparticles. Compared with previous reported results, nano TATB prepared by CFRAM technology has a smaller average particle size (D50 = 50.8 nm) and a narrower particle size distribution (D10 = 33.0 nm; D90 = 69.6 nm). The XRD spectrum shows that the crystal structure of nano TATB has not changed. DSC test results show that the apparent activation energy of nano TATB is 177.8 kJ/mol, which is 6.5 kJ/mol lower than the raw TATB, and has good thermal stability. We expect that this strategy may open a new avenue for the efficient preparation of nano energetic materials with narrow PSD.

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