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首页> 外文期刊>The journal of physical chemistry, A. Molecules, spectroscopy, kinetics, environment, & general theory >Molecular dynamics study of the response of nanostructured Al/Ni clad particles system under thermal loading
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Molecular dynamics study of the response of nanostructured Al/Ni clad particles system under thermal loading

机译:纳米结构的铝/镍包覆颗粒体系在热负荷下响应的分子动力学研究

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摘要

Molecular dynamics simulations are used to study the exothermic alloying reactions by imposing a thermal loading on a local area of nanostructured Al/Ni clad particles. The combustion parameters, such as particles size, density, and ignition temperature, are characterized. Reducing the size of Al/Ni clad particles makes the propagation velocity of reaction front increase but lowers both the adiabatic combustion temperature and pressure of the system. However, increasing either mass density or ignition temperature makes the propagation velocity of reaction front increase and raises the adiabatic temperature and pressure as well. We estimate the propagation velocity of the chemical reaction front to range from 35.70 to 44.06 m/s.
机译:分子动力学模拟用于通过在纳米结构的Al / Ni包覆颗粒的局部区域施加热负荷来研究放热合金化反应。表征燃烧参数,例如粒度,密度和着火温度。减小Al / Ni包覆颗粒的尺寸使反应前沿的传播速度增加,但同时降低了绝热燃烧温度和系统压力。然而,增加质量密度或增加点火温度会使反应前沿的传播速度增加,并且也使绝热温度和压力升高。我们估计化学反应前沿的传播速度为35.70至44.06 m / s。

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