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Physical Fundamentals of Hardening of Materials by Space Charge Layers

机译:空间电荷层对材料硬化的物理基础

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The possibility to harden composite materials through producing space charge layers on their surface is considered for the first time. Fullerenes, nanotubes, and other nanostructures with a large electron affinity may be used as the trapping sites for free electrons generating the negative charged layer of the space charge on the hardenable material surface. These nanostructures (modifiers) with a large electron affinity attach the free electrons and thus charge the modifiable material with a positive charge. As the analytical calculations show, the dozens of times modification of the strength characteristics of the composite materials by the space charge layers is possible. The analytical calculations of the resonance bulk percentage of the modifier with the characteristic dimensions of the nanocrystals and the modifier itself being known, have been carried out. According to the analytical calculations, the hardening by molecules of C_(60) up tol04 GPa of crystals of copper and other materials with free electrons can be expected.
机译:首次考虑了通过在复合材料表面产生空间电荷层来硬化复合材料的可能性。具有大的电子亲和力的富勒烯,纳米管和其他纳米结构可以用作自由电子的俘获位点,这些自由电子在可硬化材料表面上生成空间电荷的负电荷层。这些具有较大电子亲和力的纳米结构(修饰剂)会附着自由电子,从而使可修饰材料带正电荷。如分析计算所示,通过空间电荷层对复合材料的强度特性进行数十次修改是可能的。已经进行了具有纳米晶体的特征尺寸和改性剂本身的改性剂的共振体积百分比的解析计算。根据分析计算,可以预期C_(60)分子通过铜和其他具有自由电子的材料的晶体硬化至104 GPa。

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