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Ultra-micro-indentation of silicon and compound semiconductors with spherical indenters

机译:具有球形压头的硅和化合物半导体的超微压痕

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摘要

Details of microindentation of silicon, such as the semiconductor-to-metal transformation, which take place on loading ,have been examined using spherical indenters. Various forms of silicon are studied, including heavily boron-doped wafers and silicon damaged and amorphized by ion implantation as well as material containing dislocations. Results indicate that only silicon, which contains high concentrations of point defects or is amorphous, exhibits mechanical properties that differ significantly from undoped, defect-free crystal. Amorphous silicon exhibits plastic flow under low indentation pressures and does not appear to undergo phase transformation on loading and unloading. Indentation of compound semiconductors is also studied and the load/unload behavior at room temperature is quite different from that of silicon. Both gallium arsenide and indium phosphide, for example, undergo slip-induced plasticity above a critical load.
机译:已经使用球形压头检查了硅的微压痕细节,例如在加载时发生的半导体到金属的转变。研究了各种形式的硅,包括重掺杂硼的晶片,被离子注入损坏和非晶化的硅以及包含位错的材料。结果表明,只有含有高浓度点缺陷或为非晶态的硅才会表现出与未掺杂的无缺陷晶体明显不同的机械性能。非晶硅在低压入压力下表现出塑性流动,并且在装载和卸载时似乎没有经历相变。还研究了化合物半导体的压痕,并且室温下的负载/卸载行为与硅完全不同。例如,砷化镓和磷化铟在临界载荷以上都会经历滑移诱导的塑性。

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