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Effects of Miscut Substrates on Electrical Conductivity Across InP and GaAs Wafer-Bonded Structures

机译:错切的衬底对跨InP和GaAs晶片键合结构的电导率的影响

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摘要

Wafer bonding of GaAs and InP using an (NH_4)_2S treatment are investigated for the effect of the wafer offcut angle on the electrical conductivity of wafer-bonded Ⅲ-Ⅴ interfaces. HRTEM and STEM are used to confirm the misorientation of the bonded samples and to compare the interface morphology across the range of relative misorientations. A line ratio at the interface shows that the well-bonded crystalline regions to amorphous oxide inclusions is consistent across all bonded samples, indicating that the degree of misorientation does not affect the level of interface recrystallization at high temperatures. Fitting the zero-bias conductance over a range of temperatures reveals an increase in barrier heights for samples with greater than 4° misoriented bonded pairs. This demonstrates that the out-of-plane relative surface misorientation is a critical parameter to be monitored and thus any in-plane twist as well in order to achieve superior electrical conductivity in direct-bonded multijunction solar applications.
机译:通过(NH_4)_2S处理GaAs和InP的晶片键合,研究了晶片切角对晶片键合的Ⅲ-Ⅴ界面电导率的影响。 HRTEM和STEM用于确认键合样品的取向不良,并在相对取向不良范围内比较界面形态。界面处的线比表明,在所有结合的样品上,键合良好的晶体区域与无定形氧化物夹杂物均一致,这表明取向错误的程度不会影响高温下界面的重结晶水平。在一定温度范围内拟合零偏电导率可发现,对于取向错位键对大于4°的样品,势垒高度会增加。这表明,平面外相对表面取向失调是要监控的关键参数,因此任何平面内扭曲也应如此,以便在直接键合多结太阳能应用中获得优异的导电性。

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    Department of Material Science and Engineering, University of California, Los Angeles, California 90095, USA;

    Department of Material Science and Engineering, University of California, Los Angeles, California 90095, USA;

    Department of Material Science and Engineering, University of California, Los Angeles, California 90095, USA;

    Department of Material Science and Engineering, University of California, Los Angeles, California 90095, USA;

    Department of Material Science and Engineering, University of California, Los Angeles, California 90095, USA;

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