基于直线微型四点探头的高精度微尺度霍尔效应表征方法

D. H. Petersen, O. Hansen, R. Lin, P. Nielsen, T. Clarysse, J. Goossens, E. Rosseel, W. Vandervorst
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引用次数: 15

摘要

准确表征超浅结(USJ)对于理解结形成的原理以及开发合适的植入和退火技术至关重要。我们研究了一种新的微尺度霍尔效应测量方法的能力,该方法使用共线微型四点探头(M4PP)测量霍尔效应。我们推导了对电极位置误差的灵敏度,并描述了一种位置误差抑制方法,以实现仅用两个测量点快速可靠的霍尔效应测量。通过蒙特卡罗模拟和实验测量表明,微尺度霍尔效应测量的重复性优于1%。通过单激光条纹退火表征USJ,我们证明了在微观尺度上空间分辨霍尔效应的能力。由空间非均匀退火温度引起的微片电阻变化与掺杂剂的活化程度直接相关。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
High precision micro-scale Hall effect characterization method using in-line micro four-point probes
Accurate characterization of ultra shallow junctions (USJ) is important in order to understand the principles of junction formation and to develop the appropriate implant and annealing technologies. We investigate the capabilities of a new micro-scale Hall effect measurement method where Hall effect is measured with collinear micro four-point probes (M4PP). We derive the sensitivity to electrode position errors and describe a position error suppression method to enable rapid reliable Hall effect measurements with just two measurement points. We show with both Monte Carlo simulations and experimental measurements, that the repeatability of a micro-scale Hall effect measurement is better than 1 %. We demonstrate the ability to spatially resolve Hall effect on micro-scale by characterization of an USJ with a single laser stripe anneal. The micro sheet resistance variations resulting from a spatially inhomogeneous anneal temperature are found to be directly correlated to the degree of dopant activation.
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