A Composite TE-TFE-FE Model for Schottky Barrier Reverse Current over the Entire Electric-Field Range

Wenshen Li, D. Jena, H. Xing
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Abstract

Schottky barriers in wide bandgap (WBG) semiconductors can sustain very large electric fields under reverse bias due to the access of very large barrier heights (>1 eV) and the very high intrinsic breakdown field (>3 MV/cm) of WBG semiconductors [1]. Under high surface electric-fields (E), the ideal reverse-bias leakage current (JR) is dominated by barrier tunneling rather than thermionic emission (TE), thus thermionic-field-emission (TFE) or field-emission (FE) becomes the dominant mechanism [1] [2]. Therefore, to accurately describe the reverse current over the entire surface electric-field range, TFE and FE models are required in addition to the TE model.
全电场范围内肖特基势垒逆流的TE-TFE-FE复合模型
宽带隙(WBG)半导体中的肖特基势垒可以在反向偏置下维持非常大的电场,这是由于宽带隙半导体具有非常大的势垒高度(>1 eV)和非常高的本禀击穿场(>3 MV/cm)[1]。在高表面电场(E)下,理想反偏漏电流(JR)主要由势垒隧穿而非热离子发射(TE)主导,因此热离子场发射(TFE)或场发射(FE)成为主导机制[1][2]。因此,要准确描述整个表面电场范围内的反向电流,除了TE模型外,还需要TFE和FE模型。
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