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Optimised drain structures for improved hot carrier reliability in submicron NMOS transistors

机译:优化的漏极结构可提高亚微米NMOS晶体管的热载流子可靠性

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Hot carrier effects present a major long term reliability hazard, particularly for submicron NMOS devices. In order to control hot carrier generation a variety of drain engineered structures, such as double diffused drains (DDDs) and lightly doped drains (LDDs) have been used. For the near submicron regime LDDs are typically used, whilst going to the deep submicron regime ( approximately 0.5 mu m) may require new structures such as buried LDDs (BLDDs). The authors consider some of the major factors in the design of hot carrier resistant devices for the near submicron and deep submicron regions. In addition to reducing hot carrier effects, they also demonstrate that LDD structures are essential for eliminating band to band tunneling, which may increase device leakage.
机译:热载流子效应会带来长期的主要可靠性危害,尤其是对于亚微米NMOS器件而言。为了控制热载流子的产生,已经使用了多种漏极工程结构,例如双扩散漏极(DDD)和轻掺杂漏极(LDD)。对于接近亚微米的区域,通常使用LDD,而进入深亚微米的区域(大约0.5微米)可能需要新的结构,例如埋入式LDD(BLDD)。作者考虑了针对近亚微米和深亚微米区域的抗热载流子器件设计的一些主要因素。除了减少热载流子效应之外,他们还证明了LDD结构对于消除带间隧道效应至关重要,因为后者可能会增加器件泄漏。

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