使用气体簇离子束对USJ和局部应变si的灌注处理溶液

J. Hautala, J. Borland
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引用次数: 3

摘要

使用气团离子束(GCIB)技术的灌注处理在超浅结形成和局部或包层SiGe形成导致应变si的领域提供了几种新功能。这种室温工艺只需要固相外延(SPE)退火(<700℃)来进行无扩散活化和高质量的SiGe或Ge形成。初步试验表明,所有标准退火方法都与该工艺兼容。对于超浅结的形成,这项新技术有四个有利方面:1)没有观察到沟道,因此在Xj<10 nm时不需要预非晶化植入物(PAI);2)可以设计出掺杂剂的盒状轮廓;3)未观察到Ge在集群中的终止范围(EOR)损伤。这创造了一个自非晶化注入掺杂步骤,潜在地推进了各种无扩散激活方法的使用,因为没有结漏的问题;4)通过增加Ge在团簇中的掺入量,使其进入Si表面,可以提高硼的固溶度(Bss),从而降低源漏延伸结构的Rs和ext。当使用较高剂量的GeH4和/或SiH4输注时,会发生剂量控制沉积(DCD)。由于高度局部化的瞬态热尖峰(TTS), DCD注入过程似乎对表面杂质(如天然氧化物)不敏感。这产生了一个100%非晶层,没有沉积后的界面层,使Ge或SiGe在低至550℃的温度下完全单晶外延再生。由于这是一个室温过程,局部注入和沉积与光刻胶图案兼容
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Infusion processing solutions for USJ and localized strained-Si using gas cluster ion beams
Infusion processing using gas cluster ion beam (GCIB) technology provides several new capabilities in the areas of ultra shallow junction formation and localized or blanket SiGe formation resulting in strained-Si. This room temperature process requires only solid phase epitaxy (SPE) anneals (<700degC) for diffusionless activation and high quality SiGe or Ge formation. Initial tests indicate all standard annealing methods are compatible with the process. For the formation of ultra shallow junctions, there are four enabling aspects to this new technology: 1) no channeling is observed, so a pre-amorphizing implant (PAI) is not required for Xj<10 nm; 2) a box-like profile of the dopant can be engineered; 3) no end of range (EOR) damage is observed when Ge is included in the cluster. This creates a self-amorphizing infusion doping step that potentially advances the use of the various diffusionless activation methods since there is no issue with junction leakage; 4) by increasing the amount of Ge incorporated in the cluster and as a result into the Si surface, the boron solid solubility (Bss) can be increased, thereby lowering the Rs and Rext for the source drain extension structures. When higher infusion doses of GeH4 and/or SiH4 containing clusters are used, dose controlled deposition (DCD) occurs. The DCD infusion process appears to be insensitive to surface impurities such as native oxide due to the highly localized transient thermal spike (TTS). This produces a 100% amorphous layer with no post deposition interfacial layer enabling complete single crystal epitaxial regrowth of the Ge or SiGe at temperatures down to 550degC. Since this is a room temperature process, the localized infusion and deposition are compatible with photoresist patterning
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