Plasma Doping optimizing knock-on effect

Kazuhiko Tonari, Kouji Suzuki, K. Suu
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Abstract

Many studies have been done to apply potential of Plasma Doping to manufacturing semiconductor devices. But some development problems about mass production are still left unsolved. One of the problems is that it is more difficult for Plasma Doping to control dosage. To clear this problem we investigated a dominant mechanism of mixing dopant atoms (boron) in silicon atoms, using inductively coupled plasma, radio frequency bias and B2H6 gas. And it is shown that main implantation mechanism of this plasma doping is the collision between BxHy* and biased Ar+: “knock-on phenomenon”. We presented new doping procedure “2STEP Process”, where BxHy* deposition coating and knocking-on the film by Ar+ accelerated with RF bias were completely separated. By using “2STEP Process”, it is shown that dosage can be controlled by deposition thickness and depth profile can be controlled by bias voltage.
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等离子体兴奋剂优化连锁效应
等离子体掺杂在半导体器件制造中的应用潜力已经得到了广泛的研究。但是大规模生产的一些发展问题仍然没有得到解决。其中一个问题是等离子体兴奋剂的剂量控制难度较大。为了解决这个问题,我们利用电感耦合等离子体、射频偏压和B2H6气体研究了掺杂原子(硼)在硅原子中混合的主要机制。结果表明,该等离子体掺杂的主要注入机制是BxHy*与偏置Ar+的碰撞:“连锁现象”。我们提出了新的掺杂工艺“2STEP工艺”,其中BxHy*沉积涂层和Ar+在RF偏置加速下敲膜完全分离。通过“2STEP工艺”,表明用量可由沉积厚度控制,深度轮廓可由偏置电压控制。
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Increase of sp3 content in a-C films with gas cluster ion beam bombardments; XPS and NEXAFS study NMOS source-drain extension ion implantation into heated substrates Activation of low-dose Si+ implant into In0.53Ga0.47As with Al+ and P+ co-implants The features of cold boron implantation in silicon Plasma Doping optimizing knock-on effect
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