B在Si中的低热收支活化

H. Bourdon, A. Halimaoui, A. Talbot, J. Venturini, O. Marcelot, D. Dutartre
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引用次数: 2

摘要

先进的器件在实现金属互连后可能需要植入和退火步骤。根据不同的应用,在晶圆键合后必须形成一层薄薄的掺杂p层。在这种情况下,问题是如何正确地退火硼植入层,而不破坏埋在地表以下约3米深处的设备和互连。在此,作者提出了不同的退火方法来研究这种薄掺杂p层。低能量和低剂量的植入在不达到非晶化阈值的情况下进行。通过片材电阻、热波、SIMS或TEM研究了400℃(RTP)长时间热退火和紫外激光退火。一方面,RTP在低至400℃的温度下具有明显的活化作用,并且B+比BF2 +具有更好的活化率。另一方面,与RTP相比,无论注入条件如何,激光退火都能获得更好的活化
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Low Thermal Budget Activation of B in Si
Advanced devices may today require implantation and annealing steps after the metallic interconnection realization. Depending on the application, a thin p-doped layer has to be formed after wafer bonding. The issue, in such a case, is to correctly anneal the Boron implanted layer without degrading the buried devices and interconnections which lies at a depth around 3mum below the surface. Here, the authors propose to study different way to anneal this thin p-doped layer. Low energy and low dose implantations are performed without reaching the amorphisation threshold. Long thermal annealing at 400degC (RTP) and UV laser annealing are investigated through sheet resistance, thermal wave, SIMS or TEM. On one hand, a significant activation is obtained with RTP at temperature as low as 400degC and that Boron is activated with a better activation rate with B+ than with BF2 +. On the other hand, a much better activation was achieved with laser annealing as compared to RTP regardless of the implantation conditions
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