对 SOI 硅片上掺杂磷自旋的研究

Tang Yi Tian, K. A. Yaacob
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引用次数: 0

摘要

绝缘体上硅(SOI)晶片使集成电路(IC)行业能够创造出卓越的高性能解决方案。此外,由于需要调节材料的电气性能,掺杂技术在硅领域也至关重要。旋涂掺杂剂(SOD)方法是一种替代方法,它将含有掺杂剂的溶液旋涂到 SOI 晶圆上。本研究旨在确定热扩散温度和浸泡时间对使用 SOD 方法掺杂 SOI 硅片的片电阻的影响。此外,还利用绘图技术研究了掺杂的均匀性。按照美国无线电公司(RCA)的标准切割和清洗了三英寸掺硼 SOI 硅片。使用旋涂机在 SOI 晶圆上沉积 Filmtronics SOD P509 的 N 型掺杂剂,以每分钟 4,000 转(rpm)的速度沉积 40 秒。热扩散温度和浸泡时间设定为 700°C 至 1000°C,时间为 30 至 120 分钟。热扩散后,氢氟酸(HF)被稀释并用于蚀刻样品。使用四点探针、霍尔效应和原子力显微镜(AFM)对所有材料进行了评估。结果表明,当热扩散浸泡时间增加时,薄片电阻会减小,直到活化掺杂物达到饱和。当薄片电阻减小时,掺杂剂浓度上升。温度和浸泡时间会增加载流子密度和表面粗糙度,同时降低霍尔迁移率。从制图技术来看,不均匀度值较低,小于 10%,表明热扩散控制良好。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Investigation of Phosphorus Spin on Dopant on SOI Wafer
Silicon on insulator (SOI) wafer has allowed the integrated circuit (IC) industry to create superior, high-performance solutions. In addition, doping techniques are vital in the silicon sector due to the need to regulate the material electrical properties. The spin on dopant (SOD) approach is an alternative method that involves spinning a solution containing dopant onto SOI wafers. This research aims to determine the impact of thermal diffusion temperature and soaking time on sheet resistance of doped SOI wafer using SOD approach. Additionally, the homogeneity of doping was studied by utilizing mapping techniques. Three inches boron-doped SOI wafers were cut and cleaned according to Radio Corporation of America (RCA) standards. N-type dopants of Filmtronics SOD P509 were deposited on SOI wafer by using a spin coater, for 40 seconds at 4,000 revolutions per minute (rpm). The thermal diffusion temperature and soaking time were set between 700°C to 1000°C for 30 to 120 minutes. After thermal diffusion, hydrofluoric acids (HF) were diluted and used to etch samples. All materials were evaluated using a four-point probe, Hall Effect and Atomic Force Microscope (AFM). The results show that when the thermal diffusion soaking time increases, sheet resistance decreases until activated dopants are saturated. When sheet resistance decreases, dopant concentration rises. Temperature and soaking time increase carrier density and surface roughness, while decreasing Hall mobility. From mapping techniques, it shows low non-uniformity value which less than 10% suggests good thermal diffusion control.
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