键合硅片SOI制备方法的比较

J. Delgado, G. Rouse, C. McLachlan, S. Gaul
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引用次数: 2

摘要

只提供摘要形式。双极器件中集电极串联电阻的降低和MOS器件中后门效应的防止通常分别通过高掺杂埋设层和逆行植入阱来实现。对于需要厚SOI层(约10 μ m)的器件应用,可以通过在晶圆边界技术中使用背面处理来实现。虽然使用这种方法已经成功地制造了双极器件,但由此产生的背面不均匀性会降低边界产率。这表现为用于横向隔离的沟槽蚀刻后的微剥离。背面键合的其他缺点是难以前后对齐,层厚度变化相对较大(4-in的厚度+1.5 μ m)。切片)由于研磨/抛光步骤用于刨平。一种在薄键合衬底上使用外延层制造厚键合SOI材料的改进方法消除了背面键合方法的许多缺点。这种外延键合方法产生了一种适用于互补双极或BICMOS技术的全正面材料工艺。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Comparison of fabrication methods for bonded wafer SOI
Summary form only given. The reduction of collector series resistance in bipolar devices and the prevention of back-gate effects in MOS devices is commonly realized through the use of highly doped buried layers and retrograde implanted wells, respectively. For device applications requiring a thick SOI layer (approximately 10 mu m), this can be achieved by using back-side processing in a wafer-bounding technique. While bipolar devices have been successfully fabricated using this method, the resulting back-side nonuniformities can reduce bounding yield. This shows up as microdebonding after the trench etch used for lateral isolation. Other drawbacks to back-side bonding are difficult front-to-back alignment and a relatively large variation in layer thickness (+1.5 mu m across a 4-in. slice) due to the grind/polish step used for planarization. An improved method of manufacturing thick bonded SOI material using an epitaxial layer on a thin bonded substrate eliminates many of the drawbacks to the back-side bonding approach. This epi-on-bonded method results in an all-frontside material process suitable for use in a complementary bipolar or BICMOS technology.<>
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