优化ULK薄膜性能,使BEOL与TDDB可靠性集成

E. T. Ryan, D. Priyadarshini, Stephen M. Gates, Hosadurga Shobha, James Hsueh-Chung Chen, Kumar Virwani, Anita Madan, E. Adams, Elbert E. Huang, E. Liniger, D. Collins, M. Stolfi, Kang Sub Yim, Alexandros T. Demos, Alfred Grill
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引用次数: 3

摘要

提高多电平后端互连电路的密度是提高集成电路性能和面积缩小的必要条件。超低k (ULK)电介质用于最小化电容,以降低功耗和更好的电容-电阻(RC)性能。然而,这些材料带来了集成和可靠性方面的挑战,这限制了我们降低介电常数的能力最小化孔隙度,最大化碳含量,改变碳在多孔SiCOH薄膜中的结合方式,可以减少ULK的等离子体损伤(PID),提高TDDB的可靠性,但这些改进必须通过保持薄膜的其他性能(如弹性模量)来平衡。本文介绍了一种技术,可以实现高碳含量和低孔隙度的结合,从而在满足集成和可靠性要求的同时实现k结垢。
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Optimizing ULK film properties to enable BEOL integration with TDDB reliability
Increasing circuit density in multilevel back-end-of line (BEOL) interconnects is necessary to improve integrated circuit performance and area scaling. Ultra low-k (ULK) dielectrics are used to minimize capacitance for lower power consumption and better capacitance-resistance (RC) performance. However, these materials pose integration and reliability challenges, which have limited our ability to scale the dielectric constant lower.1 Minimizing porosity, maximizing carbon content, and altering how carbon is bonded in porous SiCOH films reduces plasma-induced damage (PID) to the ULK and improves TDDB reliability, but these improvement must be balanced by maintaining other film properties such as elastic modulus. This paper describes one technique to achieve this combination of high carbon content and low porosity to allow k scaling while meeting integration and reliability requirements.
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