Reliability aging and modeling of chip-package interaction on logic technologies featuring high-k metal gate planar and FinFET transistors

Jen-Hao Lee, Eliot S. H. Chen, Yung-Huei Lee, C. Lin, Chun-Yu Wu, M. Hsieh, Kevin Huang, Jhong-Sheng Wang, Y. Tsai, R. Lu, J. Shih
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引用次数: 2

Abstract

Despite chip-package interaction (CPI) has been extensively used in nano-electronics industry, impact of CPI stress on transistor performance and reliability remains unclear. In this work, performance change of transistor featuring HK/MG planar and FinFET by 4-point bending experiments were conducted to study stress evolution. Finite-element modeling (FEM) simulation revealed that P-FinFET mobility change is less sensitive to applied stress than planar. Device reliability as BTI/HCI and ring oscillator frequency drift of both planar and FinFET are all immune to strain. Moreover, FinFET mobility degradation caused by NBTI is independent of strain type, due to its fully-depleted regime. Management of carrier mobility shifts and transistor aging by optimized chip package technology are also presented in this study.
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基于高k金属栅极平面和FinFET晶体管逻辑技术的芯片封装相互作用的可靠性老化和建模
尽管芯片封装相互作用(CPI)已广泛应用于纳米电子工业,但CPI应力对晶体管性能和可靠性的影响尚不清楚。本文通过4点弯曲实验,对HK/MG平面晶体管和FinFET晶体管的应力演化进行了研究。有限元模拟结果表明,P-FinFET迁移率变化对外加应力的敏感性低于平面。器件的可靠性,如BTI/HCI和环形振荡器频率漂移,平面和FinFET都不受应变的影响。此外,由于NBTI的完全耗尽状态,NBTI引起的FinFET迁移率退化与应变类型无关。通过优化芯片封装技术来管理载流子迁移率偏移和晶体管老化也在本研究中提出。
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Reliability aging and modeling of chip-package interaction on logic technologies featuring high-k metal gate planar and FinFET transistors Using the charge pumping geometric component to extract NBTI induced mobility degradation A sampling approach for efficient BEOL TDDB assessment Solid-State-Drive qualification and reliability strategy Extraction of interface and border traps in beyond-Si devices by accounting for generation and recombination in the semiconductor
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