首页> 外文期刊>IEEE Transactions on Electron Devices >RF, DC, and Reliability Performance of MIM Capacitors Embedded in Organic Substrates by Wafer-Transfer Technology (WTT) for System-on-Package Applications
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RF, DC, and Reliability Performance of MIM Capacitors Embedded in Organic Substrates by Wafer-Transfer Technology (WTT) for System-on-Package Applications

机译:通过晶圆转移技术(WTT)嵌入有机衬底的MIM电容器的RF,DC和可靠性性能,适用于系统级封装应用

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In this paper, radio frequency (RF), dc, and reliability performance have been studied on metal-insulator-metal (MIM) capacitors embedded in organic substrates. The MIM structure including ~74-nm SiN dielectric was prefabricated on Si and then transferred onto organic substrates (FR-4) by wafer-transfer technology (WTT). The RF characteristics up to 30 GHz were investigated by equivalent lumped circuit modeling, showing that the parameters associated with the MIM layers including the main capacitance, parasitic inductance, and resistance were only slightly changed by the WTT process. The substrate-related parasitics were reduced as a result of the replacement of lossy Si with insulating FR-4 substrates. Excellent capacitance linearity, low voltage coefficient (~2.2 ppm/V2), and temperature coefficient (~38 ppm/degC) were obtained for capacitors on FR-4 substrates. Current-voltage and time-dependent dielectric breakdown tests verified that, after the harsh processes of WTT, the MIM structures maintained the intrinsic reliability as those originally fabricated on Si. This paper, along with earlier reports, proved that WTT presented a new dimension to realize embedded capacitors for high-density circuit board and system-on-package applications
机译:本文研究了嵌入有机基板中的金属-绝缘体-金属(MIM)电容器的射频(RF),直流电和可靠性能。包含〜74 nm SiN电介质的MIM结构预先在Si上预制,然后通过晶圆转移技术(WTT)转移到有机衬底(FR-4)上。通过等效集总电路模型对高达30 GHz的RF特性进行了研究,结果表明与MIM层相关的参数(包括主电容,寄生电感和电阻)在WTT过程中仅稍有变化。由于用绝缘的FR-4衬底代替了有损耗的Si,减少了与衬底有关的寄生现象。对于FR-4基板上的电容器,获得了出色的电容线性,低电压系数(〜2.2 ppm / V2)和温度系数(〜38 ppm / degC)。电流电压和随时间变化的介电击穿测试证明,经过WTT的苛刻处理后,MIM结构保持了最初在Si上制造的固有可靠性。本文以及较早的报告证明,WTT为实现高密度电路板和系统级封装应用的嵌入式电容器提出了新的思路

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