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In this letter, we demonstrate a complementary metal-oxide-semiconductor (CMOS) inverter comprising a germanium p-type field-effect transistor (Ge p-FET) and an amorphous indium-gallium-zinc-oxide n-type field-effect transistor (α-IGZO n-FET) on a SiO2/Si (OI) substrate. The key digital figure-of-merits of the CMOS inverter are evaluated, including voltage gain, noise margin (NM), and power consumption. The highest process temperature of this work is 400 °C to enable back-end-of-line (BEOL) compatible logic functions in three-dimensional (3D) monolithic integration. Performance advantages in terms of smaller subthreshold swing (SS) and higher mobility are also achieved as compared with previously reported p- and n-FETs in CMOS inverters comprising a p-FET and an n-FET with process temperature below 400 °C. The Ge p-FET exhibits a high-field mobility, threshold voltage (VTH), andSSof 91 cm2/V· s, −0.26 V, 225 mV/decade, respectively, and those for theα-IGZO n-FET are 58 cm2/V· s, 0.34 V, 163 mV/decade, respectively. The CMOS inverter shows a voltage gain of 5.5 V/V, NMHof 0.33 V, NMLof 0.22 V, and power consumption of less than 0.03 mW atVDDof 1 V.
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Kang et al. (2021) studied this question.
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