A Benchmark Study Of Complementary-Field Effect Transistor (CFET) Process Integration Options: Comparing Bulk vs. SOI vs. DSOI Starting Substrates


Sub-5 nm logic nodes will require an extremely high level of innovation to overcome the inherent real-estate limitations at this increased device density. One approach to increasing device density is to look at the vertical device dimension (z-direction), and stack devices on top of each other instead of conventionally side-by-side. The fabrication of a Complementary-Field Effect Transistor (CF... » read more

A Benchmark Study Of Complementary-Field Effect Transistor (CFET) Process Integration Options Done By Virtual Fabrication


Four process flow options for Complementary-Field Effect Transistors (C-FET), using different designs and starting substrates (Si bulk, Silicon-On-Insulator, or Double-SOI), were compared to assess the probability of process variation failures. The study was performed using virtual fabrication techniques without requiring fabrication of any actual test wafers. In the study, Nanosheet-on-Nanoshe... » read more

A Benchmark Study Of Complementary-Field Effect Transistor (CFET) Process Integration Options


Sub-5 nm logic nodes will require an extremely high level of innovation to overcome the inherent real-estate limitations at this increased device density. One approach to increasing device density is to look at the vertical device dimension (z-direction), and stack devices on top of each other instead of conventionally side-by-side. [1] The fabrication of a Complementary-Field Effect Transistor... » read more