Efficient and Cost-Effective HPC on the Cloud
Aditya Bhosale, Laxmikant Kale, et al.
FlexScience 2025
The drive to deliver increasingly powerful and feature-rich integrated circuits has made technology node scaling—the process of reducing transistor dimensions and increasing their density in microchips—a key challenge in the microelectronics industry. Historically, advances in optical lithography patterning have played a central role in allowing this trend to continue. Directed self-assembly of block copolymers is a promising alternative patterning technique that offers sub-lithographic resolution and reduced process complexity. However, the feasibility of applying this approach to the fabrication of critical device layers in future technology nodes has never been verified. Here we compare the use of directed self-assembly and conventional patterning methods in the fabrication of 7 nanometre node FinFETs, using an industrially relevant and high-volume manufacturing-compliant test vehicle. Electrical validation shows comparable device performance, suggesting that directed self-assembly could offer a simplified patterning technique for future semiconductor technology.
Aditya Bhosale, Laxmikant Kale, et al.
FlexScience 2025
Stefano Braghin, Liubov Nedoshivina
EuroSys 2025
Pol G. Recasens, Yue Zhu, et al.
EuroSys 2024
Takuya Mishina, Tatsuhiro Chiba
KubeDay Japan 2024