Towards DTCO in High Temperature GaN-on-Si Technology: Arithmetic Logic Unit at 300 °C and CAD Framework up to 500 °C

Q. Xie, M. Yuan, J. Niroula, Bejoy Sikder, S. Luo, K. Fu, N. Rajput, Ayan Biswas Pranta, Pradyot Yadav, Yuji Zhao, N. Chowdhury, Tomás Palacios
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引用次数: 1

Abstract

This article reports advances in high temperature (HT) GaNon-Si technology by taking pioneering steps towards design technology co-optimization (DTCO). A computer-aided design (CAD) framework was established and experimentally validated up to $500 ^{\circ}\mathrm{C}$, the highest temperature achieved by such a framework for GaN technology. This framework was made possible thanks to (1) demonstration of multiple key functional building blocks (e.g. arithmetic logic unit (ALU)) by the proposed technology at HT; (2) experimentally calibrated transistor compact models up to $500 ^{\circ}\mathrm{C}($ highest temperature modeled for an Enhancement-mode GaN transistor). Excellent agreement was achieved between experimental and simulated circuits in the static characteristics (<0.1V difference in voltage swing) and trends of dynamic characteristics (timing) were accurately captured. By adopting complementary approaches in experiment and simulation, this work lays the foundation for the scaling-up of HT GaN-on-Si technology for mixed-signal applications of HT (> 300 °C) electronics.
高温GaN-on-Si技术中的DTCO: 300°C的算术逻辑单元和高达500°C的CAD框架
本文报道了高温(HT) GaNon-Si技术在设计技术协同优化(DTCO)方面的进展。建立了计算机辅助设计(CAD)框架,并通过实验验证了高达$500 ^{\circ}\mathrm{C}$的温度,这是该框架实现的GaN技术的最高温度。该框架之所以成为可能,要归功于(1)通过HT提出的技术演示了多个关键功能构建块(例如算术逻辑单元(ALU));(2)实验校准晶体管紧凑模型高达$500 ^{\circ}\ maththrm {C}($增强型GaN晶体管的最高温度模型)。实验电路和模拟电路在静态特性(300°C)电子器件之间取得了很好的一致性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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