Showing posts with label Integrated circuits. Show all posts
Showing posts with label Integrated circuits. Show all posts

Dec 9, 2020

James D. Meindl, master of integrated circuits, dies at 87

Meindl was a visionary engineer who saw the potential of integrated circuits and was an early proponent of an interdisciplinary approach to engineering research [read more by Andrew Myers]

In 1984, electrical engineering professors James D. Meindl (right) and John Hennessy (center) brainstorm with research engineer John Shott about the MIPS project, which simplified computers with RISC architecture. (Image credit: Chuck Painter / Stanford News Service)

Nov 11, 2015

[ESSCIRC 2015] Low-power analog RF circuit design based on the inversion coefficient

[ref] Enz, Christian; Chalkiadaki, Maria-Anna; Mangla, Anurag, "Low-power analog/RF circuit design based on the inversion coefficient," in ESSCIRC 2015 - 41st , vol., no., pp.202-208, 14-18 Sept. 2015

Abstract: This paper discusses the concept of the inversion coefficient as an essential design parameter that spans the entire range of operating points from weak via moderate to strong inversion, including velocity saturation. Several figures-of-merit based on the inversion coefficient, especially suitable for the design of low-power analog and RF circuits, are presented. These figures-of-merit incorporate the various trade-offs encountered in analog and RF circuit design. The use of the inversion coefficient and the derived figures-of-merit for optimization and design is demonstrated through simple examples. Finally, the simplicity of the inversion coefficient based analytical models is emphasized by their favorable comparison against measurements of a commercial 40-nm bulk CMOS process as well as with simulations using the BSIM6 model.

Keywords: Analytical models, Integrated circuits, Noise, Radio frequency, Silicon, Transconductance, Transistors, BSIM6

URL / doi: 10.1109/ESSCIRC.2015.7313863