DocumentCode
1365456
Title
Integrating Asynchronous Digital Design Into the Computer Engineering Curriculum
Author
Smith, Scott C. ; Al-Assadi, Waleed K. ; Di, Jia
Author_Institution
Dept. of Electr. Eng., Univ. of Arkansas, Fayetteville, AR, USA
Volume
53
Issue
3
fYear
2010
Firstpage
349
Lastpage
357
Abstract
As demand increases for circuits with higher performance, higher complexity, and decreased feature size, asynchronous (clockless) paradigms will become more widely used in the semiconductor industry, as evidenced by the International Technology Roadmap for Semiconductors´ (ITRS) prediction of a likely shift from synchronous to asynchronous design styles in order to increase circuit robustness, decrease power, and alleviate many clock-related issues , . ITRS shows that asynchronous circuits accounted for 11% of chip area in 2008, compared to 7% in 2007, and estimates they will account for 23% of chip area by 2014 and 35% of chip area by 2019 . To meet this growing industry need, computer engineering students should be introduced to asynchronous circuit design to make them more marketable and more prepared for the challenges faced by the digital design community for years to come. This paper introduces asynchronous logic design in the context of the familiar synchronous logic, then provides a description of course modules developed for NULL Convention Logic (NCL), an asynchronous logic paradigm that is very similar to the synchronous paradigm. This approach ensures that students can easily relate asynchronous design and optimization techniques to the corresponding synchronous techniques. The materials presented in this paper have been used in a number of undergraduate and graduate courses and have been well received by the students.
Keywords
asynchronous circuits; computer science education; logic design; optimisation; International Technology Roadmap for Semiconductors; NULL convention logic; asynchronous circuit design; asynchronous digital design; asynchronous logic design; computer engineering curriculum; optimization techniques; synchronous logic; Asynchronous circuits; Clocks; Computer industry; Design automation; Design engineering; Electromagnetic interference; Electronics industry; High performance computing; Logic design; Robustness; Asynchronous logic; NULL Convention Logic (NCL); dual-rail design; input-completeness; observability; pipelining; quad-rail design;
fLanguage
English
Journal_Title
Education, IEEE Transactions on
Publisher
ieee
ISSN
0018-9359
Type
jour
DOI
10.1109/TE.2009.2021391
Filename
5233837
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