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Compact Single-Ended Transceivers Demonstrating Flexible Generation of 1/N-Rate Receiver Front-Ends for Short-Reach Links

Title
Compact Single-Ended Transceivers Demonstrating Flexible Generation of 1/N-Rate Receiver Front-Ends for Short-Reach Links
Author(s)
Lee, MyunggukCho, JaeikChoi, JunungChoi, Won JoonLee, JiyunJang, IksuMoon, ChangjaeKim, GainKim, Byungsub
Issued Date
2024-01
Citation
IEEE Transactions on Circuits and Systems I: Regular Papers, v.71, no.1, pp.373 - 382
Type
Article
Author Keywords
short-reach linkssingle-ended signalinglayout design automationanalog layout generatorreceiver front-end generatorWireline communications
ISSN
1549-8328
Abstract
This paper presents compact single-ended wireline transceivers with software-generated receiver front-ends. The developed software framework significantly shortens the physical design time of 1/N-rate wireline receiver front-ends. The physical layouts of various receiver front-ends were software-generated in four different CMOS technology nodes (28 nm, 40 nm, 65 nm, and 90 nm) with four different front-end architectures targeting various data rates. In the post-layout simulation, the receiver front-ends generated within a second by the software achieved nearly the same performances as the manually-designed receiver front-ends that require more than about 30 hours of design time. For demonstration, we generated 8 Gb/s full-rate, 10 Gb/s half-rate, 12 Gb/s, and 20 Gb/s quarter-rate receiver front-ends, and fabricated them with a manually-designed feed-forward equalization transmitter in 28 nm CMOS process. The transceivers were measured with the data rate up to 20 Gb/s while consuming 1.39 pJ/b at the channel loss of $-$ 9.2 dB. The transceiver with software-generated receiver achieved the highest data rate per area as well as the smallest area among the relevant prior arts while reducing the physical design time of the receiver front-end by more than 140,000 times. © 2023 IEEE
URI
http://hdl.handle.net/20.500.11750/47532
DOI
10.1109/TCSI.2023.3332391
Publisher
Institute of Electrical and Electronics Engineers
Related Researcher
  • 김가인 Kim, Gain
  • Research Interests Serial Link; OFDM; Discrete Multi-Tone; Wireline Transceiver; Communication Circuits
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Department of Electrical Engineering and Computer Science Circuits And Systems for Signal Processing (CASSP) Laboratory 1. Journal Articles

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