DocumentCode
2587120
Title
Top-down design of a low-power multi-channel 2.5-Gbit/s/channel gated oscillator clock-recovery circuit
Author
Muller, Paul ; Tajalli, Armin ; Atarodi, Mojtaba ; Leblebici, Yusuf
Author_Institution
Microelectron. Syst. Lab., Ecole Polytech. Fed. de Lausanne, Switzerland
fYear
2005
fDate
7-11 March 2005
Firstpage
258
Abstract
We present a complete top-down design of a low-power multi-channel clock recovery circuit based on gated current-controlled oscillators. The flow includes several tools and methods used to specify block constraints, to design and verify the topology down to the transistor level, as well as to achieve a power consumption as low as 5 mW/Gbit/s. Statistical simulation is used to estimate the achievable bit error rate in the presence of phase and frequency errors and to prove the feasibility of the concept. VHDL modeling provides extensive verification of the topology. Thermal noise modeling based on well-known concepts delivers design parameters for the device sizing and biasing. We present two practical examples of possible design improvements analyzed and implemented with this methodology.
Keywords
error statistics; hardware description languages; low-power electronics; network topology; oscillators; power consumption; synchronisation; thermal noise; VHDL modeling; biasing; bit error rate; block constraint specification; device sizing; gated current-controlled oscillators; low-power clock-recovery circuit; multi-channel clock recovery circuit; power consumption; statistical simulation; thermal noise modeling; top-down design; topology verification; Bandwidth; Circuit simulation; Circuit topology; Clocks; Crosstalk; Energy consumption; Frequency estimation; Impedance; Oscillators; Phase estimation;
fLanguage
English
Publisher
ieee
Conference_Titel
Design, Automation and Test in Europe, 2005. Proceedings
ISSN
1530-1591
Print_ISBN
0-7695-2288-2
Type
conf
DOI
10.1109/DATE.2005.315
Filename
1395567
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