280G F12
This quarter, we will put a focus on resonant and non-traditional clocking. We will have two presenters each day -- about 30-40 min each. Please select papers on either distributed/monolithic LC, rotary clocking, or standing wave clocking or similar non-traditional clocking papers.
Date | Presenter | Topic/Paper |
---|---|---|
10/03/12 | Raj,Blake,Seokjoong | VLSI-SOC Dry Run ** Will need to start at 10:30am sharp |
10/10/12 | NONE (VLSI-SoC) | |
10/17/12 | NONE (Matt at NSF) | |
10/24/12 | Matt | How to review papers, Read the clock survey I wrote |
10/31/12 | Raj | Standing Wave Clocking |
11/07/12 | NONE (Matt at ICCAD) | |
11/14/12 | Riadul | |
11/21/12 | Ben | |
11/28/12 | Bin | |
12/05/12 | Hany |
Date | Presenter | Topic/Paper |
---|---|---|
/13 | Rafael | |
/13 | Elnaz | |
/13 | Jeff | |
/13 | Nihan | |
/13 | ||
/13 |
Resonant Papers:
Uniform-phase uniform-amplitude resonant-load global clock distributions
Resonant clocking using distributed parasitic capacitance,
Jitter Characteristic in Charge Recovery Resonant Clock Distribution,
Design of resonant global clock distributions
Resonant-Clock Latch-Based Design
Resonant Clock Design for a Power-Efficient High-Volume x86-64 Microprocessor
A. Ishii, et al., “A Resonant Clock 200MHz ARM926EJ-STM Microcontroller,” European Solid-State Circuits Conf., pp. 356-359, 2009.
WOOD, J., EDWARDS, T. C., AND LIPA, S. 2001. Rotary traveling-wave oscillator arrays: A new clock tech- nology . Journal of Solid-State Circuits (JSSC) 36, 11, 1654–1664.
TASKIN, B., DEMAIO, J., FARELL, O., HAZELTINE, M., AND KETNER, R. 2009. Custom topology rotary clock router with tree subnetworks. Transactions on Design Automation of Electronic Systems (TODAES) 14, 3.
These two would go together:
GUTHAUS, M. R. 2011. Distributed LC resonant clock tree synthesis. In International Symposium on Circuits
and Systems (ISCAS). 1215–1218. && CONDLEY, W., HU, X., AND GUTHAUS, M. 2011. A methodology for local resonant clock synthesis using lc-assisted local clock buffers. In International Conference on Computer-Aided Design (ICCAD). 503–506.
HU, X. AND GUTHAUS, M. 2012. Distributed LC resonant clock grid synthesis. IEEE Transactions on Circuits and Systems I (TCAS-I).
HU, X., CONDLEY, W., AND GUTHAUS, M. 2012. Library-aware resonant clock synthesis. In Design Automa- tion Conference (DAC).
ROSENFELD, J. AND FRIEDMAN, E. 2006. Design methodology for global resonant h-tree clock distribution networks. International Symposium on Circuits and Systems (ISCAS). **there is a journal version of this too**
CHAN, S., RESTLE, P., SHEPARD, K., JAMES, N., AND FRANCH, R. 2004. A 4.6GHz resonant global clock distribution network. International Solid-State Circuits Conference (ISSCC), 342 – 343.
CHAN, S. C., SHEPARD, K. L., AND RESTLE, P. J. 2003. Design of resonant global clock distributions. International Conference on Computer Design (ICCD).
YU, Z. AND LIU, X. 2009. Implementing multiphase resonant clocking on a finite-impulse response filter. IEEE Transactions on Very Large Scale Integration (VLSI) Systems 17, 11, 1593 – 1601.
The following are not resonant papers:
Variability:
Efficient coupled noise estimation for on-chip interconnects
Practical clock tree robustness signoff metrics
Process variation aware clock tree routing
SSTA:
Statistical timing analysis considering spatial correlations using a single PERT-like traversal
Statistical timing analysis using bounds and selective enumeration
First-order incremental block-based statistical timing analysis
Statistical timing analysis: From basic principles to state of the art
Statistical static timing analysis: A survey
Statistical clock skew analysis considering intra-die process variations
Statistical analysis of clock skew variation in H-tree structure
Implementation:
The clock distribution of the POWER4 microprocessor
A 5GHz duty-cycle correcting clock distribution network for the POWER6 microprocessor
Multi-GHz clocking scheme for Intel Pentium 4 microprocessor
Myth busters: Microprocessor clocking is from mars, asic’s clocking is from venus?
Clocking design and analysis for a 600-MHz Alpha microprocessor
A 300-MHz 64-b quad-issue CMOS RISC microprocessor
A 200-MHz 64-b dual-issue CMOS microprocessor
The design and analysis of the clock distribution network for a 1.2GHz alpha microprocessor
Other:
Clock distribution networks in synchronous digital integrated circuits
Post-processing of clock trees via wiresizing and buffering for robust design
Practical techniques to reduce skew and its variations in buffered clock networks