Interconnect Modeling and Design with RLC Crosstalk Constraints
Advisor: Prof. Lei He (lhe@ee.ucla.edu)
Students: Jinjun Xiong (jinjun@ee.ucla.edu) Jun Chen (junc@cae.wisc.edu) Hao Yu (hy255@ee.ucla.edu)
Design Automation Lab, Electrical Engineering Department,
University of California at Los Angeles
Abstracts:
Signal integrity becomes one of primary design constraints as the clock frequency increases and minimum feature size continues to shrink. State-of-the-art noise avoidance techniques use only a capacitive model. However, inductive coupling gains growing importance for GHz+ VLSI design. We present the following for RLC interconnect modeling and design:
(1) RLC noise modeling at both tile and full-chip levels;
(2) Tile-based interconnect synthesis and chip-level post-routing optimization, both under RLC crosstalk constraints;
(3) Chip-level global routing synthesis and optimization with
RLC crosstalk constraints.
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Related Packages:
TRIO2: Interconnect
modeling and extracting package
GSINO: Extended global router that synthesizes
a global routing solution without RLC crosstalk violation
WebHenry: Web-based interconnect
inductance extraction
VPEC: Provable passive and cost efficient
interconnect inductance modeling
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References:
(1) J. Xiong, J. Chen, and L. He, "Post Global Routing RLC Crosstalk Budgeting", IEEE/ACM ICCAD, Nov. 2002. (pdf)
(2) J. Chen, L. He, "Determination of Worst-Case Crosstalk Noice for Non-Switching Victims in GHz+ Interconnects," IEEE/ACM Asia South Pacific Design Automation Conference, January 2003. (pdf)
(3) H. Yu, and L. He, "Vector Potential Equivalent Circuit Based on PEEC Inversion," accepted by IEEE/ACM Design Automation Conference, 2003.
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