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Full-Chip Nanometer Routing Techniques 2007 ed. [Kõva köide]

  • Formaat: Hardback, 102 pages, kõrgus x laius: 235x155 mm, kaal: 780 g, XVIII, 102 p., 1 Hardback
  • Sari: Analog Circuits and Signal Processing
  • Ilmumisaeg: 21-Aug-2007
  • Kirjastus: Springer-Verlag New York Inc.
  • ISBN-10: 1402061943
  • ISBN-13: 9781402061943
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  • Formaat: Hardback, 102 pages, kõrgus x laius: 235x155 mm, kaal: 780 g, XVIII, 102 p., 1 Hardback
  • Sari: Analog Circuits and Signal Processing
  • Ilmumisaeg: 21-Aug-2007
  • Kirjastus: Springer-Verlag New York Inc.
  • ISBN-10: 1402061943
  • ISBN-13: 9781402061943
Teised raamatud teemal:
At 90 nm, wires account for nearly 75% of the total delay in a circuit. Even more insidious, however, is that among nearly 40% of these nets, more than 50% of their total net capacitance are attributed to the cross-coupling capacitance between neighboring signals. At this point a new design and optimization paradigm based on real wires is required. Nanometer routers must prevent and correct these effects on-the-fly in order to reach timing closure. From a manufacturability standpoint, nanometer routers must explicitly deal with the ever increasing design complexity, and be capable of adapting to the constraint requirements of timing, signal integrity, process antenna effect, and new interconnect architecture such as X-architecture.



In the nanometer era, we must look into new-generation routing technologies that combine high performance and capacity with the integration of congestion, timing, SI prevention, and DFM algorithms as the best means of getting to design closure quickly. In this book, we present a novel multilevel full-chip router, namely mSIGMA for SIGnal-integrity and MAnufacturability optimization. And these routing technologies will ensure faster time-to-market and time-to-profitability.
List of Figures
ix
List of Tables
xiii
Preface xv
Acknowledgments xvii
Introduction
1(20)
Down to the Wire
1(2)
Routing Problems
3(14)
Flat Routing Framework
4(1)
Sequential Approach
4(2)
Concurrent Approach
6(2)
Hierarchical Routing Framework
8(1)
Top-Down Hierarchical Approach
8(2)
Bottom-Up Hierarchical Approach
10(1)
Hybrid Hierarchical Approach
10(1)
Multilevel Routing Framework
11(1)
Previous Multilevel Routing Framework
12(3)
Our Multilevel Routing Framework
15(2)
Organization of the Book
17(4)
Multilevel Routing Framework
17(1)
Multilevel Full-Chip Routing Considering Crosstalk and Performance
18(1)
Multilevel Full-Chip Routing Considering Antenna Effect Avoidance
18(1)
Multilevel Full-Chip Routing for the X-Based Architecture
19(2)
Routing Challenges for Nanometer Technology
21(12)
Routing Requirement for the Nanometer Era
21(12)
Signal-Integrity Problems
22(1)
Crosstalk Problems
23(1)
Process Antenna Effects
24(1)
Manufacturability Problems
25(1)
Optical Proximity Correction
26(2)
Phase Shift Masking
28(1)
Double Via Insertion
29(2)
X-Architecture
31(2)
Multilevel Full-Chip Routing Considering Crosstalk and Performance
33(20)
Introduction
33(3)
Elmore Delay Model
36(1)
Multilevel Routing Framework
37(10)
Performance-Driven Routing Tree Construction
38(5)
Crosstalk-Driven Layer/Track Assignment
43(4)
Experimental Results
47(4)
Summary
51(2)
Multilevel Full-Chip Routing Considering Antenna Effect Avoidance
53(18)
Introduction
53(2)
Antenna Effect Damage
55(4)
Multilevel Routing Framework
59(8)
Bottom-Up Optimal Jumper Prediction
60(4)
Multilevel Routing with Antenna Avoidance
64(3)
Experimental Results
67(1)
Summary
68(3)
Multilevel Full-Chip Routing for the X-Based Architecture
71(18)
Introduction
71(3)
Multilevel X-Routing Framework
74(2)
X-Architecture Steiner Tree Construction
76(4)
Three-Terminal Net Routing Based on X-Architecture
76(3)
X-Steiner Tree Algorithm by Delaunay Triangulation
79(1)
Routability-Driven Pattern Routing
80(2)
Trapezoid-Shaped Track Assignment
82(4)
Experimental Results
86(2)
Summary
88(1)
Concluding Remarks and Future Work
89(6)
Multilevel Routing Framework
89(1)
Routing Challenges for Nanometer Technology
90(1)
Multilevel Full-Chip Routing Considering Crosstalk and Performance
90(1)
Multilevel Full-Chip Routing Considering Antenna Effect Avoidance
91(1)
Multilevel Full-Chip Routing for the X-Based Architecture
91(1)
Future Research Directions
92(3)
References 95