Power Grid Analysis in VLSI Designs - SERC

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Design Name CLK Power Total Power %CLK/Totals420_1 34.1 53.75 63.46s444 44.76 84.83 52.77s510 12.79 29.43 43.46s526n 44.76 85.94 52.08s526 44.76 85.89 52.11s641 40.5 117.38 34.5s713 40.5 123.07 32.91s820 10.66 72.29 14.74s832 10.66 72.5 14.7s838_1 68.21 99.96 68.24s953 61.81 102.37 60.38s1494 12.79 158.7 8.06s1488 12.79 158.24 8.08s1423 157.73 356.1 44.29s1238 38.37 150.51 25.49s1196 38.37 151.17 25.3856
Design Name CLK Power Total Power %CLK/Totals5378 381.55 751.75 50.75s9234_1 449.75 891.59 50.44s9234 485.99 632.35 76.85s13207_1 1359.9 1908.3 71.26s13207 1426 1718 83s15850 1272.5 1971.3 64.55s15850_1 1138.2 2630.3 43.27s38417 3289.1 4659.3 70.59s35932 3450.5 9654 35.74s38584_1 2920.7 8339.6 35.02s38584 2966.3 8057.2 36.82Table 3.4 Clock Power vs. Total PowerDesignNamePowerCompilerProposedApproachPrimePowerPowerMill%newpower/powercompiler%powercompiler/PowerMill%newapproach/PowerMill%primepower/PowerMills111 5.5 2.23 0 2.87 -59.42 91.62 -22.24 -10057
Page 1:
Power Grid Analysis in VLSI Designs
Page 6 and 7: 4.4.1 Timing Information Generation
Page 8 and 9: Figure 3 1GHz, Peak: 838.2 uW......
Page 11 and 12: AbstractPower has become an importa
Page 13 and 14: 1 Introduction1.1 MotivationVLSI in
Page 15 and 16: Further, Figure 1.3 shows that ther
Page 17 and 18: proposed in a few papers. In this t
Page 19 and 20: • Degradation in switching speeds
Page 21 and 22: Second, today’s design has huge P
Page 23 and 24: Figure 1.6 Total power break up int
Page 25 and 26: CMOSDieAcronym for Complimentary Me
Page 27 and 28: 2 Toggle Activity Estimation2.1 Ove
Page 29 and 30: For large T, D(x) becomes time inva
Page 31 and 32: done hierarchically or there is reu
Page 33 and 34: A Sample SDC file with above comman
Page 35 and 36: Some of the care needs to be taken
Page 37 and 38: Figure 2.5 Timing Arcs in extracted
Page 39 and 40: 3 Power Estimation3.1 OverviewAccur
Page 41 and 42: In this work, above power component
Page 43 and 44: on the required accuracy, different
Page 45 and 46: Based on power sensitivity and tool
Page 47 and 48: with SPICE. Power Mill is dynamic s
Page 49 and 50: DREPGENDREPFILE+ DATAGENFUNCTDLRAND
Page 51 and 52: 3.4.3 Interconnect setupAll the cir
Page 53 and 54: DesignNameIN OUT Flops Boolean(gate
Page 55: Design TFC + Power Compiler Runtime
Page 59 and 60: DesignNamePowerCompilerProposedAppr
Page 61 and 62: We can approximate the average powe
Page 63 and 64: 4 Power Supply Noise Analysis4.1 Ov
Page 65 and 66: to be absolutely in complete alignm
Page 67 and 68: In this work, we have maintained te
Page 69 and 70: Figure 4.6 Load vs. peak power for
Page 71 and 72: 3. The temporal correlation between
Page 73 and 74: Each such armRepresents resistance
Page 75 and 76: Characterized data was transformed
Page 77 and 78: Do timing analysis and based on inp
Page 79 and 80: of any node. Alternatively frequenc
Page 81 and 82: Cell Char @ fix frequency(10MHz in
Page 83 and 84: We executed the flow as explained i
Page 85 and 86: Circuit%Drop inaverage activity%Dro
Page 87: 4.6 SummaryWe proposed novel PG net
Page 90 and 91: network but causing huge dynamic IR
Page 92 and 93: Power SwitchFigure 5.2 Layout of 1M
Page 94 and 95: power network start getting charged
Page 96 and 97: Note that the 1 stcharacterization
Page 98 and 99: • Maximum current surge that will
Page 100 and 101: gates in the virtual network or mor
Page 102 and 103: Vdesired (mV)Actual#SwitchesSwitche
Page 104 and 105: 5.4 SummaryThere are various techni
Page 106 and 107:
5. Power Up analysis for MTCMOS bas
Page 108 and 109:
108
Page 110 and 111:
21. F.N. Najm, R.Burch, P. Yang, an
Page 112 and 113:
62. H. Mehta, R.M.Owens, M.J.Irwin,
Page 114 and 115:
114
Page 116 and 117:
Appendix B Sample SPEF Format*SPEF
Page 118 and 119:
Appendix C Power Waveforms Analysis
Page 120 and 121:
Appendix E Waveform transformation
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