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List of Figures

  1. Static and
  2. Pass-transistor logic xor
  3. Domino typical gate
  4. CVSL typical gate
  5. CMOS typical gate
  6. TSPC Latches
  7. $ RC$ MOS equivalence
  8. $ RC$ chain
  9. $ RC$ single cell
  10. Elmore impulse response
  11. Inverter voltages waveform
  12. Mos chain
  13. Node voltages
  14. Voltages wave form in the n-MOS chain
  15. Voltages wave forms in the p-MOS chain
  16. $ V_{DS}$ and $ V_{GS}$
  17. MOSFET chain with static voltages
  18. Threshold variation
  19. Delay comparison
  20. Energy comparison
  21. Section search
  22. Minimization by Powell algorithm
  23. Minimization by Powell algorithm
  24. Minimization by SLOP algorithm
  25. Minimization by Simulated-annealing algorithm
  26. Minimization by Simulated-annealing algorithm
  27. Design flow
  28. Delay definition
  29. Critical paths
  30. Critical path tree
  31. Elmore delay
  32. Elmore delay
  33. HSPICE delay
  34. FAST delay
  35. HSPICE Energy
  36. CMOS Inverter
  37. TSPC Latches
  38. TSPC And gates
  39. TSPC Or gates
  40. Static parity gate
  41. Tool block diagram
  42. Comparison of $ 0.7\,\mathrm{\mu m}$ and $ 0.25\,\mathrm{\mu m.}$ gates @ minimum technology width
  43. Delay optimization of $ 0.7\,\mathrm{\mu m}$ gates.
  44. Delay optimization of $ 0.25\,\mathrm{\mu m}$ gates.
  45. Technology comparison of delay optimization.
  46. Several delay-power optimization policies of $ 0.7\,\mathrm{\mu m}$ gates.
  47. Energy-dissipation variation (zoom of figure 7.5(b))
  48. Several delay-power optimization policies of $ 0.25\,\mathrm{\mu m}$ gates.
  49. Energy-dissipation variation (zoom of figure 7.7(b))
  50. Delay-power optimization ($ 50\%$-$ 50\%$) comparison of $ 0.7\,\mathrm{\mu m}$ and $ 0.25\,\mathrm{\mu m}$ gates.
  51. Delay and power trajectory during 4 different multi-objective optimizations for the and-or gate
  52. Delay and power trajectory during 4 different multi-objective optimizations for the parity gate
  53. Delay and power trajectory during 4 different multi-objective optimizations for the static full-adder
  54. Delay and power trajectory during 4 different multi-objective optimizations for the dynamic full-adder


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