Back Blue Mars Save as PDF
Chapters (93)
  1. Title Page
  2. Dedication
  3. Contents
  4. Map
  5. The Martain Calendar
  6. Part 1: Peacock Mountain
  7. Prologue
  8. 1
  9. 2
  10. Part 2: Areophany
  11. Prologue
  12. 1
  13. 2
  14. 3
  15. 4
  16. Part 3: A New Constitution
  17. Prologue
  18. 1
  19. 2
  20. 3
  21. 4
  22. 5
  23. 6
  24. 7
  25. Part 4: Green Earth
  26. Prologue
  27. 1
  28. 2
  29. 3
  30. Part 5: Home at Last
  31. Prologue
  32. 1
  33. 2
  34. 3
  35. Part 6: Ann in the Outback
  36. Prologue
  37. 1
  38. 2
  39. 3
  40. Part 7: Making Things Work
  41. Prologue
  42. 1
  43. 2
  44. 3
  45. 4
  46. 5
  47. 6
  48. Part 8: The Green and the White
  49. Prologue
  50. 1
  51. 2
  52. 3
  53. 4
  54. Part 9: Natural History
  55. Prologue
  56. 1
  57. 2
  58. Part 10: Werteswandel
  59. Prologue
  60. 1
  61. 2
  62. 3
  63. Part 11: Viriditas
  64. Prologue
  65. 1
  66. 2
  67. 3
  68. 4
  69. 5
  70. 6
  71. Part 12: It Goes So Fast
  72. Prologue
  73. 1
  74. 2
  75. 3
  76. 4
  77. 5
  78. Part 13: Experimental Procedures
  79. Prologue
  80. 1
  81. 2
  82. 3
  83. 4
  84. 5
  85. 6
  86. 7
  87. Part 14: Phoenix Lake
  88. Prologue
  89. 1
  90. Acknowledgments
  91. About the Author
  92. Bantam Books by Kim Stanley Robinson
  93. Copyright

So given all this, the executive council was meeting for long hours every day to discuss legislation and other government programs. It was so time-consuming that Nadia almost forgot there was a conference she had initiated going on at the same time in Sabishii. On good nights, however, she spent a last hour or two on-screen with friends in Sabishii, and it looked like things were going fairly well there too. Many of Mars’s environmental scientists were on hand, and they were in agreement that massively increasing greenhouse-gas emissions would ease the effects of the mirror loss. Of course CO2 was the easiest greenhouse gas to emit, but even without using it— as they were still trying to reduce it in the atmosphere to breathable levels— the consensus was that the more complex and powerful gases could be created and released in the quantities needed. And at first they did not think this would be a problem, politically; the constitution legislated an atmosphere no thicker than 350 millibars at the six-kilometer contour, but said nothing about what gases could be used to create this pressure. If the halocarbons and other greenhouse gases in the Russell cocktail were pumped out until they formed one hundred parts per million of the atmosphere, rather than the twenty-seven parts per million that were currently up there, then heat retention would rise by several degrees K, they calculated, and an ice age would be forestalled, or at least greatly shortened. So the plan called for production and release of tons of carbon tetrafluoride, hexafluoroethane, sulfur hexafluoride, methane, nitrous oxide, and trace elements of other chemicals which helped to decrease the rate at which UV radiation destroyed these halocarbons.

Completing the melting of the North Sea ice was the other obvious abatement strategy most often mentioned at the conference. Until it was all liquid, the albedo of the ice was bouncing a lot of energy back into space, and a truly lively water cycle was somewhat capped off. If they could get a liquid ocean, or, given how far north it was, a summer-liquid ocean, then any ice age would be done for, and terraformation essentially complete: they would have robust currents, waves, evaporation, clouds, precipitation, melting, streams, rivers, deltas— the full hydrological cycle. This was a primary goal, and so there was a variety of methods being proposed to speed the melting of the ice: feeding nuclear-power-plant exhaust heat into the ocean, scattering black algae on the ice, deploying microwave and ultrasound transmitters as heaters, even sailing big icebreakers through the shallow pack to aid the breakup.