Extreme Climate Control Membrane Structures

  • Richard Brook Cathcart
  • Milan M. Ćirković
Part of the Water Science and Technology Library book series (WSTL, volume 54)

Abstract

We consider some of the implications of the radical macro-engineering efforts in medium-to-long-term future of humanity. In addition to a particular macro-project of Earth, the ‘‘Air Bag’’ Shell based, in part, on the inspiration drawn from Yves Klein’s austere visionary ‘‘Architecture of the Air’’, we discuss some ramifications of such a wraparound effect endeavor for humanity’s prospects and its cultural outlook, including studio and outdoor art forms. Essentially, we propose an inflated building macro-project to protect Earth from some threats (small asteroids, solar flares, molecular clouds in space) posed by its unaltered trajectory through interplanetary and interstellar space. This ‘‘shell-forming’’ can also be applied to other planets and smaller solid bodies, and can be understood as a generalization of the conventional terraforming. Applied to our planet, it would be a traveling ‘‘hibernaculum’’ for humans in which weather, local time is unimportant and humankind encumbers the Earth with a light touch

Key Words

macro-engineering future studies terraforming physical eschatology wraparound inflatable constructions 

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References

  1. Abraham FF (2003) How fast can cracks move? A research adventure in materials failure using millions of atoms and big computers. Adv Phys 52:727–790Google Scholar
  2. Adams FC, Laughlin G (1997) A dying Universe: the long-term fate and evolution of astrophysical objects. Rev Mod Phys 69:337–372Google Scholar
  3. Addington M, Schodek D (2004) Smart materials and technologies for the architecture and design professions. Architectural Press, Oxford, p 208Google Scholar
  4. Allen JP et al. (2003) The legacy of biosphere 2 for the study of biospherics and closed ecological systems. Adv Space Res 31:1629–1639Google Scholar
  5. Allenby B (2004) Infrastructure in the anthropocene: example of information and communication technology. ASCE J Infrastructure Systems 10: 79–86Google Scholar
  6. Almquist E (2003) History of industrial gases. Kluwer, New York, pp64–82Google Scholar
  7. Anon. (2004) Good vibrations. Technol Rev 107:18Google Scholar
  8. Ausubel JH (2004) Will the rest of the world live like America?. Technol Soc 26:343–360Google Scholar
  9. Badescu V, Cathcart RB (2000) Stellar engines for Kardashev’s type II civilization. J Br Interplanet Soc 53:297–306Google Scholar
  10. Badescu V, Cathcart RB (2006a) Environmental thermodynamic limitations on global human population. Int J Global Energy Issues 25:129–140Google Scholar
  11. Badescu V, Cathcart RB (2006b) Use of Class A and Class C stellar engines to control Sun movement in the Galaxy. Acta Astronautica 58:119–129Google Scholar
  12. Bejan A (2004) Designed porous media: maximal heat transfer density at decreasing length scales. Int J Heat Mass Transfer 47:3073–3083Google Scholar
  13. Bentur A (2002) Cementitious materials—nine millennia and a new century: past, present, and future. ASCE J Mater Civil Eng 14:2–22Google Scholar
  14. Bolonkin A (2002) Optimal inflatable space towers of high height. 34th COSPAR Scientific Assembly, The Second World Space Congress, held 10–19 October, 2002 in Houston, TX, USA, p 2228Google Scholar
  15. Bolonkin A (2004) Kinetic space towers and launchers. J Br Interplanet Soc 57:33–39Google Scholar
  16. Bourdon D (1969) Christo. Art Artists 7:50Google Scholar
  17. Boutin C, Roussilon P (2004) Assessment of the urbanization effect on seismic response. Bull Seismol Soc Am 94:251–268Google Scholar
  18. Bradbury RJ (2001) Dyson shells: a retrospective. In: Kingsley SA, Bhathal R (eds) The Search for Extraterrestrial Intelligence (SETI) in the Optical Spectrum III. Proceedings of SPIE 4273, pp 56–62Google Scholar
  19. Brin GD (1998) The transparent society: Will technology force us to choose between privacy and freedom? Perseus Books, New YorkGoogle Scholar
  20. Bugliarello G (2000) The Biosoma: The synthesis of biology, machines, and society. Bull Sci Technol Soc 20:452–464Google Scholar
  21. Butler EJ, Hoyle F (1979) On the effects of a sudden change in the albedo of the Earth. Astrophys Space Sci 60:505–511Google Scholar
  22. Carol H (1961) Geography of the future. Professional Geographer XII:14–18Google Scholar
  23. Cartwright J, Huuse M (2005) 3D seismic technology: the geological ‘Hubble’. Basin Res 17:1–20Google Scholar
  24. Cathcart RB (1998) Taming Mars with a tent and a tunnel. Spec Sci Technol 21:117–131Google Scholar
  25. Cathcart RB, Badescu V (2004) Architectural ecology: a tentative Sahara restoration. Int J Environ Stud 61:145–160Google Scholar
  26. Caumon G et al. (2004) Building and editing a sealed geological model. Math Geol 36:405–442Google Scholar
  27. Cockell CS (2002) ‘Radio-agriculture’—ground and space-based determination of agricultural productivity. J Br Interplanet Soc 55:362–365Google Scholar
  28. Cockell CS, Blaustein AR (2002) ‘Ultraviolet spring’ and the ecological consequences of catastrophic impacts. Ecol Lett 7:77–81Google Scholar
  29. Collar JI (1996) Biological effects of stellar collapse neutrinos. Phys Rev Lett 76:999–1002Google Scholar
  30. Crutzen P (2002) Geology of mankind. Nature 415:23Google Scholar
  31. Daston L (1981) Biographies of scientific objects. University of Chicago Press, ChicagoGoogle Scholar
  32. Davies M (1981) A wall for all seasons. RIBA J 88:55–57Google Scholar
  33. Dick SJ (2003) Cultural evolution, the postbiological universe and SETI. Int J Astrobiol 2:65–74Google Scholar
  34. Dickinson RM, Grey J (1999) Lasers that beam power to Earth. Aerospace Am 37:5054Google Scholar
  35. Dyson FJ (1960) Search for artificial stellar sources of infrared radiation. Science 131:1667–1668Google Scholar
  36. Edwards LK (1965) High-speed tube transportation. Sci Am 213 (August issue):30–40Google Scholar
  37. Ellis DH et al. (2003) Motorized migrations: the future or mere fantasy? Bioscience 53:260–264Google Scholar
  38. Elvidge CD et al. (2004) U.S. constructed area approaches the size of Ohio. EOS Trans Am Geophys Union 85:233–240Google Scholar
  39. Erren TC, Reiter RJ, Piekarski C (2003) Light, timing of biological rhythms, and chronodisruption in man. Naturwissenschaften 90:485–494Google Scholar
  40. Fara E (2001) What are Lazarus taxa? Geol J 36:291–303Google Scholar
  41. Fischer KW et al. (2004) Atmospheric laser communication. Bull Am Meteorol Soc 85:725–732Google Scholar
  42. Fletcher L (2003) The costs and benefits of space weather. Contemp Phys 44:451–453Google Scholar
  43. Gallupe RB et al. (1992) Electronic brainstorming and group size. Acad Manage 35:350–369Google Scholar
  44. Gilster P (2004) Centauri dreams: Imagining and planning interstellar exploration. Springer, New YorkGoogle Scholar
  45. Gitelson II, Lisovsky GM, MacElroy RD (2003) Manmade closed ecological systems. Taylor & Francis, New YorkGoogle Scholar
  46. Godwin J (1996) Arktos: The polar myth. Adventures Unlimited, Kempton, IllinoisGoogle Scholar
  47. Goodman C (1987) Digital Visions: Computers and Art, Harry N. Abrams, New York, p 42Google Scholar
  48. Gornitz V, Couch S, Hartig EK (2002) Impacts of sea level rise in New York City metropolitan area. Global Planet Change 32:61–88Google Scholar
  49. Grigsby DG (2003) Geometry/labor = volume/mass? October 106:3–34Google Scholar
  50. Hecht H (2001) Regularities of the physical world and the absence of their internalization. Behav Brain Sci 24:608–617Google Scholar
  51. Herndon JM (2005) Whole-Earth decompression dynamics, Ar-Xiv preprint. http://www.arxiv.org/astro-ph/0507001Google Scholar
  52. Herndon JM (2006) Solar system processes underlying planetary formation, geodynamics, and the georeactor, earth, moon and planets (in press). Ar-Xiv preprint http://www.arxiv.org/astro-ph/0602232Google Scholar
  53. Hoffman RN (2002) Controlling the global weather. Bull Am Meteorol Soc 83:241–248Google Scholar
  54. Huggett R (1997) Catastrophism: Asteroids, comets and other dynamic events in earth history. Verso, LondonGoogle Scholar
  55. Hunt BG (1976) On the death of the atmosphere. J Geophys Res 81:3677–3687Google Scholar
  56. Jaenicke R (2005) Abundance of cellular material and proteins in the atmosphere. Science 308:73Google Scholar
  57. Jenkins CHM (2005) Compliant structures in nature and engineering. WIT Press, LondonGoogle Scholar
  58. Kakalios J (2005) Resource letter GP-1: Granular physics or nonlinear dynamics in a sandbox. Am J Phys 73:8–22Google Scholar
  59. Kalu A (2002) A contribution towards establishing a more comfortable space weather to cope with increased human space passengers for ISS Shuttles. In: 34th COSPAR Scientific Assembly, The Second World Space Congress, held 10–19 October, 2002 in Houston, TX, USA, COSPAR, USA, p 2110Google Scholar
  60. Kazuo K (2001) Geologic interpretation of artificial strata in urbanized areas. J Geosci Osaka City University 44:121–135Google Scholar
  61. Kerr RA (2005) Pursued for 40 years, the moho evades ocean drillers once again. Science 307:1707Google Scholar
  62. Knapman J (2005) Dynamically supported launcher. J Br Interplanet Soc 58:90–102Google Scholar
  63. Knott M (1996) Sky-high tower of power may ride the waves. New Scientist 149:23Google Scholar
  64. Komerath NM, Wanis SS (2004) Radio waves for space-based construction. AIP Conf Proc 699:992–999Google Scholar
  65. Korycansky DG, Laughlin G, Adams FC (2001) Astronomical engineering: a strategy for modifying planetary orbits. Astrophys Space Sci 275:349–366Google Scholar
  66. Langlois AJ (2004) The elusive ontology of human rights. Global Soc 18:243–261Google Scholar
  67. LeCain TJ (2001) The biggest mine. Invention Technol 16:10–19Google Scholar
  68. Leitner B (1971) Sound architecture. Artforum 9:44–49Google Scholar
  69. List R (2004) Weather modification—A scenario for the future. Bull Am Meteorol Soc 85:51–63Google Scholar
  70. van Loon AJ (2004) From speculation to model: the challenge of launching new ideas in the Earth sciences. Earth Sci Rev 65:305–313Google Scholar
  71. Lorenzini E, Sanmartin J (2004) Virtual-reality therapy. Sci Am 291:58–65Google Scholar
  72. Lynch Z (2004) Neurotechnology and society (2010–2160). In: Roco MC, Montemagno CD (eds) The Coevolution of Human Potential and Converging Technologies. The New York Academy of Sciences, New York, pp 229–233Google Scholar
  73. Macer DR (2002) Finite or infinite mind? A proposal for an integrative mental mapping project. Eubios J Int Bioethics 12:203–206Google Scholar
  74. MacManus-Driscoll JL et al. (2004) Strongly enhanced current densities in superconducting coated conductors of YBa2Cu3O7-x+ BaZrO3. Nat Mater 3:439–443Google Scholar
  75. Malozemoff AP et al. (2003) HTS wire: status and prospects. Physica C 386:424–430Google Scholar
  76. Malozemoff AP et al. (2005) High-temperature cuprate superconductors get to work. Phys Today 58:42Google Scholar
  77. Marques MAL et al. (2004) On the breaking of carbon nanotubes under tension. NANO Lett 4:811–815Google Scholar
  78. Mason BG, Pyle DM, Oppenheimer C (2004) The size and frequency of the largest explosive eruptions on Earth. Bull Volcanol 66:735–748Google Scholar
  79. May S (2003) Olafur eliasson: The weather project. Tate Publishing, LondonGoogle Scholar
  80. Mehl RA et al. (2003) Generation of a bacterium with a 21 amino acid genetic code. J Am Chem Soc 125:935–939Google Scholar
  81. Melnikov VM, Koshelev VA (1998) Large Space Structures Formed by Centrifugal Forces. Gordon & Breach, The Netherlands, pp 121–132Google Scholar
  82. Metzger W (1930) Optische Untersuchungen am Ganzfeld, II. Zur Phanomenologie des homogenen Ganzfelds. Psychologische Forsch 13:6–29Google Scholar
  83. Meyer WB (2002) Why indoor climates change: a case study. Climatic Change 55:395–407Google Scholar
  84. Minkel JR (2004) Let the Sun shine in, Discover (July issue): 66–67Google Scholar
  85. Moss RA (1999) Use of a superconductor cable to levitate an Earth tethered platform. J Astronaut Sci 37:465–475Google Scholar
  86. Mouratidis J (1985) The origin of nudity in Greek athletics. J Sport Med 12:213–232Google Scholar
  87. Naam R (2005) More than human: Embracing the promise of biological enhancement. Broadway Books, New YorkGoogle Scholar
  88. Newman WR (2004) Promethean ambitions: alchemy and the quest to perfect nature. University of Chicago Press, ChicagoGoogle Scholar
  89. Noever P, Perrin F (2004) Yves klein: Air architecture. Hatje Cantz Verlag, Ostfildern, GermanyGoogle Scholar
  90. Nordell B (2003) Thermal pollution causes global warming. Global Planet Change 38:305–312Google Scholar
  91. Palle E et al. (2004) Changes in Earth’s reflectance over the past two decades. Science 304:1299–1301 (28 May)Google Scholar
  92. Passerini P (1984) The ascent of the anthropostrome: a point of view on the man-made environment. Environ Geol Water Sci 6:211–221Google Scholar
  93. Pattantyus-Abraham M (2004) What determines the nocturnal cooling timescale at 2 m?. Geophys Res Lett 31:L05109Google Scholar
  94. Pavlov AA et al. (2005) Catastrophic ozone loss during passage of the solar system through an interstellar cloud. Geophys Res Lett 32:L01815Google Scholar
  95. Phoenix C, Drexler E (2004) Safe exponential manufacturing. Nanotechnology 15:869–872Google Scholar
  96. Polli A (2005) Atmospherics/weather works: a spatialized meteorological data sonification project. Leonardo 38:31–36Google Scholar
  97. Reeser A, Schafer A (2003) Fresh kills landfill to landscape competition. Praxis: J Writing Building 4:18–63Google Scholar
  98. Rose C, Wright G (2004) Inscribed matter as an energy-efficient means of communications with an extraterrestrial civilization. Nature 431:47–49Google Scholar
  99. Roy KI, KennedyRG III, Fields DE (2004) Shell worlds: an approach to making large moons and small planets habitable. AIP Conf Proc 699:1075–1084Google Scholar
  100. Rybicki KR, Denis C (2001) On the final destiny of the Earth and the Solar system. Icarus 151:130–137Google Scholar
  101. Scalo J, Wheeler JC (2002) Astrophysical and astrobiological implications of gamma-ray burst properties, Astrophysical Journal 566:723–737Google Scholar
  102. Schindewolf O (1962) Neokatastrophismus? Dtsch Geologische Gesellschaft Z Jahrgang 114:430–445Google Scholar
  103. Schuelke M et al. (2004) Myostatin mutation associated with gross muscle hypertrophy in a child. N Engl J Med 350:2682–2688Google Scholar
  104. Schuiling RD (1998) Geochemical engineering: taking stock. J Geochem Explor 62:1–28Google Scholar
  105. Schwartz EI (2004) The sound war. Technol Rev 107:50–54Google Scholar
  106. Seeman NC (2004) Nanotechnology and the double helix. Sci Am 290:64–75Google Scholar
  107. Silberglitt R, Ettedgui E, Hove A (2002) Strengthening the grid: Effect of high-temperature superconducting power technologies on reliability, power transfer capacity, and energy use, RAND, Santa MonicaGoogle Scholar
  108. Smith RA (2004) Recasting concrete. Wall Street J CCXLIV:B1 & B4. (21 July)Google Scholar
  109. Stasenko A (1999) The new Earth. Quantum 9:16–20Google Scholar
  110. Steffen W et al. (2004) Abrupt changes: the Achilles heel of the Earth system. Environment 46:8–20Google Scholar
  111. Sterling B (1999) Homo sapiens declared extinct. Nature 402:125–126Google Scholar
  112. Stone R (2004) Iceland’s doomsday scenario?. Science 306:1278–1281Google Scholar
  113. Streicher JJ et al. (2004) Modeling the anatomical distribution of sunlight. Photochem Photobiol 79:40–47Google Scholar
  114. Sturm BL (2005) Pulse of an ocean: sonification of ocean buoy data. Leonardo 38:143–149Google Scholar
  115. Swart R et al. (2004) A good climate for clean air: linkages between climate change and air pollution. Climatic Change 66:263–269Google Scholar
  116. Tan A, Lyatsky W, Xu S (2004) Distribution of areas of continents and islands. Math Spectrum 36:2–4Google Scholar
  117. Task Committee on Outdoor Human Comfort of the Aerodynamics Committee of the American Society of Civil Engineers (2004) Outdoor human comfort and its assessment. ASCE Press, RestonGoogle Scholar
  118. Tatem AJ et al. (2004) Momentous sprint at the 2156 Olympics? Nature 431:525Google Scholar
  119. Taylor RLS (2001) The Mars atmosphere problem: paraterraforming—the worldhouse solution. J Br Interplanet Soc 54:236–249Google Scholar
  120. Teller E et al. (1996) Completely automated nuclear reactors for long-term operation II: Toward a concept-level point-design of a high-temperature, gas-cooled central power station system. Lawrence Livermore National Laboratory, LivermoreGoogle Scholar
  121. Thomas et al. BC (2005) Terrestrial ozone depletion due to a Milky Way gamma-ray burst. Astrophys J 622:L153–L156Google Scholar
  122. Trenberth KE, Smith L (2005) The mass of the atmosphere: a constraint on global analyses. J Climate 18:864–875Google Scholar
  123. Turner WR, Nakamura T, Dinetti M (2004) Global urbanization and the separation of humans from nature. Bioscience 54:585–590Google Scholar
  124. Underwood JR Jr (2001) Anthropic rocks as a fourth basic class. Environ Eng Geosci VII:104–110Google Scholar
  125. Walsh DC, LaFleur RG (1995) Landfills in New York City: 1844–1994. Ground Water 33:556–560Google Scholar
  126. Waltham C, Bendall S, Kotlicki A (2003) Bernoulli levitation. Am J Phys 71:176–179Google Scholar
  127. Wells M (2002) An underground utopia. Futurist 36:33–36Google Scholar
  128. White RM (2001) Climate systems engineering. Bridge 31:13–17Google Scholar
  129. Whitfield J (2004) Time lords. Nature 429:124–125Google Scholar
  130. Wilkinson BH (2005) Humans as geologic agents: a deep-time perspective. Geology 33:161–164Google Scholar
  131. Willis KJ, Gillson L, Brncic TM (2004) How ‘virgin’ is virgin rainforest? Science 304:402–403Google Scholar
  132. Wright PM (1998) The Earth gives up its heat. Renewable Energy World 1:21–25Google Scholar
  133. Yandle B (1999) Grasping for the heavens: 3-D property rights and the global commons. Duke Environ Law Policy Forum X:13–44Google Scholar
  134. Yoshida S (2004) The ICECUBE neutrino telescope. Mod Phys Lett A 19:1099–1106Google Scholar
  135. Zhang M et al. (2004) Multifunctional carbon nanotube yarns by downsizing an ancient technology. Science 306:1358–1361Google Scholar
  136. Zimmer D (2004) Dark science. Can Geographic 124:30Google Scholar

Copyright information

© Springer 2006

Authors and Affiliations

  • Richard Brook Cathcart
    • 1
  • Milan M. Ćirković
    • 2
  1. 1.GeographosBurbank
  2. 2.Astronomical ObservatoryBelgradeSerbia

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