Journal of Molecular Evolution

, Volume 33, Issue 2, pp 105–113 | Cite as

The role of chirality in the origin of life

  • Abdus Salam
Article

Summary

The role of chirality in the theories that determine the origin of life are reemphasized—in particular the fact that almost all amino acids utilized in living systems are of thel type. Starting fromZ0 interactions, I speculate on an explanation of the above fact in terms of quantum mechanical cooperative and condensation phenomena (possibly in terms of ane-n condensate where thee-n system has the same status as Cooper-pairing), which could give rise to second-order phase transitions (includingd tol transformations) below a critical temperatureTc. As a general rule,Tc is a low temperature. From this, it is conceivable that the earth provided too hot a location for the production ofl amino acids. I suggest laboratory testing of these ideas by looking for the appropriate phase transitions.

Key words

Prebiotic chirality Origin of life Condensation 

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References

  1. Abrikosov AA (1987) Fundamentals of the theor of metals. Elsevier, North Holland, pp 345–347Google Scholar
  2. Arnold P, McLerran L (1987) Sphalerons, small fluctuations and baryon-number violation in electroweak theory. Phys. Rev D36:581–595Google Scholar
  3. Atkins KR (1959) Liquid helium. Cambridge University Press, New York, p 42Google Scholar
  4. Avetisov VA, Kus'min VV, Anikin SA (1987) Sensitivity of chemical chiral systems to weak asymmetric factors. Chem Phys 112:179–187Google Scholar
  5. Chela-Flores J (1985) Evolution as a collective phenomenon. J Theor Biol 117:107–118Google Scholar
  6. Chyba CF, Thomas PJ, Brookshaw L, Sagan C (1990) Cometary delivery of organic molecules to the early Earth. Science 249: 366–373Google Scholar
  7. Cronin JR (1989) Origin of organic compounds in carbonaceous chrondrites. Adv Space Res 9:54–64Google Scholar
  8. Cruikshank DP (1989) Dark surfaces of asteroids and comets: evidence for macromolecular carbon compounds. Adv Space Res 9:65–71Google Scholar
  9. Delbrück M (1963) In commemoration of the 50th anniversary of Niels Bohr's papers on atomic constitution, Session on Cosmos and Life, Institute for Theoretical Physics, Copenhagen, pp 41–67Google Scholar
  10. Engel MH, Macko SA, Silfer JA (1990) Carbon isotope composition of individual amino acids in the Murchinson meteorite. Nature 348:47–49Google Scholar
  11. Goodstein DL (1985) States of matter: Dover Publications, New York, pp 386–391Google Scholar
  12. Hanel R, Conrath B, Flasar M, Kunde V, Lowman P, Maguire W, Pearl J, Pirraglia J, Samuelson R, Gautier D, Gierasch P, Kumar S, Ponnamperuma C (1979a) Infrared observations of the Jovian system from Voyager 1. Science 204:972–976Google Scholar
  13. Hanel R, Conrath B, Flasar M, Herath L, Kinde V, Louman P, Maguire W, Pearl J, Pirraglia J, Samuelson R, Gautier D, Gierasch P, Horn L, Kumar S, Ponnamperuma C (1979b) Infrared observations of the Jovian system from Voyager 2. Science 206:952–956Google Scholar
  14. Harris MJ, Loving CE, Sandars PGH (1978) Atomic shielding and PNC optical rotation in bismuth. J. Phys B11:L749-L753Google Scholar
  15. Knervolden KA, Lawless J, Ponnamperuma C (1971) Nonprotein amino acids in the Murchinson meteorite. Proc Natl Acad Sci USA 68:486–490Google Scholar
  16. Kondepudi KD, Nelson CW (1985) Weak neutral currents and the origin of biomolecular chirality. Nature 314:438–441Google Scholar
  17. Kuzmin V, Rubakov V, Shaposhnikov M (1985) On the anomalous electroweak baryon-number non-conservation in the early universe. Phys Lett 155B:36–42Google Scholar
  18. Landau LD, Lifschitz EM, Pitaevskii LP (1980) Statistical physics, part II, vol 9. Pergamon, New YorkGoogle Scholar
  19. Leggett A (1990) In: Davies P (ed) The new physics. Cambridge University Press, New York, p 276Google Scholar
  20. Mason SF, Tranter GE (1984) The parity-violating energy difference between enantiomeric molecules. Mol Phys 53:1091–1111Google Scholar
  21. Mitten S (1977) The Cambridge encyclopædia of astronomy. Trewin Copplestone, London, p 392Google Scholar
  22. Mizutani U, Massalski TB, McGiness JE, Corry PM (1976) Low temperature specific heat anomalies in melanins and tumor melanosomes. Nature 259:505–507Google Scholar
  23. Orò J (1961) Comets and the formation of biochemical compounds on the primitive earth. Nature 190:389–390Google Scholar
  24. Orò J, Mills T (1989) Chemical evolution of primitive solar system bodies. Adv Space Res 9:105–120Google Scholar
  25. Orò J, Miller SL, Lazcano A (1990a) The origin and early evolution of life on Earth. Annu Rev Earth Planet Sci 18: 317–356Google Scholar
  26. Orò J, Squyres SW, Reynolds RT, Mills TM (1990b) Europa: prospects for an ocean and exobiological implications. NASA Spec Publ (in press)Google Scholar
  27. Pasteur L (1860) Researches on the molecular asymmetry of natural organic products. Alembic Club Reprint, no. 14, LondonGoogle Scholar
  28. Ponnamperuma C, Molten P (1973) Prospect of life on Jupiter. Space Life Sciences 4:32–44Google Scholar
  29. Randjbar-Daemi S, Salam A, Strathdee J (1990) Chern-Simons superconductivity at finite temperature. Nucl Phys B340:403–447Google Scholar
  30. Ringwald A (1990). High energy breakdown of perturbation theory in the electroweak instanton sector. Nucl Phys B330: 1–18Google Scholar
  31. Sakita B (1985) Quantum theory of many-variable systems and fields. World Scientific, SingaporeGoogle Scholar
  32. Sanchez R, Ferris J, Orgel LE (1966) Conditions for purine synthesis: did prebiotic synthesis occur at low temperatures? Science 153:72–73Google Scholar
  33. Soderblom LA, Kieffer SW, Beckes TL, Brown RH, Cook AF, Hansen CJ, Johnson TV, Kirk RL, Schoemaker EM (1990) Triton's geyser-like plumes: discovery and basic characterization. Science 250:410–415Google Scholar
  34. Tranter GE, MacDermott AJ (1989) Electroweak bioenantioselection. Croatica Chem Acta 62(2A):165–187Google Scholar
  35. Walker DC (1979) Origins of optical activity in nature. Elsevier, New York, p viiGoogle Scholar
  36. Wyckoff RWG (1966) Crystal structures, vol 5, ed. 2. Interscience, London 5, pp 725–727Google Scholar

Copyright information

© Springer-Verlag New York Inc. 1991

Authors and Affiliations

  • Abdus Salam
    • 1
    • 2
  1. 1.International Centre for Theoretical PhysicsTriesteItaly
  2. 2.Department of Theoretical PhysicsImperial CollegeLondonUK

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