Summary
Age and evolution of bacteria can be estimated, including facts and hypotheses belonging to morphology, biochemistry, paleontology, ecology and pathogenicity. The corresponding dates are summarized in the following.
About 3.5×109 years: Origin of heterotrophic eobiontes.—About 3.0×109 years: The increasing lack of prebiogenic substances is due to the evolution of the respiratory pathway, that is due to the evolution of the photoautotrophy and now released O2 is due to the evolution of strictly aerobic cells. There is, simultaneously, a transition of spheres to long forms, development of an amoebalike motility, the evolution of spirochetes and the substitution of cholesterol for cardiolipin in the more evolved cells (i.e. strictly aerobic cells etc.).—About 2.0×1.0×109 years: Evolution of the eucyte by symbiosis of a great, primitive, anaerobic, cholesterol-containing cell with a little, strictly aerobic, cardiolipin-containing cell, with a spirochete and in some extent also with photoautotrophic cell.—About 1.0×109 years (maximum: 1.8–1.5×109 years, minimum: 7×108 years): Evolution of metazoa and begin of cell differentiation.—About 2.0–1.0×109 years: Evolution of the bacterial murein sacculus and then development of flagella mediated motility.—About 6×108 years (maximum:1.0×109 years, minimum: 4.5×108 years): Evolution of the gram-negative cell wall.—About 4.0×108 years: Evolution of the gram-positive cell wall.—About 5.0×108 years: Gram-negative, strictly anaerobic bacteria become the first enteric bacteria in coelenterates. About 4.0×108 years: gram-negative, microaerophilic bacteria become Enterobacteriaceae in vertebrates in addition to the strictly anaerobic organisms.—About 3.0–2.0×108 years: Consolidation of the Salmonella in reptiles.—About 2.0–1.5×108 years: Consolidation of Escherichia and other coliform species in mammals.—About 106 years: Evolution of typically human pathogenic organisms, transmitted in homogeneous-homonomous infection ways, i.e. N. gonorrhoeae, S. typhi, T. pallidum, etc.
Similar content being viewed by others
References
S. Orla-Jensen, Zentbl. Bakt. Hyg. II,22, 305 (1909).
M. Calvin, Chemical Evolution. Clarendon Press, Oxford 1969.
R. W. Kaplan, Der Ursprung des Lebens. Thieme, Stuttgart 1972.
H. Rahmann, Die Entstehung des Lebendigen. G. Fischer, Stuttgart 1972.
E.S. Barghoorn, Scient. Am.224, 30 (1971).
H.D. Pflug, Naturwissenschaften54, 236 (1966).
J.W. Schopf, Biol. Rev.45, 319 (1970).
J.W. Schopf and D. Zeller-Oehler, Science193, 47 (1976).
H.E. Müller, Naturwissenschaften63, 224 (1976).
K. Decker, K. Jungermann and R. K. Thauer, Angew. Chem.82, 153 (1970).
S. Razin and J. G. Tully, J. Bacteriol.102, 306 (1970).
I. M. Robinson, M. J. Allison and P. A. Hartman, Int. J. syst. Bacteriol.25, 173 (1975).
I. M. Robinson and M. J. Allison, Int. J. syst. Bacteriol.25, 182 (1975).
W. Bredt, Med. Microbiol. Immunol.157, 169 (1972).
R. F. Whitcomb and D. L. Williamson, Ann. N. Y. Acad. Sci.266, 260 (1975).
L. P. Brinton and W. Burgdorfer, Int. J. syst. Bacteriol.26, 554 (1976).
L. Margulis, Science161, 1020 (1968).
L. Margulis, Origin of Eucaryotic Cells. Yale University Press, New Haven 1970.
P. H. Raven, Science169, 641 (1970).
M. Ikawa, Bact. Rev.31, 54 (1967).
C. F. Fox and A. D. Keith, Membrane Molecular Biology. Sinauer, Stanford, Conn., 1972.
C. B. Hirschberg and E. P. Kennedy, PNAS69, 648 (1972).
N. H. Horowitz, Proc. nat. Acad. Sci., USA31, 153 (1945).
E. B. Lewis, Cold Spring Harbor Symp. Quant. Biol.16, 159 (1951).
F. Müller, H. Feddersen and M. Segerling, Immunology24, 711 (1973).
F. Müller and M. Segerling, Zentbl. Bakt. Hyg., I, Orig.,220, 494 (1972).
N. R. Krieg, Bact. Rev.40, 55 (1976).
E. Schnepf, E. Hegewald and C. J. Soeder, Arch. Mikrobiol.98, 133 (1974).
F. M. Burnet, Naturgeschichte der Infektionskrankheiten. S. Fischer, Frankfurt a. M. 1971.
I. Dimow, Zentbl. Bakt. Hyg., Ref.,214, 335 (1968).
M. Roggendorf and H. E. Müller, Zentbl. Bakt. Hyg., I, Orig.,236, 22 (1976).
Author information
Authors and Affiliations
Additional information
Dedicated to Prof. H. Habs, Bonn, to his 75th anniversary on 11 September 1977.
Acknowledgment. I thank Prof. F. Müller, Hamburg, and Prof. P. Sitte, Freiburg i. Br., for stimulating discussions.
Rights and permissions
About this article
Cite this article
Müller, H.E. Age and evolution of bacteria. Experientia 33, 979–984 (1977). https://doi.org/10.1007/BF01945918
Published:
Issue Date:
DOI: https://doi.org/10.1007/BF01945918