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Variation and Evolution in Plants and Microorganisms: Toward a New Synthesis 50 Years after Stebbins (2000)
National Academy of Sciences (NAS)

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. "9 Population Structure and Recent Evolution of Plasmodium falciparum." Variation and Evolution in Plants and Microorganisms: Toward a New Synthesis 50 Years after Stebbins. Washington, DC: The National Academies Press, 2000.

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Variation and Evolution in Plants and Microorganisms: TOWARD A NEW SYNTHESIS 50 YEARS AFTER STEBBINS

FIGURE 1. Phylogeny of 12 Plasmodium species inferred from Csp gene sequences. P. falciparum, malariae, and vivax are human parasites; berghei and yoelii are rodent, and all others are primate parasites. The numbers refer to different strains. Bootstrap values above branches assess the reliability of the branch clusters; values above 70 are considered statistically reliable. Reprinted with permission from Ayala et al. 1999.

years ago, which is roughly consistent with the time of divergence between the two host species, human and chimpanzee. A parsimonious interpretation of this state of affairs is that P. falciparum is an ancient human parasite, associated with our ancestors since the divergence of the hominids from the great apes. Fig. 1 shows that P. malariae, a human parasite, is genetically indistinguishable from Plasmodium brasilianum, a parasite of New World monkeys; similarly, human P. vivax is genetically indistinguishable from Plasmodium simium, also a parasite of New World monkeys. It follows that lateral transfer between hosts has occurred in recent times, at least in these two cases. Whether the transfer has been from humans to monkeys or vice versa is a moot question (for discussion, see Ayala et al., 1999).

TABLE 1. Time (in million years) of divergence, between Plasmodium species, based on genetic distances at two gene loci (see Fig. 1 and Fig. 2; adapted from Escalante et al. [1995], and Escalante and Ayala [1994])

Plasmodium

rRNA

CSP

falciparum vs. reichenowi

11.2 ± 2.5

8.9 ± 0.4

vivax vs. monkey*

20.9 ± 3.8

25.2 ± 2.1

vivax vs. malariae

75.7 ± 8.8

103.5 ± 0.6

falciparum vs. vivax/malariae

75.7 ± 8.8

165.4 ± 1.6

* brasilianum not included.

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Front Matter (R1-R12)
Part I: Early Evolution and the Origin of Cells (1-2)
1 G. Ledyard Stebbins (1906-2000) -- An Appreciation (3-5)
2 Solution to Darwin's Dilemma: Discovery of the Missing Precambrian Record of Life (6-20)
3 The Chimeric Eukaryote: Origin of the Nucleus from the Karyomastigont in Amitochondriate Protists (21-34)
4 Dynamic Evolution of Plant Mitochondrial Genomes: Mobile Genes and Introns and Highly Variable Mutation Rates (35-58)
Part II: Viral and Bacterial Models (59-60)
5 The Evolution of RNA Viruses: A Population Genetics View (61-82)
6 Effects of Passage History and Sampling Bias on Phylogenetic Reconstruction of Human Influenza A Evolution (83-98)
7 Bacteria are Different: Observations, Interpretations, Speculations, and Opinions About the Mechanisms of Adaptive Evolution in Prokaryotes (99-114)
Part III: Protoctist Models (115-116)
8 Evolution of RNA Editing in Trypanosome Mitochondria (117-142)
9 Population Structure and Recent Evolution of Plasmodium falciparum (143-164)
Part IV: Population Variation (165-166)
10 Transposons and Genome Evolution in Plants (167-186)
11 Maize as a Model for the Evolution of Plant Nuclear Genomes (187-210)
12 Flower Color Variation: A Model for the Experimental Study of Evolution (211-234)
13 Gene Genealogies and Population Variation in Plants (235-252)
Part V: Trends and Patterns in Plant Evolution (253-254)
14 Toward a New Synthesis: Major Evolutionary Trends in the Angiosperm Fossil Record (255-270)
15 Reproductive Systems and Evolution in Vascular Plants (271-288)
16 Hybridization as a Stimulus for the Evolution of Invasiveness in Plants? (289-309)
17 The Role of Genetic and Genomic Attributes in the Success of Polyploids (310-330)
Index (331-340)