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Systematics and the Origin of Species: On Ernst Mayr's 100th Anniversary (2005)
National Academy of Sciences (NAS)

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. "7 Critical Review of Host Specificity and Its Coevolutionary Implications in the Fig/Fig-Wasp Mutualism--CARLOS A. MACHADO, NANCY ROBBINS, M. THOMAS P. GILBERT, AND EDWARD ALLEN HERRE." Systematics and the Origin of Species: On Ernst Mayr's 100th Anniversary. Washington, DC: The National Academies Press, 2005.

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Systematics and The Origin of Species: On Ernst Mayr’s 100th Anniversary

Both ecologically and evolutionarily, mutualisms represent one of the most influential of all biological interactions, with fundamental consequences for the evolution and maintenance of biotic diversity (Boucher, 1985; Bronstein, 2001; Douglas, 1994; Herre et al., 1999; Margulis and Fester, 1991; Maynard Smith and Szathmáry, 1995; Thompson, 1994). The long-term stability of mutualisms poses a considerable and, as yet, not fully resolved challenge to evolutionary theory. However, the obvious fact of long-term stability coupled with the proliferation and diversification of many mutualisms raises a set of interesting questions concerning coadaptation and speciation among the partners in the interaction. The obligate mutualisms between flowering plants and their insect pollinators (Corner, 1952; Kato et al., 2003; Pellmyr, 2003; Wiebes, 1979) constitute fascinating extreme cases of interspecific mutualisms. Most obligate plant–pollinator mutualisms show high levels of reciprocal species or taxon specificity. Usually, the insect requires the plant for food or other substances to complete its life cycle successfully, and the plant requires the insect for pollination. Further, it is the insect’s recognition and choice of hosts that determine the patterns of host gene flow. Although there are relatively few cases of obligate pollination mutualisms (Corner, 1952; Kato et al., 2003; Pellmyr, 2003; Wiebes, 1979), these few cases are often marked by high to extreme speciation and diversification in both partners, raising the question of how host specificity and control of gene flow affects patterns of speciation in one or both partners.

Figs (Ficus spp., Moraceae) and their pollinating wasps (Agaonidae, Chalcidoidea) constitute perhaps the most tightly integrated pollination mutualism that is known (Cook and Rasplus, 2003; Corner, 1952; Galil and Eisikowitch, 1968; Janzen, 1979; Ramirez, 1970a; Weiblen, 2002; Wiebes, 1979). Ficus is one of the most diverse genera of flowering plants in number of species and growth and life forms (Berg and Wiebes, 1992; Harrison, 2005). The nearly 750 described species of Ficus (Berg, 1989) occur worldwide in tropical and subtropical regions, and they are considered “keystone” species in tropical forests because of their year-round production of fruit that is essential to a large number of frugivores (Kalko et al., 1996; Korine et al., 2000; McKey, 1989; Terborgh, 1986). Figs depend on minute, pollen-bearing female wasps to pollinate the flowers and thereby initiate seed production (Corner, 1952; Eisikowitch, 1968; Galil, 1977; Galil and Ramirez, 1974; Herre, 1989, 1999; Herre and West, 1997). The mated female wasps, in turn, depend on the developing fig inflorescence for the production of their offspring, because each wasp larva consumes the contents of one would-be seed. The cycle begins when mated female wasps locate a receptive tree and enter the enclosed fig inflorescences (Syconia). As the females search for oviposition sites, they pollinate the flowers. Usually the foundresses die inside the syconium, and

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Front Matter (R1-R14)
1 Introductory Essay: Systematics and the Future of Biology--EDWARD O. WILSON (1-4)
Part I--THE ORIGINS OF SPECIES BARRIERS: 2 The Genetic Basis of Reproductive Isolation: Insights from Drosophila--H. ALLEN ORR (5-23)
3 Inter-Locus Antagonistic Coevolution as an Engine of Speciation: Assessment with Hemiclonal Analysis--WILLIAM R. RICE, JODELL E. LINDER, URBAN FRIBERG, TIMOTHY A. LEW, EDWARD H. MORROW, AND ANDREW D. STEWART (24-45)
4 Chromosome Speciation: Humans, Drosophila, and Mosquitoes--FRANCISCO J. AYALA AND MARIO COLUZZI (46-68)
5 Developmental Plasticity and the Origin of Species Differences--MARY JANE WEST-EBERHARD (69-90)
Part II--DISCERNING RECENT DIVERGENCE: 6 Speciation in Birds: Genes, Geography, and Sexual Selection--SCOTT V. EDWARDS, SARAH B. KINGAN, JENNIFER D. CALKINS, CHRISTOPHER N. BALAKRISHNAN, W. BRYAN JENNINGS, WILLIE J. SWANSON, AND MICHAEL D. SORENSON (91-119)
7 Critical Review of Host Specificity and Its Coevolutionary Implications in the Fig/Fig-Wasp Mutualism--CARLOS A. MACHADO, NANCY ROBBINS, M. THOMAS P. GILBERT, AND EDWARD ALLEN HERRE (120-142)
8 Evolutionary Animation: How Do Molecular Phylogenies Compare to Mayr’s Reconstruction of Speciation Patterns in the Sea?--STEPHEN R. PALUMBI AND H. A. LESSIOS (143-161)
9 Mayr, Dobzhansky, and Bush and the Complexities of Sympatric Speciation in Rhagoletis--JEFFREY L. FEDER, XIANFA XIE, JUAN RULL, SEBASTIAN VELEZ, ANDREW FORBES, BRIAN LEUNG, HATTIE DAMBROSKI, KENNETH E. FILCHAK, AND MARTIN ALUJA (162-181)
10 On the Origin of Lake Malawi Cichlid Species: A Population Genetic Analysis of Divergence--YONG-JIN WON, ARJUN SIVASUNDAR, YONG WANG, AND JODY HEY (182-200)
Part III--THE NATURE OF SPECIES AND THE MEANING OF ‘‘SPECIES’’: 11 A Multidimensional Approach for Detecting Species Patterns in Malagasy Vertebrates--ANNE D. YODER, LINK E. OLSON, CAROL HANLEY, KELLIE L. HECKMAN, RODIN RASOLOARISON, AMY L. RUSSELL, JULIE RANIVO, VOAHANGY SOARIMALALA, K. PRAVEEN KARANTH, ACH (201-228)
12 Examining Bacterial Species Under the Specter of Gene Transfer and Exchange--HOWARD OCHMAN, EMMANUELLE LERAT, AND VINCENT DAUBIN (229-242)
13 Ernst Mayr and the Modern Concept of Species--KEVIN DE QUEIROZ (243-264)
Part IV--GENOMIC APPROACHES AND NEW INSIGHTS ON DIVERSITY: 14 Decoding the Genomic Tree of Life--ANNE B. SIMONSON, JACQUELINE A. SERVIN, RYAN G. SKOPHAMMER, CRAIG W. HERBOLD, MARIA C. RIVERA, AND JAMES A. LAKE (265-285)
15 Prospects for Identifying Functional Variation Across the Genome--STUART J. MACDONALD AND ANTHONY D. LONG (286-306)
16 Genetics and Genomics of Drosophila Mating Behavior--TRUDY F. C. MACKAY, STEFANIE L. HEINSOHN, RICHARD F. LYMAN, AMANDA J. MOEHRING, THEODORE J. MORGAN, AND STEPHANIE M. ROLLMANN (307-331)
17 Genomes, Phylogeny, and Evolutionary Systems Biology--MÓNICA MEDINA (332-350)
Index (351-368)