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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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. "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." 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

2003; Metz and Palumbi, 1996; Palumbi and Metz, 1991). Where E. sp. C is in sympatry with E. oblonga (Okinawa) bindin alleles are highly divergent; in contrast, where they are allopatric, E. sp. C and E. oblonga (Hawaii) have very similar alleles (Geyer and Palumbi, 2003). In addition, bindin sequences in E. insularis are distinct and monophyletic and do not suggest a close relationship with E. sp C (Landry et al., 2003). Thus, the genus Echinometra has species with extensive sympatry, whereas the genus Diadema shows sympatry of just a few species pairs. However, contrary to predictions of Mayr’s animation, overall genetic divergence between species of Echinometra is smaller than between those of Diadema (Fig. 1). In particular, sympatric species of Echinometra show much less genetic divergence than sympatric species of Diadema.

Group 4

The genus Arbacia consists of purely allopatric species, but Mayr included it in group 4 because he doubted the validity of specific rank, even for species that were found in different oceans. He may actually have been right for the wrong reasons, because COI and bindin show that the original species designations correspond to divergent molecular clades and should not be considered as conspecific. However, neighboring allopatric clades are old and thus qualify the genus for inclusion in group 4. Based on COI sequences, Arbacia punctulata along the east coast of North America and Arbacia lixula from the eastern Atlantic and from Brazil are ≈3–5 million years old (Metz et al., 1998). The most recently derived species pair, Arbacia dufresnei and Arbacia incisa, are 2–4 million years old. Species also tend to be widespread: A. lixula occurs from the coast of Brazil to the Mediterranean, with an ≈500,000-year divergence between these genetically distinct populations. The western Atlantic species A. punctulata ranges from Cape Cod to Curacao, Trinidad and Tobago, and shows a 2% sequence divergence in COI between Florida and the northern end of its range.

Although Mayr mentioned studies of morphological variation in Strongylocentrotus droebachiensis and Strongylocentrotus pallidus, he did not place this genus in any of his groups, because it lacks tropical representatives. However, because molecular and morphological variation in Strongylocentrotus have been well studied, it can receive the same consideration as the other genera. There are many sympatric species in this genus. A cluster of species sympatric in the Northeast Pacific diverged from one another at ≈3–5 million years ago based on COI and fossil evidence (Biermann et al., 2003). Strongylocentrotus purpuratus, Strongylocentrotus droebachiensis, S. pallidus, and Allocentrotus fragilis all diverged from one another at about the same time. Although broadly overlapping

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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)