Diptera, Drosophilidae)
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Alan Robert Templeton
Alan Robert Templeton Charles Rebstock Professor of Biology Professor of Genetics & Biomedical Engineering Department of Biology, Campus Box 1137 Washington University St. Louis, Missouri 63130-4899, USA (phone 314-935-6868; fax 314-935-4432; e-mail [email protected]) EDUCATION A.B. (Zoology) Washington University 1969 M.A. (Statistics) University of Michigan 1972 Ph.D. (Human Genetics) University of Michigan 1972 PROFESSIONAL EXPERIENCE 1972-1974. Junior Fellow, Society of Fellows of the University of Michigan. 1974. Visiting Scholar, Department of Genetics, University of Hawaii. 1974-1977. Assistant Professor, Department of Zoology, University of Texas at Austin. 1976. Visiting Assistant Professor, Dept. de Biologia, Universidade de São Paulo, Brazil. 1977-1981. Associate Professor, Departments of Biology and Genetics, Washington University. 1981-present. Professor, Departments of Biology and Genetics, Washington University. 1983-1987. Genetics Study Section, NIH (also served as an ad hoc reviewer several times). 1984-1992: 1996-1997. Head, Evolutionary and Population Biology Program, Washington University. 1985. Visiting Professor, Department of Human Genetics, University of Michigan. 1986. Distinguished Visiting Scientist, Museum of Zoology, University of Michigan. 1986-present. Research Associate of the Missouri Botanical Garden. 1992. Elected Visiting Fellow, Merton College, University of Oxford, Oxford, United Kingdom. 2000. Visiting Professor, Technion Institute of Technology, Haifa, Israel 2001-present. Charles Rebstock Professor of Biology 2001-present. Professor of Biomedical Engineering, School of Engineering, Washington University 2002-present. Visiting Professor, Rappaport Institute, Medical School of the Technion, Israel. 2007-2010. Senior Research Associate, The Institute of Evolution, University of Haifa, Israel. 2009-present. Professor, Division of Statistical Genomics, Washington University 2010-present. -
Hered Master 7..Hered 317 .. Page642
Heredity 80 (1998) 642–650 Received 3 September 1997 Inheritance of behavioural differences between two interfertile, sympatric species, Drosophila silvestris and D. heteroneura CHRISTINE R. B. BOAKE*, DONALD K. PRICE% & DEBRA K. ANDREADIS Department of Ecology and Evolutionary Biology, The University of Tennessee, Knoxville, TN 37996, U.S.A. The Hawaiian fly species, Drosophila silvestris and D. heteroneura, are sympatric and interfertile but show strong behavioural isolation and major differences in male aggressive behaviour and the associated morphology. As a first step in elucidating the genetic control of the differences between these species, we examined the mating and aggressive behaviour of their reciprocal F1 hybrids. The latency to the first wing vibration and the latency to copulate did not differ significantly between the parental species. However, D. heteroneura females had a very low tendency to copulate with D. silvestris males, rarely mating during the observation period. The duration of copulation also differed significantly: same-species pairs of D. silvestris had copula- tions that lasted about 50% longer than those of same-species pairs of D. heteroneura. The hybrids were intermediate between the parental species for both the tendency to copulate with D. silvestris males and the duration of copulation, suggesting codominance or polygenic inherit- ance for those traits. The aggression traits that we scored were the leg posture and wing extension during early aggression, and the leg posture and head position during escalated aggression. The parental species showed clear differences for each of these traits. The F1 hybrids resembled one parent or the other, without showing intermediate values, suggesting single-gene dominance or threshold expression of many genes for those traits. -
Diptera: Syrphidae), Based on Integrative Taxonomy and Aegean Palaeogeography
Contributions to Zoology, 87 (4) 197-225 (2018) Disentangling a cryptic species complex and defining new species within the Eumerus minotaurus group (Diptera: Syrphidae), based on integrative taxonomy and Aegean palaeogeography Antonia Chroni1,4,5, Ana Grković2, Jelena Ačanski3, Ante Vujić2, Snežana Radenković2, Nevena Veličković2, Mihajla Djan2, Theodora Petanidou1 1 University of the Aegean, Department of Geography, University Hill, 81100, Mytilene, Greece 2 University of Novi Sad, Faculty of Sciences, Department of Biology and Ecology, Trg Dositeja Obradovića 2, 21000, Novi Sad, Serbia 3 Laboratory for Biosystems Research, BioSense Institute – Research Institute for Information Technologies in Biosystems, University of Novi Sad, Dr. Zorana Đinđića 1, 21000, Novi Sad, Serbia 4 Institute for Genomics and Evolutionary Medicine; Department of Biology, Temple University, Philadelphia, PA 19122, USA 5 E-mail: [email protected] Keywords: Aegean, DNA sequences, hoverflies, mid- Discussion ............................................................................. 211 Aegean Trench, wing geometric morphometry Taxonomic and molecular implications ...........................212 Mitochondrial dating, biogeographic history and divergence time estimates ................................................213 Abstract Acknowledgments .................................................................215 References .............................................................................215 This study provides an overview of the Eumerus minotaurus -
Development and Evolutionary Constraints in Animals Abstract
Development and evolutionary constraints in animals Frietson Galis Naturalis Biodiversity Center [email protected] Johan A. J. Metz University of Leiden [email protected] Jacques J. M. van Alphen University of Amsterdam [email protected] Running title: Development and evolutionary constraints Corresponding author: Frietson Galis Naturalis Biodiversity Center Darwinweg 2, 2333CR Leiden, The Netherlands +31648814360 [email protected] Abstract We review the evolutionary importance of developmental mechanisms in constraining evolutionary changes in animals, i.e. developmental constraints. We focus on hard constraints that can act on macro-evolutionary time-scales. We in particular discuss the causes and evolutionary consequences of the ancient metazoan constraint that differentiated cells cannot divide, and constraints against changes of phylotypic stages in vertebrates and other higher taxa. We conclude that in all cases these constraints are caused by complex and highly controlled global interactivity of development, that when disturbed has grave consequences. Mutations that affect such global interactivity almost unavoidably have many deleterious pleiotropic effects, which will be strongly selected against, and lead to long-term evolutionary stasis. The discussed developmental constraints have pervasive consequences for evolution and critically restrict regeneration capacity and body plan evolution. Keywords: Evo-Devo, body plan evolution, evolutionary constraint, parthenogenesis, phylotypic stages, regeneration capacity 1. Introduction Evolution has produced an astonishing array of organisms, yet the branches of the evolutionary tree do not reach all profitable regions of phenotype space (Maynard Smith et al 1985, Vermeij 2015). Evolution, thus, appears to be subject to constraints. We focus on developmental constraints, that is on the role of developmental mechanisms in restricting the range of possibly adaptive phenotypes (Oster & Alberch 1982, Müller & Wagner 1991, Amundson 1994, Schoch 2013). -
Diversification in the Hawaiian Drosophila
Diversification in the Hawaiian Drosophila By Richard Thomas Lapoint A dissertation submitted in partial satisfaction of the requirements for the degree of Doctor of Philosophy in Environmental Science, Policy and Management in the Graduate Division of the University of California, Berkeley Committee in charge: Professor Patrick M. O’Grady, Chair Professor George K. Roderick Professor Craig Moritz Spring 2011 ! Diversification in the Hawaiian Drosophila Copyright 2011 By Richard Thomas Lapoint ! Abstract Diversification in the Hawaiian Drosophila by Richard Thomas Lapoint Doctor of Philosophy in Environmental Science, Policy and Management University of California, Berkeley Professor Patrick M. O’Grady, Chair The Hawaiian Islands have been recognized as an ideal place to study evolutionary processes due to their remote location, multitude of ecological niches and diverse biota. As the oldest and largest radiation in the Hawaiian Islands the Hawaiian Drosophilidae have been the focus of decades of evolutionary research and subsequently the basis for understanding how much of the diversity within these islands and other island systems have been generated. This dissertation revolves around the diversification of a large clade of Hawaiian Drosophila, and examines the molecular evolution of this group at several different temporal scales. The antopocerus, modified tarsus, ciliated tarsus (AMC) clade is a group of 90 described Drosophila species that utilize decaying leafs as a host substrate and are characterized by a set of diagnostic secondary sexual characters: modifications in either antennal or tarsal morphologies. This research uses both phylogenetic and population genetic methods to study how this clade has evolved at increasingly finer evolutionary scales, from lineage to population level. -
Introduction and Bibliography
Pacific Science (1988), vol. 42, nos. 1-2 © 1988 by the University of Hawaii Press. All rights reserved Introduction and Bibliography Hampton Carson first came to Hawaii in LITERATURE CITED June 1963 at the urging of Elmo Hardy and Wilson Stone. That year saw the first major CARSON, H. L. 1980. Hypotheses that blur gathering in Honolulu of scientists from and grow. Pages 383-384 in E. Mayr and many specialties in the interdisciplinary and W. B. Provine, eds. The evolutionary syn cooperative pattern that has proved so pro thesis: Perspectives on the unification of ductive in the study of Hawaiian Drosophila biology. Harvard Univ. Press, Cambridge, on "the Project" (Spieth 1980). Carson came Mass . with Harrison Stalker from Washington SPIETH, H. T. 1980. Hawaiian Drosophila University in St. Louis. Together (following Project. Proc., Hawaiian Entomol. Soc. Dobzhansky), they had developed a power 23(2) :275-291. ful method of population studies based on detailed examination of the distribution of inversions in the polytene chromosomes of Bibliography ofHampton Lawrence Carson Drosophila robusta and other species of the 1934-1986 mesic forests of the central and eastern United States. 1. CARSON, H. L. 1934. Labrador quarry. Carson's cytological approach can be traced General Mag. 37(1) :97-104. to the influence of McClung, and especially 2. CARSON, H. L. 1935. Use of medicinal of Metz, during his graduate studies at the herbs among the Labrador Eskimo. University of Pennsylvania in the late 1930s General Mag. 37(4):436-439. and early 1940s (Carson 1980). These studies 3. CARSON, H . L. -
Taxonomic Relationships Within the Endemic Hawaiian Drosophilidae (Insecta: Diptera)
Records of the Hawaii Biological Survey for 2008. Edited by Neal L. Evenhuis & Lucius G. Eldredge. Bishop Museum Occasional Papers 108: 1–34 (2010) Taxonomic relationships within the endemic Hawaiian Drosophilidae (Insecta: Diptera) P.M. O’Grady, K.N. MaGNacca & r.T. LaPOiNT (University of california, Berkeley, department of Environmental Science, Policy & Management, 117 Hilgard Hall, Berkeley, california 94720, USa; email: [email protected]) The Hawaiian drosophilidae are an incredibly diverse group which currently consists of 559 described species and several hundred species that are known, yet await description (Kane - shiro, 1997; O’Grady, 2002). Early morphological studies identified two main groups of Hawaiian drosophilidae, the “drosophiloids” and the “scaptomyzoids” (Throckmorton, 1966), all the members of which are now referred to as Hawaiian Drosophila and Scapto- myza, respectively. although one morphological study suggests that these two lineages are not closely related (Grimaldi, 1990), all other analyses to date support the monophyly of the Hawaiian drosophilidae (deSalle, 1992; Thomas & Hunt, 1993; O’Grady, 1998; remsen & deSalle, 1998; remsen & O’Grady, 2002). Furthermore, comprehensive sampling within Scaptomyza suggests that the continental members of this genus are derived from the Hawaiian taxa (O’Grady & deSalle, 2008). The Hawaiian Drosophila lineage was initially composed of members of the genus Drosophila endemic to Hawai‘i, as well as several endemic Hawaiian genera including Nudidrosophila, Antopocerus, and Ateledrosophila. These three genera were subsequently synonymized with Drosophila and are now considered to be of species group rank within a larger clade of endemic Hawaiian Drosophila (Kaneshiro, 1976). The Hawaiian Drosophila are currently divided into the following species groups (Table 1), based on morphological characters: antopocerus, ateledrosophila, haleakalae, picture wing, modified mouthpart, modified tarsus, nudidrosophila, and rustica. -
Chromosomal Inversions and the Reproductive Isolation of Species
Chromosomal inversions and the reproductive isolation of species Mohamed A. F. Noor*, Katherine L. Grams, Lisa A. Bertucci, and Jane Reiland Department of Biological Sciences, Life Sciences Building, Louisiana State University, Baton Rouge, LA 70803 Edited by Wyatt W. Anderson, University of Georgia, Athens, GA, and approved August 15, 2001 (received for review June 1, 2001) Recent genetic studies have suggested that many genes contribute sophila persimilis. These species differ by several inversions (see to differences between closely related species that prevent gene Materials and Methods). The two species hybridize, albeit rarely, exchange, particularly hybrid male sterility and female species in nature, and gene flow has been detected at the sequence level preferences. We have examined the genetic basis of hybrid sterility (15, 16). Natural selection seems to have strengthened the and female species preferences in Drosophila pseudoobscura and mate discrimination exercised by these females to prevent mal- Drosophila persimilis, two occasionally hybridizing North American adaptive hybridization (17), because hybrid male offspring are species. Contrary to findings in other species groups, very few sterile. These species seem to have separated initially before regions of the genome were associated with these characters, and the split between the D. melanogaster races or the split be- these regions are associated also with fixed arrangement differ- tween D. simulans and D. mauritiana; thus genetic divergence ences (inversions) between these species. From our results, we between them should be greater on average in the absence of propose a preliminary genic model whereby inversions may con- introgression. tribute to the speciation process, thereby explaining the abun- Previous studies of these species have identified the genetic dance of arrangement differences between closely related species basis of their differences in cuticular hydrocarbon profile (18) that co-occur geographically. -
Chromosomal Inversion Patterning and Population Differentiation in A
Proc. Nati. Acad. Sci. USA Vol. 86, pp. 4798-4802, June 1989 Population Biology Chromosomal inversion patterning and population differentiation in a young insular species, Drosophila silvestris (genetic polymorphism/hierarchical F statistics/Hawaiian Drosophila evolution/microgeographic variation) ELYSSE M. CRADDOCK* AND HAMPTON L. CARSONt *Division of Natural Sciences, State University of New York, Purchase, NY 10577; and tDepartment of Genetics, University of Hawaii, Honolulu, HI 96822 Contributed by Hampton L. Carson, March 31, 1989 ABSTRACT The recently evolved Hawaiian species Dro- genes into balanced coadapted complexes via such chromo- sophila silvestris has a subdivided population structure and somal arrangements may permit the evolution of genetic shows great spatial heterogeneity in chromosome inversion interaction systems and an enhancement of overall fitness. distributions and frequencies within its extremely limited geo- Such a process can be presumed to have taken place in D. graphic range. Pattern analysis of the 11 chromosomal poly- silvestris as each successive new inversion arose and became morphisms in the context of the recently discovered morpho- incorporated into a local population. logical and behavioral divergence within the species has eluci- Within the island, D. silvestris has been subdivided into dated the history of the chromosomal differentiation. We two regionally disjunct sets of populations that show behav- identify four chronological groups of inversions and their ioral and morphological differences (8). To the west and probable sites of origin. Spread of the derived "3-row" bristle south ("Kona side"), the populations give evidence of being morphotype on the Hilo side of the Island of Hawaii has been phylogenetically older than those of the "Hilo side" to the accompanied by the acquisition of six new inversion polymor- north and east (7, 9). -
A Database of Wing Diversity in the Hawaiian Drosophila Kevin A
Illinois State University ISU ReD: Research and eData Faculty Publications – Biological Sciences Biological Sciences 5-2007 A Database of Wing Diversity in the Hawaiian Drosophila Kevin A. Edwards Illinois State University Linden T. Doescher University of Hawaii at Manoa Kenneth Y. Kaneshiro University of Hawaii at Manoa Daisuke Yamamoto Tohoku University Follow this and additional works at: https://ir.library.illinoisstate.edu/fpbiosci Part of the Biology Commons Recommended Citation Edwards, Kevin A.; Doescher, Linden T.; Kaneshiro, Kenneth Y.; and Yamamoto, Daisuke, "A Database of Wing Diversity in the Hawaiian Drosophila" (2007). Faculty Publications – Biological Sciences. 10. https://ir.library.illinoisstate.edu/fpbiosci/10 This Article is brought to you for free and open access by the Biological Sciences at ISU ReD: Research and eData. It has been accepted for inclusion in Faculty Publications – Biological Sciences by an authorized administrator of ISU ReD: Research and eData. For more information, please contact [email protected]. A Database of Wing Diversity in the Hawaiian Drosophila Kevin A. Edwards1*, Linden T. Doescher2, Kenneth Y. Kaneshiro2, Daisuke Yamamoto3 1 Department of Biological Sciences, Illinois State University, Normal, Illinois, United States of America, 2 Center for Conservation Research and Training, University of Hawaii at Manoa, Honolulu, Hawaii, United States of America, 3 Graduate School of Life Sciences, Tohoku University, Sendai, Japan Background. Within genus Drosophila, the endemic Hawaiian species offer some of the most dramatic examples of morphological and behavioral evolution. The advent of the Drosophila grimshawi genome sequence permits genes of interest to be readily cloned from any of the hundreds of species of Hawaiian Drosophila, offering a powerful comparative approach to defining molecular mechanisms of species evolution. -
Adult Age and Breeding Structure of a Hawaiian Drosophila Silvestris (Diptera: Drosophilidae) Population Assessed Via Female Reproductive Status1
Pacific Science (1998), vol. 52, no. 3: 197-209 © 1998 by University of Hawai'i Press. All rights reserved Adult Age and Breeding Structure of a Hawaiian Drosophila silvestris (Diptera: Drosophilidae) Population Assessed via Female Reproductive Status1 ELYSSE M. CRADDOCK 2 AND WALLACE DOMINEy 3 ABSTRACT: The Upper 'Ola'a Forest population of Drosophila silvestris, a dipteran species endemic to the island of Hawai'i, was studied to investigate adult age and breeding structure of this natural population. Analyses of in semination status and ovarian developmental stage were carried out for both laboratory-reared and field-collected females, including a sample of F 1 in dividuals that had been marked and released into the field population shortly after adult eclosion. Marked females were recaptured from 7 days old to more than 4 months after· release; this sample included representatives of all seven ovarian developmental stages scored (from early previtellogenesis to fully mature ovaries). The profile of female reproductive maturation in the field flies was similar to that in laboratory-reared flies, except that developmental rates were substantially slower and more variable in the natural population, largely because of lower field temperatures. Using information on ages and ovarian condition of the marked females, an independent population sample of wild caught adult females was estimated to include 28% young flies approximately 2 to 3 weeks old (ovaries previtellogenic), 37% maturing flies from 2 to 4 or more weeks old (vitellogenic ovaries), and 35% reproductively mature flies from 1 to more than 4 months old. The unexpected excess of young flies in the adult population up to 4 or 5 weeks old (65%) can be interpreted by several alterna tive hypotheses (e.g., age-related dispersal, predation, location of suitable breeding substrates, baiting effects), but further studies are required to confirm whether this age pattern is typical. -
A New Drosophila Spliceosomal Intron Position Is Common in Plants
A new Drosophila spliceosomal intron position is common in plants Rosa Tarrı´o*†, Francisco Rodrı´guez-Trelles*‡, and Francisco J. Ayala*§ *Department of Ecology and Evolutionary Biology, University of California, Irvine, CA 92697-2525; †Misio´n Biolo´gica de Galicia, Consejo Superior de Investigaciones Cientı´ficas,Apartado 28, 36080 Pontevedra, Spain; and ‡Unidad de Medicina Molecular-INGO, Hospital Clı´nicoUniversitario, Universidad de Santiago de Compostela, 15706 Santiago, Spain Contributed by Francisco J. Ayala, April 3, 2003 The 25-year-old debate about the origin of introns between pro- evolutionary scenarios (refs. 2 and 9, but see ref. 6). In addition, ponents of ‘‘introns early’’ and ‘‘introns late’’ has yielded signifi- IL advocates now acknowledge intron sliding as a real evolu- cant advances, yet important questions remain to be ascertained. tionary phenomenon even though it is uncommon (10, 11) and, One question concerns the density of introns in the last common in most cases, implicates just one nucleotide base-pair slide ancestor of the three multicellular kingdoms. Approaches to this (12–14). IL supporters now tend to view spliceosomal introns as issue thus far have relied on counts of the numbers of identical genomic parasites that have been co-opted into many essential intron positions across present-day taxa on the assumption that functions such that few, if any, eukaryotes could survive without the introns at those sites are orthologous. However, dismissing them (2). parallel intron gain for those sites may be unwarranted, because In this emerging scenario, IE upholders claim that the last various factors can potentially constrain the site of intron insertion.