Mitochondrial Pseudogenes in Insect DNA Barcoding: Differing Points of View on the Same Issue
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University of Gent Faculty of Science Department Nematology Academic Year 2014-2015 BIODIVERSITY ASSESSMENT of MARINE SEDIMENTS
University of Gent Faculty of Science Department Nematology Academic year 2014-2015 BIODIVERSITY ASSESSMENT OF MARINE SEDIMENTS THROUGH DNA BARCODING Xorla Kanfra Promoter: Dr. Sofie Derycke Literature review submitted in partial Co-promoter: Dr. Katja Guilini fulfillment for a degree in Master of Supervisor: Dr. Sofie Derycke Science in Nematology Table of Contents 1 Introduction ................................................................................................................................. 1 1.1 Marine nematode biodiversity ............................................................................................. 1 1.2 Dispersal in nematodes ........................................................................................................ 2 1.3 Nematode taxonomy ............................................................................................................ 4 1.4 Taxonomy: Traditional and molecular approaches ............................................................ 5 1.5 Molecular markers for systematics and identification of marine nematodes ...................... 8 1.5.1 Nuclear genes .......................................................................................................... 9 1.5.2 Mitochondrial genes .............................................................................................. 11 1.6 The DNA barcoding approach ........................................................................................... 12 1.6.1 Application of DNA barcoding: Environmental metagenetics -
Butterfly Checklist 08
Family Hesperiwidae (Skippers) Subfamily Hesperiinae (Grass Skippers) Subfamily Pyrginae (Spread-wing Skippers) ____Julia’s Skipper Nastra julia ____ Guava Skipper Phocides polbius ____Pale-rayed Skipper Vidius perigenes ____Mercurial Skipper Proteides mercurius ____Fawn-spotted Skipper Cymaenes odilia ____White-striped Longtail Chioides catillus ____Clouded Skipper Lerema accius ____Zilpa Longtail Chioides zilpa ____Orange Skipperling Copaeodes aurantiacia ____Long-tailed Skipper Urbanus proteus ____Southern Skipperling Copaeodes minima ____Teleus Longtail Urbanus teleus ____Fiery Skipper Hylephila phyleus ) ____Brown Longtail Urbanus procne ____Whirlabout Polites vibex ____ Dorantes Longtail Urbanus dorantes ____Southern Broken-Dash Wallengrenia otho ____Coyote Cloudywing Achalarus toxeus ____Sachem Atalopedes campestris ____Mimosa Skipper Cogia calchas ____Celia's Roadside-Skipper Amblyscirtes celia ____Potrillo Skipper Cabares potrillo ____Nysa Roadside-Skipper Amblyscirtes nyhsa ____Two-barred Flasher Astraptes fulgerator ____Dun Skipper Euphyes vestries ____Glazed Pellicia Pellicia arina ____Eufala Skipper Lerodea eufala ____Olive-clouded Skipper Lerodea arabus ____Mazans Scallopwing Staphylus mazans ____Texas Powdered Skipper Systasea pulverulenta ____Brazilian Skipper Calpodes ethlius ____Sickle-winged Skipper Eantis tamenund ____Obscure Skipper Panoquina panoquinoides ____Brown-banded Skipper Timochares ruptifasciatus ____Ocola Skipper Panoquina ocola ____White-patched Skipper Chiomara georgina ____Purple-washed Skipper Panoquina -
A Revision of the Genus Callip Tamus Serville (Orthoptera : Acrididae)
.- e V A REVISION OF THE GENUS CALLIP TAMUS SERVILLE (ORTHOPTERA : ACRIDIDAE) BY N. D. JAGO Univenity of Ghana. Accra Pp. 287-350; 26 Text-jigtcres BULLETIN OF THE BRISISH MUSEUM (NATURAL HISSORY) ENSOMOLOGY Vol. 13 No. 9 LONDON: 1963 THE BULLETIS OF THE BRITISH BIUSEUM (NATURAL HISTORY), institrited in 1949, is isszted iit jizte series, correspondillg to the Departments of the Alirsezm, niid mz Historicnl series. Parts Lcill appear nt irregzrlnr iiitervals as they become retidy. Volimes vil1 coiztaiit aboitt three OY fow htcndred pnges, nitd will not itecessnrily be cmnpleted withilz o.ne cnlenhr year. Tltis paper is Vol. 13, Xo. g of the Entomological series. The nbbreviated titles ojperiodicals cited follou those of tka WorId List of Scientijic Periodicals. 0 Trrictees o[ the British Miiseuni 196.3 PRINTED BY ORDER OF THE TRUSTEES OF THE BRITISH iMUSEUM ~sslldj1 .\I(Z)' 196.3 Price Ti;w+v-tz;.o Sltillings A REVISION OF THE GENUS CALLIP TAMUS SERVILLE (ORTHOPTERA : ACRIDIDAE) By N. D. JAGO CONTENTS Page INTRODUCTION . 289 MATERIAL . 292 TREATMENT 294 ACKXOWLEDGEMENTC. * 294 KEY TO THE GENERA OF THE SUBFAMILY CALLIPTAMINAE . 295 CALLIPTAMUSServille, 1831 . 29s SYNOPSIS The trans-Palaearctic genus Callipíamus Serville is revised, thirteen species now being included in the genus. The genus consists of two main elements, a northern temperate group of four species and a southern ternperate group of nine. The genus Metromerus Uvarov is synonymized with Calliptamus. A provisional key to genera in the sub-family Calliptaminae has been drawn up, together with keys to species and subspecies in the genus Cailiptamus. Observations are given on polymorphism in the genus, geographical vanation, and posible correlation of variation with climatic factors. -
A Simple 2D Non-Parametric Resampling Statistical Approach To
A Simple 2D Non-Parametric Resampling Statistical Approach to Assess Confidence in Species Identification in DNA Barcoding—An Alternative to Likelihood and Bayesian Approaches Qian Jin1, Li-Jun He2, Ai-Bing Zhang1* 1 College of Life Sciences, Capital Normal University, Beijing, P. R. China, 2 State Key Laboratory of Estuarine and Coastal Research, East China Normal University, Shanghai, P. R. China Abstract In the recent worldwide campaign for the global biodiversity inventory via DNA barcoding, a simple and easily used measure of confidence for assigning sequences to species in DNA barcoding has not been established so far, although the likelihood ratio test and the Bayesian approach had been proposed to address this issue from a statistical point of view. The TDR (Two Dimensional non-parametric Resampling) measure newly proposed in this study offers users a simple and easy approach to evaluate the confidence of species membership in DNA barcoding projects. We assessed the validity and robustness of the TDR approach using datasets simulated under coalescent models, and an empirical dataset, and found that TDR measure is very robust in assessing species membership of DNA barcoding. In contrast to the likelihood ratio test and Bayesian approach, the TDR method stands out due to simplicity in both concepts and calculations, with little in the way of restrictive population genetic assumptions. To implement this approach we have developed a computer program package (TDR1.0beta) freely available from ftp://202.204.209.200/education/video/TDR1.0beta.rar. Citation: Jin Q, He L-J, Zhang A-B (2012) A Simple 2D Non-Parametric Resampling Statistical Approach to Assess Confidence in Species Identification in DNA Barcoding—An Alternative to Likelihood and Bayesian Approaches. -
An Inventory of Short Horn Grasshoppers in the Menoua Division, West Region of Cameroon
AGRICULTURE AND BIOLOGY JOURNAL OF NORTH AMERICA ISSN Print: 2151-7517, ISSN Online: 2151-7525, doi:10.5251/abjna.2013.4.3.291.299 © 2013, ScienceHuβ, http://www.scihub.org/ABJNA An inventory of short horn grasshoppers in the Menoua Division, West Region of Cameroon Seino RA1, Dongmo TI1, Ghogomu RT2, Kekeunou S3, Chifon RN1, Manjeli Y4 1Laboratory of Applied Ecology (LABEA), Department of Animal Biology, Faculty of Science, University of Dschang, P.O. Box 353 Dschang, Cameroon, 2Department of Plant Protection, Faculty of Agriculture and Agronomic Sciences (FASA), University of Dschang, P.O. Box 222, Dschang, Cameroon. 3 Département de Biologie et Physiologie Animale, Faculté des Sciences, Université de Yaoundé 1, Cameroun 4 Department of Biotechnology and Animal Production, Faculty of Agriculture and Agronomic Sciences (FASA), University of Dschang, P.O. Box 222, Dschang, Cameroon. ABSTRACT The present study was carried out as a first documentation of short horn grasshoppers in the Menoua Division of Cameroon. A total of 1587 specimens were collected from six sites i.e. Dschang (265), Fokoue (253), Fongo – Tongo (267), Nkong – Ni (271), Penka Michel (268) and Santchou (263). Identification of these grasshoppers showed 28 species that included 22 Acrididae and 6 Pyrgomorphidae. The Acrididae belonged to 8 subfamilies (Acridinae, Catantopinae, Cyrtacanthacridinae, Eyprepocnemidinae, Oedipodinae, Oxyinae, Spathosterninae and Tropidopolinae) while the Pyrgomorphidae belonged to only one subfamily (Pyrgomorphinae). The Catantopinae (Acrididae) showed the highest number of species while Oxyinae, Spathosterninae and Tropidopolinae showed only one species each. Ten Acrididae species (Acanthacris ruficornis, Anacatantops sp, Catantops melanostictus, Coryphosima stenoptera, Cyrtacanthacris aeruginosa, Eyprepocnemis noxia, Gastrimargus africanus, Heteropternis sp, Ornithacris turbida, and Trilophidia conturbata ) and one Pyrgomorphidae (Zonocerus variegatus) were collected in all the six sites. -
Review of Literature
Chapter 2: REVIEW OF LITERATURE Lepidoptera being astonishingly beautiful insects had grabbed attention long back. The systematic study of moths traces back to 18th century when Carl Linnaeus described them in ‘Systema Nature’(Linnaeus, 1758). Since then, there has been extensive research carried out on moths. Catalogue of Lepidoptera given by Hübner, in 1786 was one of the earliest detailed records of moth. In 1829, Stephens published Catalogue of Lepidoptera of Palearctic region. Boisduval (1833, 1840) studied lepidopterous fauna of Madagascar and Europe. Further, Duponchel (1844) described classification of Lepidoptera of Europe. Elaborate studies by Swinhoe (1884, 1885, 1886, 1888) were done in British India. He studied lepidoptera from Kurachee in 1884, from Bombay (Mumbai) and Deccan in 1885, Central India (Mhow) in 1886, Karachi and its neighbourhood in 1888. In 1889, he published his observations on Heterocera from India (Swinhoe, 1889). He also enlisted lepidopterans from Khasia Hills (Swinhoe, 1893). In 1890, Smith gave his contributions of Noctuid moths from temperate North America. He also revised genus Agrotis. Tams in 1924 enlisted moths from Siam. Further, in 1930 he described new African moths from collection of British Museum. In 1935, he described Samoan insects. Wiltshire in 1936 described new noctuid species from zoological collection of Dr. Z Kasab in Mangolia. In 1939, Ellison & Wiltshire described seasonal distribution of Lepidopteran fauna from Lebanon. Wiltshire (1946a and 1946b) studied new species and two new races from Iran along with some middle east migrants their phenology and ecology. Further, in 1947 he studied lepidoptera from Middle East. Viette in (1948a and 1948b) described Pacific region lepidopterans and studied male genitalia morphology. -
From Field Courses to DNA Barcoding Data Release for West Papua - Making Specimens and Identifications from University Courses More Sustainable
Biodiversity Data Journal 6: e25237 doi: 10.3897/BDJ.6.e25237 Short Communications From field courses to DNA barcoding data release for West Papua - making specimens and identifications from university courses more sustainable Bruno Cancian de Araujo‡, Stefan Schmidt‡‡, Olga Schmidt , Thomas von Rintelen§, Agustinus Kilmaskossu|, Rawati Panjaitan|, Michael Balke ‡ ‡ SNSB-Zoologische Staatssammlung München, Munich, Germany § Museum für Naturkunde, Leibniz-Institut für Evolutions- und Biodiversitätsforschung, Berlin, Germany | Department of Biology, Faculty of Sciences and Mathematics, State University of Papua (UNIPA), Jalan Gunung Salju Amban, Manokwari, Indonesia Corresponding author: Bruno Cancian de Araujo ([email protected]) Academic editor: Dmitry Schigel Received: 23 Mar 2018 | Accepted: 29 May 2018 | Published: 05 Jun 2018 Citation: Cancian de Araujo B, Schmidt S, Schmidt O, von Rintelen T, Kilmaskossu A, Panjaitan R, Balke M () From field courses to DNA barcoding data release for West Papua - making specimens and identifications from university courses more sustainable. https://doi.org/ ZooBank: urn:lsid:zoobank.org:pub:FC529346-029B-49FE-8E23-B2483CB61D4B Abstract The diversity of insects collected during entomological field courses at the University of West Papua (UNIPA), Indonesia, is studied using DNA barcoding tools. The results were compared with public data available for West Papua in the Barcode of Life Data System. During two training courses in 2013 and 2015, 1,052 specimens of insects were collected at eight sites near Manokwari in northern West Papua. The DNA sequences obtained from these specimens were assigned to 311 Barcode Index Numbers (BINs) and represent species in 27 families of Lepidoptera, Hymenoptera and Coleoptera. Of those BINs, 294 (95%) were new to West Papua. -
Annotated Checklist of the Butterflies of Bentsen-Rio Grande Valley State
AN ANNOTATED CHECKLIST OF THE BUTTERFLIES (LEPIDOPTERA: RHOPALOCERA) OF BENTSEN-RIO GRANDE STATE VALLEY PARK AND VICINITY JUNE, 1974 Published by TEXAS PARKS & WILDLIFE DEPARTMENT BENTSEN-RIO GRANDE VALLEY STATE PARK P.O. 30X 988; MISSION, TEXAS 78572 INTRODUCTION The species listed here in are primarily a result of the collecting by the authors during the period 1972-1973. Certain important records of the previous several years are also included. Additionally, the checklist incorporates records of a number of other lepidopterists. The primary focus of the checklist, then, is upon recent collecting, rather than being an attempt to list all known records from the Mid-Valley area. All lepidopterists collecting in the park and vicinity are urged to send copies of their records to the authors and/or the park authorities. A number of species on the list have been taken in Hidalgo Co. but not yet within the actual confines of the park; the annotations will indicate which species these are. Some of these have been taken at Santa Ana National Wildlife Refuge, approximately thirty miles down river, in habitats similar to those within the park. Others have been taken within several miles of the park, in nearby towns and along roadsides. These species can be reasonably expected to occur in the park, and their inclusion upon this list should alert the collector to their possible presence. The annotations have been kept necessarily brief. They are intended to aid the visiting lepidopterist in evaluating the significance of his catches. Local larval food plants are given where known. Much, however, is still to be learned regarding the life histories of even some of the commoner species. -
Lepidoptera, Nymphalidae, Biblidinae) and Patterns of Morphological Similarity Among Species from Eight Tribes of Nymphalidae
Revista Brasileira de Entomologia http://dx.doi.org/10.1590/S0085-56262013005000006 External morphology of the adult of Dynamine postverta (Cramer) (Lepidoptera, Nymphalidae, Biblidinae) and patterns of morphological similarity among species from eight tribes of Nymphalidae Luis Anderson Ribeiro Leite1,2, Mirna Martins Casagrande1,3 & Olaf Hermann Hendrik Mielke1,4 1Departamento de Zoologia, Setor de Ciências Biológicas, Universidade Federal do Paraná, Caixa Postal 19020, 81531–980 Curitiba-PR, Brasil. [email protected], [email protected], [email protected] ABSTRACT. External morphology of the adult of Dynamine postverta (Cramer) (Lepidoptera, Nymphalidae, Biblidinae) and patterns of morphological similarity among species from eight tribes of Nymphalidae. The external structure of the integument of Dynamine postverta postverta (Cramer, 1779) is based on detailed morphological drawings and scanning electron microscopy. The data are compared with other species belonging to eight tribes of Nymphalidae, to assist future studies on the taxonomy and systematics of Neotropical Biblidinae. KEYWORDS. Abdomen; head; Insecta; morphology; Papilionoidea; thorax. Nymphalidae is a large cosmopolitan family of butter- served in dorsal view (Figs. 1–4). Two subspecies are recog- flies, with about 7,200 described species (Freitas & Brown nized according to Lamas (2004), Dynamine postverta Jr. 2004) and is perhaps the most well documented biologi- postverta (Cramer, 1779) distributed in South America and cally (Harvey 1991; Freitas & Brown Jr. 2004; Wahlberg et Dynamine postverta mexicana d’Almeida, 1952 with a dis- al. 2005). The systematic relationships are still somewhat tribution restricted to Central America. Several species sur- unclear with respect to its subfamilies, tribes and genera, and veys and other studies cite this species as Dynamine mylitta even after more than a century of studies on these groups, (DeVries 1987; Mielke 1994; Miller et al.1999; Freitas & these relationships still seem to confuse many who set out to Brown, Jr. -
(Orthoptera, Caelifera, Acrididae) on the Subfamily Level Using Molecular Markers
e-ISSN 1734-9168 Folia Biologica (Kraków), vol. 67 (2019), No 3 http://www.isez.pan.krakow.pl/en/folia-biologica.html https://doi.org/10.3409/fb_67-3.12 The Evaluation of Genetic Relationships within Acridid Grasshoppers (Orthoptera, Caelifera, Acrididae) on the Subfamily Level Using Molecular Markers Igor SUKHIKH , Kirill USTYANTSEV , Alexander BUGROV, Michael SERGEEV, Victor FET, and Alexander BLINOV Accepted August 20, 2019 Published online September 11, 2019 Issue online September 30, 2019 Original article SUKHIKH I., USTYANTSEV K., BUGROV A., SERGEEV M., FET V., BLINOV A. 2019. The evaluation of genetic relationships within Acridid grasshoppers (Orthoptera, Caelifera, Acrididae) on the subfamily level using molecular markers. Folia Biologica (Kraków) 67: 119-126. Over the last few decades, molecular markers have been extensively used to study phylogeny, population dynamics, and genome mapping in insects and other taxa. Phylogenetic methods using DNA markers are inexpensive, fast and simple to use, and may help greatly to resolve phylogenetic relationships in groups with problematic taxonomy. However, different markers have various levels of phylogenetic resolution, and it’s important to choose the right set of molecular markers for a studied taxonomy level. Acrididae is the most diverse family of grasshoppers. Many attempts to resolve the phylogenetic relationships within it did not result in a clear picture, partially because of the limited number of molecular markers used. We have tested a phylogenetic resolution of three sets of the most commonly utilized mitochondrial molecular markers available for Acrididae sequences in the database: (i) complete protein-coding mitochondrial sequences, (ii) concatenated mitochondrial genes COI, COII, and Cytb, and (iii) concatenated mitochondrial genes COI and COII. -
Developing Biodiverse Green Roofs for Japan: Arthropod and Colonizer Plant Diversity on Harappa and Biotope Roofs
20182018 Green RoofsUrban and Naturalist Urban Biodiversity SpecialSpecial Issue No. Issue 1:16–38 No. 1 A. Nagase, Y. Yamada, T. Aoki, and M. Nomura URBAN NATURALIST Developing Biodiverse Green Roofs for Japan: Arthropod and Colonizer Plant Diversity on Harappa and Biotope Roofs Ayako Nagase1,*, Yoriyuki Yamada2, Tadataka Aoki2, and Masashi Nomura3 Abstract - Urban biodiversity is an important ecological goal that drives green-roof in- stallation. We studied 2 kinds of green roofs designed to optimize biodiversity benefits: the Harappa (extensive) roof and the Biotope (intensive) roof. The Harappa roof mimics vacant-lot vegetation. It is relatively inexpensive, is made from recycled materials, and features community participation in the processes of design, construction, and mainte- nance. The Biotope roof includes mainly native and host plant species for arthropods, as well as water features and stones to create a wide range of habitats. This study is the first to showcase the Harappa roof and to compare biodiversity on Harappa and Biotope roofs. Arthropod species richness was significantly greater on the Biotope roof. The Harappa roof had dynamic seasonal changes in vegetation and mainly provided habitats for grassland fauna. In contrast, the Biotope roof provided stable habitats for various arthropods. Herein, we outline a set of testable hypotheses for future comparison of these different types of green roofs aimed at supporting urban biodiversity. Introduction Rapid urban growth and associated anthropogenic environmental change have been identified as major threats to biodiversity at a global scale (Grimm et al. 2008, Güneralp and Seto 2013). Green roofs can partially compensate for the loss of green areas by replacing impervious rooftop surfaces and thus, contribute to urban biodiversity (Brenneisen 2006). -
Orthopteran Diversity of the Cowling Arboretum and Mcknight Prairie In
Orthopteran Diversity of the Cowling Arboretum and McKnight Prairie in Northfield, MN Alexander Forde Elisabeth Sederberg and Mark McKone 5 McKnight Prairie Carleton College. Northfield, MN Arb Prairie 4 Restorations Results and 3 Discussion A. The 2006 Orthoptera biodiversity survey for the Cowling Arboretum and Figure 1. Examples of per trap 2 McKnight Prairie found a total of 36 unique species across both sites Orthopterans from various (Figure 3). 29 species were collected at the arboretum while 20 species were C. taxonomic groups: 1 collected at McKnight Prairie. The higher absolute species number at the Average number of subfamilies arboretum can be mostly attributed to a greater number of katydid species A. a grasshopper (Acrididae) found there compared to McKnight. This difference in katydid diversity B. a katydid (Tettigonidae) 0 makes sense, since Tettigonids prefer more forested habitats (Capinera, 2004), C. a cricket (Gryllidae) of which there are none at McKnight. The Gryllidae and Acrididae identified were more consistent between locations, in terms of the absolute number of Figure 5. Average number of species in the groups, though there were important differences in the different groups of Orthopteran particular species represented within these families. taxa (shown in Figure 4) per trap In the pitfall trap experiment, there were significantly more Gomphocerinae B. at McKnight Prairie and the (U=30, P =0.002), and Raphidophoridae (U=43, P =0.037) observed per trap arboretum prairie restorations. at McKnight (Figure 4). The average number of Oecanthinae per trap was higher for the arboretum (U=49.5, P =0.088) and the average number of Error bars represent ± standard Oedipodinae was higher for McKnight (U=54, P =0.07), though these error relationships were only marginally significant (Figure 4).