Descriptions of Late Instars of Three Littoral Cafius Species (Coleoptera
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
Asymmetric Hindwing Foldings in Rove Beetles
Asymmetric hindwing foldings in rove beetles Kazuya Saitoa,1, Shuhei Yamamotob, Munetoshi Maruyamac, and Yoji Okabea aInstitute of Industrial Science, University of Tokyo, Tokyo 153-8505, Japan; bGraduate School of Bioresource and Bioenvironmental Sciences, Kyushu University, Fukuoka 812-8581, Japan; and cThe Kyushu University Museum, Fukuoka 812-8581, Japan Edited by May R. Berenbaum, University of Illinois at Urbana–Champaign, Urbana, IL, and approved October 13, 2014 (received for review May 23, 2014) Foldable wings of insects are the ultimate deployable structures storage space (with some minor exceptions in soil- and cave- and have attracted the interest of aerospace engineering scientists dwelling species). The strategy is achieved by their extraordinary as well as entomologists. Rove beetles are known to fold their right–left asymmetric wing folding. As a result, rove beetles be- wings in the most sophisticated ways that have right–left asym- came highly diverse group, such that they account for 15% (i.e., metric patterns. However, the specific folding process and the rea- nearly 60,000 species) of all known species of Coleoptera. son for this asymmetry remain unclear. This study reveals how Despite the great potential of the process for engineering these asymmetric patterns emerge as a result of the folding pro- applications, few studies have been undertaken revealing the cess of rove beetles. A high-speed camera was used to reveal the details of this asymmetric wing folding. The wings of a rove beetle details of the wing-folding movement. The results show that these have two different crease patterns, but previous studies have characteristic asymmetrical patterns emerge as a result of simulta- described only one side. -
The Beetle Fauna of Dominica, Lesser Antilles (Insecta: Coleoptera): Diversity and Distribution
INSECTA MUNDI, Vol. 20, No. 3-4, September-December, 2006 165 The beetle fauna of Dominica, Lesser Antilles (Insecta: Coleoptera): Diversity and distribution Stewart B. Peck Department of Biology, Carleton University, 1125 Colonel By Drive, Ottawa, Ontario K1S 5B6, Canada stewart_peck@carleton. ca Abstract. The beetle fauna of the island of Dominica is summarized. It is presently known to contain 269 genera, and 361 species (in 42 families), of which 347 are named at a species level. Of these, 62 species are endemic to the island. The other naturally occurring species number 262, and another 23 species are of such wide distribution that they have probably been accidentally introduced and distributed, at least in part, by human activities. Undoubtedly, the actual numbers of species on Dominica are many times higher than now reported. This highlights the poor level of knowledge of the beetles of Dominica and the Lesser Antilles in general. Of the species known to occur elsewhere, the largest numbers are shared with neighboring Guadeloupe (201), and then with South America (126), Puerto Rico (113), Cuba (107), and Mexico-Central America (108). The Antillean island chain probably represents the main avenue of natural overwater dispersal via intermediate stepping-stone islands. The distributional patterns of the species shared with Dominica and elsewhere in the Caribbean suggest stages in a dynamic taxon cycle of species origin, range expansion, distribution contraction, and re-speciation. Introduction windward (eastern) side (with an average of 250 mm of rain annually). Rainfall is heavy and varies season- The islands of the West Indies are increasingly ally, with the dry season from mid-January to mid- recognized as a hotspot for species biodiversity June and the rainy season from mid-June to mid- (Myers et al. -
The First New Zealand Insects Collected on Cook's
Pacific Science (1989), vol.43, 43, nono.. 1 © 1989 by UniversityUniversity of Hawaii Press.Pres s. All rights reserved TheThe First New Zealand Zealand InsectsInsects CollectedCollectedon Cook'sCook's Endeavour Voyage!Voyage! 2 J. R. H. AANDREWSNDREWS2 AND G.G . W. GIBBSGmBS ABSTRACT:ABSTRACT: The Banks collection of 40 insect species, species, described by J. J. C.C. Fabricius in 1775,1775, is critically examined to explore the possible methods of collection and to document changesto the inseinsectct fauna andto the original collection localities sincsincee 1769.The1769. The aassemblagessemblageof species is is regarded as unusual. unusual. It includes insects that are large large and colorful as well as those that are small and cryptic;cryptic; some species that were probably common were overlooked, but others that are today rare were taken.taken. It is concluded that the Cook naturalists caught about 15species with a butterfly net, but that the majority (all CoColeoptera)leoptera) were discoveredin conjunction with other biobiologicallogical specimens, especially plantsplants.. PossibPossiblele reasons for the omission ofwetwetasas,, stick insects, insects, etc.,etc., are discussed. discussed. This early collection shows that marked changesin abundance may have occurred in some speciespeciess since European colonizationcolonization.. One newrecord is is revealed:revealed: The cicada NotopsaltaNotopsaltasericea sericea (Walker) was found to be among the Fabricius specispeci mens from New Zealand,Zealand, but itsits description evidentlyevidently -
The First Fossil Rove Beetle from the Middle Eocene Kishenehn Formation
TJSP_A_1266402.3d (TJSP) (215£280mm) 28-12-2016 20:43 Queries are marked in the margins of the proofs, and you can also click the hyperlinks below. AUTHOR QUERIES General points: 1. Permissions: You have warranted that you have secured the necessary written permission from the appropriate copyright owner for the reproduction of any text, illustration, or other material in your article. Please see http://journalauthors.tandf.co.uk/ permissions/usingThirdPartyMaterial.asp. 2. Third-party content: If there is third-party content in your article, please check that the rightsholder details for re-use are shown correctly. 3. Affiliation: The corresponding author is responsible for ensuring that address and email details are correct for all the co-authors. Affiliations given in the article should be the affiliation at the time the research was conducted. Please see http://journalauthors. tandf.co.uk/preparation/writing.asp. 4. Funding: Was your research for this article funded by a funding agency? If so, please insert ‘This work was supported by <insert the name of the funding agency in full>’, followed by the grant number in square brackets ‘[grant number xxxx]’. 5. Supplemental data and underlying research materials: Do you wish to include the location of the underlying research materials (e.g. data, samples or models) for your article? If so, please insert this sentence before the reference section: ‘The underlying research materials for this article can be accessed at <full link>/ description of location [author to complete]’. If your article includes supplemental data, the link will also be provided in this paragraph. See <http://journalauthors.tandf.co.uk/preparation/multimedia.asp> for further explanation of supplemen- tal data and underlying research materials. -
Asymmetric Hindwing Foldings in Rove Beetles
Asymmetric hindwing foldings in rove beetles Kazuya Saitoa,1, Shuhei Yamamotob, Munetoshi Maruyamac, and Yoji Okabea aInstitute of Industrial Science, University of Tokyo, Tokyo 153-8505, Japan; bGraduate School of Bioresource and Bioenvironmental Sciences, Kyushu University, Fukuoka 812-8581, Japan; and cThe Kyushu University Museum, Fukuoka 812-8581, Japan Edited by May R. Berenbaum, University of Illinois at Urbana–Champaign, Urbana, IL, and approved October 13, 2014 (received for review May 23, 2014) Foldable wings of insects are the ultimate deployable structures storage space (with some minor exceptions in soil- and cave- and have attracted the interest of aerospace engineering scientists dwelling species). The strategy is achieved by their extraordinary as well as entomologists. Rove beetles are known to fold their right–left asymmetric wing folding. As a result, rove beetles be- wings in the most sophisticated ways that have right–left asym- came highly diverse group, such that they account for 15% (i.e., metric patterns. However, the specific folding process and the rea- nearly 60,000 species) of all known species of Coleoptera. son for this asymmetry remain unclear. This study reveals how Despite the great potential of the process for engineering these asymmetric patterns emerge as a result of the folding pro- applications, few studies have been undertaken revealing the cess of rove beetles. A high-speed camera was used to reveal the details of this asymmetric wing folding. The wings of a rove beetle details of the wing-folding movement. The results show that these have two different crease patterns, but previous studies have characteristic asymmetrical patterns emerge as a result of simulta- described only one side. -
Laboulbenia Slackensis and L. Littoralis Sp. Nov
Laboulbenia slackensis and L. littoralis sp. nov. (Ascomycota, Laboulbeniales), two sibling species as a result of ecological speciation The Harvard community has made this article openly available. Please share how this access benefits you. Your story matters Citation De Kesel, A., and D. Haelewaters. 2014. “Laboulbenia Slackensis and L. Littoralis Sp. Nov. (Ascomycota, Laboulbeniales), Two Sibling Species as a Result of Ecological Speciation.” Mycologia 106 (3) (May 1): 407–414. doi:10.3852/13-348. Published Version doi:10.3852/13-348 Citable link http://nrs.harvard.edu/urn-3:HUL.InstRepos:24981603 Terms of Use This article was downloaded from Harvard University’s DASH repository, and is made available under the terms and conditions applicable to Other Posted Material, as set forth at http:// nrs.harvard.edu/urn-3:HUL.InstRepos:dash.current.terms-of- use#LAA Mycologia, 106(3), 2014, pp. 407–414. DOI: 10.3852/13-348 # 2014 by The Mycological Society of America, Lawrence, KS 66044-8897 Laboulbenia slackensis and L. littoralis sp. nov. (Ascomycota, Laboulbeniales), two sibling species as a result of ecological speciation Andre´ De Kesel1 the phylogenetic relatedness of taxa within a host National Botanic Garden of Belgium, Domein van range, specificity has been attributed generally to the Bouchout, BE-1860 Meise, Belgium need for certain substances from the host (Scheloske Danny Haelewaters 1969, Tavares 1979). Studies directed at understand- Department of Organismic and Evolutionary Biology, ing the mechanisms governing host specificity and Harvard University, 22 Divinity Avenue, Cambridge, explaining observed host ranges have been limited in Massachusetts 02138 part because these fungi can be manipulated only by growing infected insect colonies and artificially introducing a foreign host. -
Asymmetric Hindwing Foldings in Rove Beetles
Asymmetric hindwing foldings in rove beetles Kazuya Saitoa,1, Shuhei Yamamotob, Munetoshi Maruyamac, and Yoji Okabea aInstitute of Industrial Science, University of Tokyo, Tokyo 153-8505, Japan; bGraduate School of Bioresource and Bioenvironmental Sciences, Kyushu University, Fukuoka 812-8581, Japan; and cThe Kyushu University Museum, Fukuoka 812-8581, Japan Edited by May R. Berenbaum, University of Illinois at Urbana–Champaign, Urbana, IL, and approved October 13, 2014 (received for review May 23, 2014) Foldable wings of insects are the ultimate deployable structures storage space (with some minor exceptions in soil- and cave- and have attracted the interest of aerospace engineering scientists dwelling species). The strategy is achieved by their extraordinary as well as entomologists. Rove beetles are known to fold their right–left asymmetric wing folding. As a result, rove beetles be- wings in the most sophisticated ways that have right–left asym- came highly diverse group, such that they account for 15% (i.e., metric patterns. However, the specific folding process and the rea- nearly 60,000 species) of all known species of Coleoptera. son for this asymmetry remain unclear. This study reveals how Despite the great potential of the process for engineering these asymmetric patterns emerge as a result of the folding pro- applications, few studies have been undertaken revealing the cess of rove beetles. A high-speed camera was used to reveal the details of this asymmetric wing folding. The wings of a rove beetle details of the wing-folding movement. The results show that these have two different crease patterns, but previous studies have characteristic asymmetrical patterns emerge as a result of simulta- described only one side. -
Key to the British Genera of Subfamily Staphylininae
Key to the British genera of subfamily Staphylininae Parts translated from the German key by Arved Lompe, which is based on the keys by Lohse, Ganglbauer and Reitter and parts adapted from Joy (1932) References Lompe (2013) published at http://www.coleo-net.de/coleo/texte/staphylininae.htm#Xantholinini Joy N.H. (1932) A Practical Handbook of British Beetles, published by H. F. & G. Witherby Checklist of genera From the Checklist of Beetles of the British Isles, 2012 edition, edited by A. G. Duff. (available from www.coleopterist.org.uk/checklist.htm). Tribe STAPHYLININI Latreille, 1802 Subtribe STAPHYLININA Latreille, 1802 Subtribe PHILONTHINA Kirby, 1837 CREOPHILUS Leach, 1819 BISNIUS Stephens, 1829 DINOTHENARUS Thomson, C.G., 1858 CAFIUS Stephens, 1829 EMUS Leach, 1819 ERICHSONIUS Fauvel, 1874 OCYPUS Leach, 1819 GABRIUS Stephens, 1829 ONTHOLESTES Ganglbauer, 1895 GABRONTHUS Tottenham, 1955 PLATYDRACUS Thomson, C.G., 1858 NEOBISNIUS Ganglbauer, 1895 STAPHYLINUS Linnaeus, 1758 PHILONTHUS Stephens, 1829 TASGIUS Stephens, 1829 451 RABIGUS Mulsant & Rey, 1876 REMUS Holme, 1837 Tribe XANTHOLININI Erichson, 1839 GAUROPTERUS Thomson, C.G., 1860 Subtribe QUEDIINA Kraatz, 1857 GYROHYPNUS Leach, 1819 ACYLOPHORUS Nordmann, 1837 HYPNOGYRA Casey, 1906 ASTRAPAEUS Gravenhorst, 1802 LEPTACINUS Erichson, 1839 EURYPORUS Erichson, 1839 MEGALINUS Mulsant & Rey, 1877 HETEROTHOPS Stephens, 1829 NUDOBIUS Thomson, C.G., 1860 QUEDIUS Stephens, 1829 PHACOPHALLUS Coiffait, 1956 VELLEIUS Leach, 1819 XANTHOLINUS Dejean, 1821 Tribe OTHIINI Thomson, C.G., 1859 ATRECUS -
Rove Beetles of Florida, Staphylinidae (Insecta: Coleoptera: Staphylinidae)1 J
EENY115 Rove Beetles of Florida, Staphylinidae (Insecta: Coleoptera: Staphylinidae)1 J. Howard Frank and Michael C. Thomas2 Introduction body form is much broader and the elytra almost cover (Scaphidiinae) or do cover (Scydmaenidae) the abdomen. Rove beetles are often abundant in habitats with large In most, the antennae are simple and typically have 11 numbers of fly larvae—especially decaying fruit, decaying antennomeres (“segments”), but in some (Pselaphinae) the seaweed, compost, carrion, and dung—where some are antennae are clubbed or (Micropeplinae) have a greatly important predators of maggots and others prey on mites or enlarged apical segment, or (some Aleocharinae) have 10 nematodes. Because they are abundant in decaying plants or (some Pselaphinae) even fewer antennomeres. Antennae and fruits, plant inspectors encounter them but often do are geniculate (“elbowed”) in a few members of Pselaphinae, not recognize them as beetles. This article is intended as Osoriinae, Oxytelinae, Paederinae, and Staphylininae. an introduction to the Florida representatives of this large, diverse, and important family of beetles. Characterization Adults range from less than 1 mm to 40 mm long (none here is to the level of subfamily (at least 18 subfamilies is more than about 20 mm in Florida), although almost occur in Florida) because characterization to the level all are less than about 7 mm long. Adults of some other of genus (or species) would be too complicated for a families also have short elytra, but in these (e.g., various publication of this kind. The best popular North American Histeridae; Limulodes and other Ptiliidae; Nicrophorus, identification guide to beetles (White 1983), likewise family Silphidae; Trypherus, family Cantharidae; Conotelus, characterizes Staphylinidae only to the level of subfamily family Nitidulidae; Rhipidius, family Rhipiphoridae; Meloe, (and its classification is outdated, and it does not provide family Meloidae; and Inopeplus, family Salpingidae) the references to the literature). -
Larval Morphology of Selected Quedius Stephens, 1829 (Coleoptera: Staphylinidae: Staphylinini) with Comments on Their Subgeneric Affiliation
Zootaxa 3827 (4): 493–516 ISSN 1175-5326 (print edition) www.mapress.com/zootaxa/ Article ZOOTAXA Copyright © 2014 Magnolia Press ISSN 1175-5334 (online edition) http://dx.doi.org/10.11646/zootaxa.3827.4.4 http://zoobank.org/urn:lsid:zoobank.org:pub:54B981F1-690B-49AA-88E8-5A35ABDDED8C Larval morphology of selected Quedius Stephens, 1829 (Coleoptera: Staphylinidae: Staphylinini) with comments on their subgeneric affiliation EWA PIETRYKOWSKA-TUDRUJ1, KATARZYNA CZEPIEL-MIL2 & BERNARD STANIEC1 1Department of Zoology, Maria-Curie Sklodowska University, Akademicka 19 St, 20-033 Lublin, Poland. E-mail: ewpiet@ wp.pl 2Department of Zoology, Animal Ecology and Wildlife Management, University of Life Sciences in Lublin, Akademicka 13 St, 20-950 Lublin, Poland Abstract The study concerns the larval morphology of eight Quedius species from four subgenera: Distichalius, Microsaurus, Que- dius, and Raphirus. Mature larvae of three species: Q. (Microsaurus) brevis, Q. (M.) cruentus, and Q. (M.) microps are newly described. The hitherto poorly known larvae of five species: Q. (Raphirus) boops, Q. (Distichalius) cinctus, Q. (s. str.) fuliginosus, Q. (s. str.) molochinus and Q. (M.) mesomelinus, are redescribed. Illustrations of structural features are provided. The combination of characters that allow for distinguishing the known mature larvae of Quedius from closely related genera within the subtribe Quediina is specified. Diagnostic larval morphological characters for each of the sub- genera are proposed. The analysis of morphological features within the genus Quedius, with the application of the Multi- Variate Statistic Package (MVSP), showed high distinctiveness of the subgenus Quedius and low coherence among spe- cies within the subgenus Microsaurus. The intraspecific variation in the number of bifurcate setae and their spacing on fore tibiae of Q. -
Coleoptera Staphylinidae Staphylininae)
Occurrence of the “osmeterium” in Staphylinini and Quediini (Coleoptera Staphylinidae Staphylininae) Note 17 (Staphylinoidea), released by Luigi De Marzo on March 2013 – Results of the study of several members of these tribes. [email protected] www.luigidemarzo.eu SUBJECTS • Adults of Staphylininae included into the genera Cafius, Gabrius and Philonthus bear a pair of ear-like pits related with the first abdominal segment (Crowson, 1963). • Pits lay on the body surface under the elytra and composes a glandular device, which is reported as “osmeterium” referring to its supposed function to release odours (Crowson, 1981). • Thanks to the courtesy of my friend Fernando Angelini (Francavilla Fontana, Italy), I could study several species of different genera in the subfamily Staphylininae, including members of the genera Astrapaeus and Quedius. • This inspection showed the ear-like pits to be occurring in the species listed in Table A. • A seemingly analogous device (Fig. 1.B) was found in ten members of the tribe Quediini (Table B), where pits are only moderately sunken. • Neither ear-like nor slight pits were found in the species listed in Tab. C, which include Gabrius doderoi, Neobisnius procerulus and eight Quedius spp. REFERENCES Crowson R.A., 1963 - On a supposed tympanal organ in the Staphylinid genus Philonthus (Col.). Ent. mon. Mag., 98: 197. Crowson R.A., 1981 – Chapter 8, The senses. In: The biology of the Coleoptera. Academic Press, 802 pp. 2 Fig. 1 – The two forms of the “osmeterium“ occurring in Staphylinidae-Staphylininae: A, ear-like pit; B, moderately sunken pit. Table A – Species provided with the typical ear-like pits. -
Coleoptera: Staphylinidae), with Morphological, Taxonomical and Distributional Notes
Zootaxa 3755 (1): 062–086 ISSN 1175-5326 (print edition) www.mapress.com/zootaxa/ Article ZOOTAXA Copyright © 2014 Magnolia Press ISSN 1175-5334 (online edition) http://dx.doi.org/10.11646/zootaxa.3755.1.3 http://zoobank.org/urn:lsid:zoobank.org:pub:0486D86E-EEFF-453E-BD77-395094BED088 An illustrated key to the New World genera of Philonthina Kirby (Coleoptera: Staphylinidae), with morphological, taxonomical and distributional notes MARIANA CHANI-POSSE Current affiliation: Laboratorio de Entomología, Instituto Argentino de Investigaciones de las Zonas Aridas (IADIZA, CCT CONICET, Mendoza), Casilla de Correo 507, 5500 Mendoza, Argentina. E-mail: [email protected] Abstract An illustrated key to the 29 genera of Philonthina currently known in the New World is provided, based on adult morpho- logical characters. Updated information on the morphology, taxonomic history, bionomics and distribution of the Phi- lonthina in the study area is also provided. Key words: Staphylininae, Philonthina, New World, taxonomy, distribution Introduction The subtribe Philonthina Kirby 1837, with 65 genera and about 2500 species currently cited (Herman 2001; Newton & Thayer 2005; Newton, unpublished database catalog), is the largest subtribe within Staphylinini in both number of genera and species, and also the most speciose subtribe within Staphylininae, accounting for more than one third of the species recorded for this subfamily (ca. 7000 spp.) (Herman 2001; Newton, unpublished database catalog). According to the above-mentioned authors, 29 genera of Philonthina are known to occur in the New World with over 700 species recorded. The species of the megadiverse and cosmopolitan genus Philonthus Stephens represent almost one half of that total, with 338 species currently recorded in the New World (Newton, unpublished database catalog).