THE HIGHER SYSTEMATICS of the BUTTERFLIES By
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
MEET the BUTTERFLIES Identify the Butter Ies You've Seen at Butter Ies
MEET THE BUTTERFLIES Identify the butteries you’ve seen at Butteries LIVE! Learn the scientic, common name and country of origin. Experience the wonderful world of butteries with the help of Butteries LIVE! COMMON MORPHO Morpho peleides Family: Nymphalidae Range: Mexico to Colombia Wingspan: 5-8 in. (12.7 – 20.3 cm.) Fast Fact: Common morphos are attracted to fermenting fruits. WHITE MORPHO Morpho polyphemus Family: Nymphalidae Range: Mexico to Central America Wingspan: 4-4.75 in. (10-12 cm.) Fast Fact: Adult white morphos prefer to feed on rotting fruits or sap from trees. WHITENED BLUEWING Myscelia cyaniris Family: Nymphalidae Range: Mexico, parts of Central and South America Wingspan: 1.3-1.4 in. (3.3-3.6 cm.) Fast Fact: The underside of the whitened bluewing is silvery- gray, allowing it to blend in on bark and branches. MEXICAN BLUEWING Myscelia ethusa Family: Nymphalidae Range: Mexico, Central America, Colombia Wingspan: 2.5-3.0 in. (6.4-7.6 cm.) Fast Fact: Young caterpillars attach dung pellets and silk to a leaf vein to create a resting perch. NEW GUINEA BIRDWING Ornithoptera priamus Family: Papilionidae Range: Australia Wingspan: 5 in. (12.7 cm.) Fast Fact: New Guinea birdwings are sexually dimorphic. Females are much larger than the males, and their wings are black with white markings. LEARN MORE ABOUT SEXUAL DIMORPHISM IN BUTTERFLIES > MOCKER SWALLOWTAIL Papilio dardanus Family: Papilionidae Range: Africa Wingspan: 3.9-4.7 in. (10-12 cm.) Fast Fact: The male mocker swallowtail has a tail, while the female is tailless. LEARN MORE ABOUT SEXUALLY DIMORPHIC BUTTERFLIES > ORCHARD SWALLOWTAIL Papilio demodocus Family: Papilionidae Range: Africa and Arabia Wingspan: 4.5 in. -
Erebia Epiphron and Erebia Orientalis
applyparastyle “fig//caption/p[1]” parastyle “FigCapt” Biological Journal of the Linnean Society, 2018, XX, 1–11. With 4 figures. Erebia epiphron and Erebia orientalis: sibling butterfly Downloaded from https://academic.oup.com/biolinnean/advance-article-abstract/doi/10.1093/biolinnean/bly182/5233450 by guest on 11 December 2018 species with contrasting histories JOAN CARLES HINOJOSA1,4, YERAY MONASTERIO2, RUTH ESCOBÉS2, VLAD DINCĂ3 and ROGER VILA1,* 1Institut de Biologia Evolutiva (CSIC-UPF), Passeig Marítim de la Barceloneta 37–49, 08003 Barcelona, Spain 2Asociación Española para la Protección de las Mariposas y su Medio (ZERYNTHIA), Madre de Dios 14, 26004 Logroño, Spain 3Department of Ecology and Genetics, PO Box 3000, 90014 University of Oulu, Finland 4Departament de Ciències de la Salut i de la Vida (DCEXS), Universitat Pompeu Fabra (UPF), Doctor Aiguader 88, 08003 Barcelona, Spain Received 5 September 2018; revised 21 October 2018; accepted for publication 21 October 2018 The butterfly genus Erebia (Lepidoptera: Nymphalidae) is the most diverse in Europe and comprises boreo-alpine habitat specialists. Populations are typically fragmented, restricted to high altitudes in one or several mountain ranges, where habitat is relatively well preserved, but where the effects of climate change are considerable. As a result, the genus Erebia has become a model to study the impact of climate changes, past and present, on intraspecific genetic diversity. In this study, we inferred phylogenetic relationships among populations of the European species Erebia epiphron and Erebia orientalis using mitochondrial (COI) and nuclear markers (ITS2, wg and RPS5), and reconstructed their phylogeographical history. We confirm E. orientalis and E. epiphron as a relatively young species pair that split c. -
Morpho 1.11.0 User Guide
MORPHO 1.11.0 USER GUIDE APRIL 2015 NATIONAL CENTER FOR ECOLOGICAL ANALYSIS AND SYNTHESIS KNOWLEDGE NETWORK FOR BIOCOMPLEXITY Contents 1 Introduction2 1.1 What is Morpho?.........................2 1.2 Terms you need to know.....................2 1.2.1 Metadata.........................3 1.2.2 Data Package.......................3 2 Getting Started4 2.1 System Requirements......................4 2.2 Downloading and Installing Morpho...............4 2.3 Before you Begin.........................5 2.3.1 Register for the KNB Network..............5 2.3.2 Create a User Profile...................5 2.4 Logging In.............................8 2.5 Removing a profile........................9 3 The Morpho Interface: The Main Screen 11 3.1 Panels............................... 11 3.1.1 Current profile...................... 11 3.1.2 Network Status...................... 12 3.1.3 Work with your data. .................. 13 3.2 Menu bar............................. 13 3.2.1 File menu......................... 13 3.2.2 Edit menu......................... 13 3.2.3 Search menu....................... 15 3.2.4 Documentation menu.................. 15 3.2.5 Data menu........................ 15 3.2.6 Window menu...................... 17 3.2.7 Help menu........................ 17 3.3 Toolbar.............................. 17 3.4 Status Bar............................. 18 4 Opening and Viewing a Data Package 20 4.1 Opening Data Packages..................... 20 4.1.1 Opening a Shared Data Package............ 22 4.1.2 Opening a Data Package by Package Id........ 22 4.2 Viewing a Data Package: The Data Package Interface.... 23 4.2.1 Package Documentation panel............. 23 4.2.2 Data Table panel..................... 24 4.2.3 Table Documentation panel............... 25 5 Searching for Data Packages 28 5.1 Opening the Search Interface and Performing a Search.. -
Butterflies of the Swiss Alps
Butterflies of the Swiss Alps Naturetrek Tour Report 28 June - 5 July 2015 Damon Blue 2015 Naturetrek group False Heath Fritillary Too close to photograph! Report & images compiled by Jon Stokes Naturetrek Mingledown Barn Wolf's Lane Chawton Alton Hampshire GU34 3HJ UK T: +44 (0)1962 733051 E: [email protected] W: www.naturetrek.co.uk Tour Report Butterflies of the Swiss Alps Tour participants: Jon Stokes (leader) with 13 Naturetrek clients Day 1 Sunday 28th June We set off from Heathrow and arrived in Zurich in much warmer conditions. The forecast for the week was truly amazing with wall-to-wall sunshine predicted and temperatures that might reach the upper 30 degrees Centigrade. A bit different from the snow and rain last year! Boarding the train to Interlaken, we had an easy passage through Zurich airport, which can't be said for Heathrow, where one of the group, having breakfast, broke their tooth just a few minutes before takeoff! With just a few minutes to decide, the decision was made to continue on the trip but this dodgy sausage necessitated emergency dentistry. However, thanks to the astonishing efficient Swiss, we arrived in Interlaken at 4.05pm and the patient was in the emergency dentist chair by 4.30, with the tooth being repaired an hour later! Whilst this was being done, the remainder of the group had travelled up to the hotel in Wengen and, before dinner, went to a small meadow (christened last year as 'Margaret's Meadow' in honour of the lady who found it). -
Reading: Masters of Light: the Science Behind Nature's Brightest
Masters of Light: The Science Behind Nature’s Brightest Colors JULIA ROTHCHILD DECEMBER 30, 2014 0 In the sands of the Yukon Territory in Canada, a scientist found a beetle embedded with nano-scale diamonds. The insect was a small, brown member of the weevil family. It was plated with hollow scales, inside each of which expanses of nano-crystals had grown. Every diamond was placed exactly the same distance apart, yielding a formidably regular array that extended up and down and side to side, filling the insides of the beetle’s scales with a rigid, repeating matrix. The insect unearthed in the Yukon sand had been preserved for over half a million years as a fossil. Yale researchers inspected the preserved material using high energy X-rays at Argonne National Laboratory in Chicago in order to study the configuration of crystals. Although the structures they discovered are especially beautiful and intriguing, diamond-filled scales are not unique: many creatures alive today grow identical or similar nano-size arrays. Animals grow these sorts of structures because they are optical powerhouses. By manipulating light, the crystals allow animals to produce brilliant colors that are otherwise unattainable. Making Blue Consider the color blue. There are no blue bears in the world. There are no blue crocodiles either. There are also no blue kangaroos, blue bumblebees, blue cats, or blue dogs. There aren’t very many blue animals in the world, period, because blue is a difficult color to make. Most of the other colors of the rainbow arise straightforwardly in nature from chemicals, called pigments, that animals collect in their skin, feathers, and hair. -
Endemic Macrolepidoptera Subspecies in the Natural History Museum Collections from Sibiu (Romania)
Travaux du Muséum National d’Histoire Naturelle © 31 août «Grigore Antipa» Vol. LVI (1) pp. 65–80 2013 DOI: 10.2478/travmu-2013-0005 ENDEMIC MACROLEPIDOPTERA SUBSPECIES IN THE NATURAL HISTORY MUSEUM COLLECTIONS FROM SIBIU (ROMANIA) SERGIU-CORNEL TÖRÖK, GABRIELA CUZEPAN Abstract. The paper presents data regarding endemic Macrolepidoptera subspecies preserved in the Entomological Collections of Natural History Museum from Sibiu. 22 endemic subspecies are recorded and represented by 382 specimens in the Entomological Collection. Most of the specimens have been collected from mountain habitats, especially from Southern and Western Carpathians. The results of this paper contribute to the improvement of the existing data concerning the distribution and outline the areas of Macrolepidoptera’s endemism in Romania. Résumé. Le document présente des données concernant les sous-espèces endémiques des Macrolépidoptères conservées dans les collections entomologiques du Musée d’Histoire Naturelle de Sibiu. 22 sous-espèces endémiques sont enregistrées et représentées par 382 spécimens dans la collection entomologique. La plupart des spécimens ont été recueillis dans les habitats de montagne, en particulier du Sud et l’Ouest des Carpates. Les résultats de cette étude contribuent à compléter les données existantes concernant la distribution et de définir les zones d’endémisme des Macrolépidoptères en Roumanie. Key words: Macrolepidoptera, endemic taxa, geographic distribution, museum collections. INTRODUCTION In this paper, the authors wish to present the endemic taxa from the Natural History Museum from Sibiu. The term endemic is used for taxa that are unique to a geographic location. This geographic location can be either relatively large or very small (Gaston & Spicer, 1998; Kenyeres et al., 2009). -
Photophysics of Structural Color in the Morpho Butterflies
Original Paper________________________________________________________ Forma, 17, 103–121, 2002 Photophysics of Structural Color in the Morpho Butterflies Shuichi KINOSHITA1,2*, Shinya YOSHIOKA1,2, Yasuhiro FUJII2 and Naoko OKAMOTO1 1Graduate School of Frontier Biosciences, Osaka University, Machikaneyama 1-1, Toyonaka, Osaka 560-0043, Japan 2Department of Physics, Graduate School of Science, Osaka University, Machikaneyama 1-1, Toyonaka, Osaka 560-0043, Japan *E-mail address: [email protected] (Received April 23, 2002; Accepted May 30, 2002) Keywords: Structural Color, Iridescence, Morpho Butterfly, Interference, Diffraction Abstract. The Morpho butterflies exhibit surprisingly brilliant blue wings originating from the submicron structure created on scales of the wing. It shows extraordinarily uniform color with respect to the observation direction which cannot be explained using a simple multilayer interference model. We have performed microscopic, optical and theoretical investigations on the wings of four Morpho species and have found separate lamellar structure with irregular heights is extremely important. Using a simple model, we have shown that the combined action of interference and diffraction is essential for the structural color. It is also shown that the presence of pigment beneath the iridescent scales greatly enhances the blue coloring by reducing the unwanted background light. Further, variations of color tones and gloss in the Morpho wings are discussed in terms of the combination of cover and ground scales with various structures and functions. 1. Introduction Coloring in nature mostly comes from the inherent colors of materials, but it sometimes has a purely physical origin, such as diffraction or interference of light. The latter, called structural color or iridescence, has long been a problem of scientific interest (PARKER, 2000). -
Phylogenetic Relatedness of Erebia Medusa and E. Epipsodea (Lepidoptera: Nymphalidae) Confirmed
Eur. J. Entomol. 110(2): 379–382, 2013 http://www.eje.cz/pdfs/110/2/379 ISSN 1210-5759 (print), 1802-8829 (online) Phylogenetic relatedness of Erebia medusa and E. epipsodea (Lepidoptera: Nymphalidae) confirmed 1 2, 3 4 MARTINA ŠEMELÁKOVÁ , PETER PRISTAŠ and ĽUBOMÍR PANIGAJ 1 Institute of Biology and Ecology, Department of Cellular Biology, Faculty of Science, Pavol Jozef Šafárik University in Košice, Moyzesova 11, 041 54 Košice, Slovakia; e-mail: [email protected] 2 Institute of Animal Physiology, Slovak Academy of Science, Soltesovej 4–6, 040 01 Košice, Slovakia 3 Department of Biology and Ecology, Faculty of Natural Sciences, Matej Bel University, Tajovskeho 40, 841 04 Banská Bystrica, Slovakia 4 Institute of Biology and Ecology, Department of Zoology, Faculty of Science, Pavol Jozef Šafárik University in Košice, Moyzesova 11, 041 54 Košice, Slovakia Key words. Lepidoptera, Nymphalidae, Erebia medusa, E. epipsodea, mtDNA, COI, ND1 Abstract. The extensive genus Erebia is divided into several groups of species according to phylogenetic relatedness. The species Erebia medusa was assigned to the medusa group and E. epipsodea to the alberganus group. A detailed study of the morphology of their copulatory organs indicated that these species are closely related and based on this E. epipsodea was transferred to the medusa group. Phylogenetic analyses of the gene sequences of mitochondrial cytochrome C oxidase subunit I (COI) and mitochondrial NADH dehydrogenase subunit 1 (ND1) confirm that E. medusa and E. epipsodea are closely related. A possible scenario is that the North American species, E. episodea, evolved after exclusion/isolation from E. medusa, whose current centre of distribution is in Europe. -
Introduction
BULGARIA Nick Greatorex-Davies. European Butterflies Group Contact ([email protected]) Local Contact Prof. Stoyan Beshkov. ([email protected]) National Museum of Natural History (NMNH), Sofia, Butterfly Conservation Europe Partner Bulgarian Academy of Sciences Stanislav Abadjiev compiled and collated butterfly records for the whole of Bulgaria and published a Local Recording Scheme distribution atlas in 2001 (see below). Records are still being gathered and can be sent to Stoyan Beshkov at NMNH, Sofia. Butterfly List See Butterflies of Bulgaria website (Details below) Introduction Bulgaria is situated in eastern Europe with its eastern border running along the Black Sea coast. It is separated from Romania for much of its northern border by the River Danube. It shares its western border with Serbia and Macedonia, and its southern border with Greece and Turkey. Bulgaria has a land area of almost 111,000 sq km (smaller than England but bigger than Scotland) and a declining human population of 7.15 million (as of 2015), 1.5 million of which live in the capital city, Sofia. It is very varied in both climate, topography and habitats. Substantial parts of the country are mountainous, particularly in the west, south-west and central ‘spine’ of the country and has the highest mountain in the Balkan Mountains (Musala peak in the Rila Mountains, 2925m) (Map 1). Almost 70% of the land area is above 200m and over 27% above 600m. About 40% of the country is forested and this is likely to increase through natural regeneration due to the abandonment of agricultural land. Following nearly 500 years under the rule of the Ottoman Empire, Bulgaria was independent for just a few years from 1908 before coming under the domination of the soviet communist regime in 1946. -
France - Butterflies of the Pyrenees
France - Butterflies of the Pyrenees Naturetrek Tour Report 6 - 13 July 2018 Large Ringlet Meadow Fritillaries Mazarine Blue Stag Beetles Report and images by Jason Mitchell Naturetrek Mingledown Barn Wolf's Lane Chawton Alton Hampshire GU34 3HJ UK T: +44 (0)1962 733051 E: [email protected] W: www.naturetrek.co.uk Tour Report France - Butterflies of the Pyrenees Tour participants: Jason Mitchell (Leader) with seven Naturetrek clients Summary Based in the charming Pyrenean village of Gèdre, our excellent family-run hotel was perfectly placed to explore the valley of Gavarnie-Gèdre which encompasses a wide range of landscapes, from impressive glacial cirques, to pastoral plateaux, the spectacular Brèche de Roland and the legendary Vignemale. Although our main focus was butterflies, we were keen to explore the cirques for which the region is so well known. We started with the smaller, more discreet Cirque d’Estaubé with its beautiful Lac des Gloriettes. We then progressed to the impressively wide Cirque de Troumouse, with an 11 km circumference. Finally we made a gentle day-walk into the Cirque de Gavarnie, the best known of the three glacial cirques in the valley with its high walls towering to 1500 m and at its heart, one of the largest waterfalls of Europe (427m), and the source of the Gave de Pau. The weather was a little unsettled at times – a trait of the high mountains – however, it was mostly dry and sunny with one day an unseasonably chilly 18°C and on the hottest day the mercury hit 27°C. The scenery was spectacular and the wildlife too. -
Coloration Mechanisms and Phylogeny of Morpho Butterflies M
© 2016. Published by The Company of Biologists Ltd | Journal of Experimental Biology (2016) 219, 3936-3944 doi:10.1242/jeb.148726 RESEARCH ARTICLE Coloration mechanisms and phylogeny of Morpho butterflies M. A. Giraldo1,*, S. Yoshioka2, C. Liu3 and D. G. Stavenga4 ABSTRACT scales (Ghiradella, 1998). The ventral wing side of Morpho Morpho butterflies are universally admired for their iridescent blue butterflies is studded by variously pigmented scales, together coloration, which is due to nanostructured wing scales. We performed creating a disruptive pattern that may provide camouflage when the a comparative study on the coloration of 16 Morpho species, butterflies are resting with closed wings. When flying, Morpho investigating the morphological, spectral and spatial scattering butterflies display the dorsal wing sides, which are generally bright- properties of the differently organized wing scales. In numerous blue in color. The metallic reflecting scales have ridges consisting of previous studies, the bright blue Morpho coloration has been fully a stack of slender plates, the lamellae, which in cross-section show a attributed to the multi-layered ridges of the cover scales’ upper Christmas tree-like structure (Ghiradella, 1998). This structure is not laminae, but we found that the lower laminae of the cover and ground exclusive to Morpho butterflies and has also been found in other scales play an important additional role, by acting as optical thin film butterfly species, for instance pierids, reflecting in the blue and/or reflectors. We conclude that Morpho coloration is a subtle UV wavelength range (Ghiradella et al., 1972; Rutowski et al., combination of overlapping pigmented and/or unpigmented scales, 2007; Giraldo et al., 2008). -
Tympanal Ears in Nymphalidae Butterflies: Morphological Diversity and Tests on the Function of Hearing
Tympanal Ears in Nymphalidae Butterflies: Morphological Diversity and Tests on the Function of Hearing by Laura E. Hall A thesis submitted to the Faculty of Graduate Studies and Postdoctoral Affairs in partial fulfillment of the requirements for the degree of Master of Science in Biology Carleton University Ottawa, Ontario, Canada © 2014 Laura E. Hall i Abstract Several Nymphalidae butterflies possess a sensory structure called the Vogel’s organ (VO) that is proposed to function in hearing. However, little is known about the VO’s structure, taxonomic distribution or function. My first research objective was to examine VO morphology and its accessory structures across taxa. Criteria were established to categorize development levels of butterfly VOs and tholi. I observed that enlarged forewing veins are associated with the VOs of several species within two subfamilies of Nymphalidae. Further, I discovered a putative light/temperature-sensitive organ associated with the VOs of several Biblidinae species. The second objective was to test the hypothesis that insect ears function to detect bird flight sounds for predator avoidance. Neurophysiological recordings collected from moth ears show a clear response to flight sounds and chirps from a live bird in the laboratory. Finally, a portable electrophysiology rig was developed to further test this hypothesis in future field studies. ii Acknowledgements First and foremost I would like to thank David Hall who spent endless hours listening to my musings and ramblings regarding butterfly ears, sharing in the joy of my discoveries, and comforting me in times of frustration. Without him, this thesis would not have been possible. I thank Dr.