Recent Records of Morpho Menelaus Eberti
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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. -
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.. -
“O Desenho, a Biomimética E a Produção De Cor Estrutural No Caso Da Família Lepidopteran Com O Foco Na Borboleta Morpho Didius.”
UNIVERSIDADE DE LISBOA FACULDADE DE BELAS-ARTES ! “O desenho, A Biomimética e a Produção de cor estrutural no caso da família Lepidopteran com o foco na borboleta Morpho didius.” Juliana Cavalcanti Timotheo da Costa Trabalho de Projeto Mestrado em Desenho Trabalho de Projeto orientado pelo Prof. Pedro Salgado 2018 1 DECLARAÇÃO DE AUTORIA Eu Juliana Cavalcanti Timotheo da Costa, declaro que o presente trabalho de projeto de mestrado intitulada “O desenho, A Biomimética e a Produção de cor estrutural no caso da família Lepidopteran com o foco na borboleta Morpho didius.”, é o resultado da minha investigação pessoal e independente. O conteúdo é original e todas as fontes consultadas estão devidamente mencionadas na bibliografia ou outras listagens de fontes documentais, tal como todas as citações diretas ou indiretas têm devida indicação ao longo do trabalho segundo as normas académicas. O Candidato [assinatura] Lisboa, 27 de Outubro de 2018 2 RESUMO Este trabalho ilustra os mecanismos de produção de cor estrutural das escamas das borbo- letas Lepidopteran e como caso de estudo, a Morpho didius. A pesquisa foi conduzida pela biomimética e pelo interesse nas cores no mundo vivo, que originou um texto como cam- po de trabalho para o desenvolvimento dos desenhos. Suas classificações são ilustrações científicas por consequência do tema e ao objetivo de esclarecer as informações de cunho científico abordadas. O propósito secundário do projeto é a produção de uma revista com a apresentação do tema deste trabalho: “A Biomimética e a Produção de Cor Estrutural na Família Lepidopteran com Foco na Borboleta Morpho Didius” A pesquisa gira em torno das investigações feitas por cientistas sobre a produção de cor sem ou quase nenhum pigmento nas escamas das borboletas Lepidopterans e com o foco na es- pécie Morpho didius. -
En La Producción De Mariposas Morpho Helenor (Nymphalidae: Lepidoptera)
Efecto de un suplemento vitamínico y tres especies de plantas alimenticias (Fabaceae), en la producción de mariposas Morpho helenor (Nymphalidae: Lepidoptera) Olivier Castro Morales, Julio M. Arias-Reverón, Arnoldo Gadea-Rivas & Luis Alberto Camero Rey Sede San Carlos, Instituto Tecnológico de Costa Rica, 223-21001 Alajuela, San Carlos, Ciudad Quesada; [email protected], [email protected], [email protected], [email protected] Recibido 01-VI-2017 • Corregido 02-VIII-2017 • Aceptado 03-VIII-2017 ABSTRACT: Effect of a vitamin supplement and three species RESUMEN: El uso de dietas artificiales en la producción de mariposas of food plants (Fabaceae) on the production of Morpho helenor ha sido poco estudiado en la familia Nymphalidae, en este experimento butterflies (Nymphalidae:Lepidoptera). Little has been published evaluamos el efecto de un suplemento vitamínico comercial llamado on the use of artificial diets for the production of butterflies in the Farvital – 18, compuesto por aminoácidos, vitaminas y electrolitos, en Nymphalidae family. We evaluated the effect of a commercial vitamin la producción de mariposas Morpho helenor, el suplemento se aplicó supplement called Farvital - 18, composed of amino acids, vitamins and en tres plantas hospederas de la familia Fabaceae: Lonchocarpus oligan- electrolytes, on the production of the butterflyMorpho helenor. This thus, Erythrina berteroana y Arachis pintoi, el tamaño de la muestra fue supplement was applied on three host plants from the family Fabaceae: de 25 orugas para cada uno de los seis tratamientos, realizamos cuatro Lonchocarpus oliganthus, Erythrina berteroana and Arachis pintoi. We repeticiones, analizamos el tiempo del ciclo larval, la tasa de crecimien- analyzed the duration of the larval stages, the growth rate of the cater- to de las orugas en cada estadio, la tasa de supervivencia de las orugas pillars at each stage, the survival rate of the caterpillars, pupal weight, y en las pupas analizamos el peso, calidad y cantidad obtenida. -
Diplomarbeit
DIPLOMARBEIT Titel der Diplomarbeit „UV- und Polarisationssignale bei Tagfaltern“ Verfasserin Sandra Schneider angestrebter akademischer Grad Magistra der Naturwissenschaften (Mag.rer.nat.) Wien, 2012 Studienkennzahl lt. Studienblatt: A 439 Studienrichtung lt. Studienblatt: Diplomstudium Zoologie (Stzw) UniStG Betreuer: O. Univ.- Prof. Dr. Hannes F. Paulus 1 Für Papa 2 Inhaltsverzeichnis Danksagung ............................................................................................................................ 5 Abstract .................................................................................................................................... 6 Einleitung................................................................................................................................. 7 Material und Methode ...................................................................................................... 14 Untersuchungen am Rasterelektronenmikroskop .................................................. 14 Untersuchung des Schillereffekts aus versch. Betrachtungswinkeln ................. 15 Untersuchung der Polarisationsmuster ..................................................................... 17 Untersuchung der UV-Muster ...................................................................................... 21 Untersuchung zum Thema Wärmeschutz ................................................................. 21 Ergebnisse ............................................................................................................................ -
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. -
Physics of Structural Colors
HOME | SEARCH | PACS & MSC | JOURNALS | ABOUT | CONTACT US Physics of structural colors This article has been downloaded from IOPscience. Please scroll down to see the full text article. 2008 Rep. Prog. Phys. 71 076401 (http://iopscience.iop.org/0034-4885/71/7/076401) The Table of Contents and more related content is available Download details: IP Address: 132.72.138.1 The article was downloaded on 02/07/2008 at 16:04 Please note that terms and conditions apply. IOP PUBLISHING REPORTS ON PROGRESS IN PHYSICS Rep. Prog. Phys. 71 (2008) 076401 (30pp) doi:10.1088/0034-4885/71/7/076401 Physics of structural colors S Kinoshita, S Yoshioka and J Miyazaki Graduate School of Frontier Biosciences, Osaka University, Suita, Osaka 565-0871, Japan E-mail: [email protected] Received 3 September 2007, in final form 16 January 2008 Published 6 June 2008 Online at stacks.iop.org/RoPP/71/076401 Abstract In recent years, structural colors have attracted great attention in a wide variety of research fields. This is because they are originated from complex interaction between light and sophisticated nanostructures generated in the natural world. In addition, their inherent regular structures are one of the most conspicuous examples of non-equilibrium order formation. Structural colors are deeply connected with recent rapidly growing fields of photonics and have been extensively studied to clarify their peculiar optical phenomena. Their mechanisms are, in principle, of a purely physical origin, which differs considerably from the ordinary coloration mechanisms such as in pigments, dyes and metals, where the colors are produced by virtue of the energy consumption of light. -
Morpho Menelaus
58 TROP. LEPID. RES., 30(2): 58-64, 2020 BLANDIN ET AL.: New subspecies of Morpho menelaus Morpho menelaus (Linnaeus, 1758), in north-eastern Venezuela: description of a new subspecies Patrick Blandin¹, Peter Johnson², Marcial Garcia³ and Andrew F. E. Neild⁴* ¹Institut de Systématique, Evolution, Biodiversité (ISYEB), Muséum national d’Histoire naturelle, CNRS, Sorbonne Université, EPHE, Université des Antilles. CP 50, 57 rue Cuvier, 75005 Paris, France. ²25592 Spinnaker Drive, San Juan Capistrano, CA 92675, USA. ³Avenida Guzmán Blanco casa S/N, Caripe, Monagas, Venezuela ⁴Courtesy Research Scientist (Lepidoptera), Florida Museum of Natural History, McGuire Center, University of Florida, PO Box 112710, Gainesville, FL 32611- 2710, USA. *Corresponding author: [email protected] Date of issue online: 15 July 2020 Zoobank Registered: urn:lsid:zoobank.org:pub:472C167A-E11B-4976-A311-43176281A945 Electronic copies (ISSN 2575-9256) in PDF format at: http://journals.fcla.edu/troplep; https://zenodo.org; archived by the Institutional Repository at the University of Florida (IR@UF), http://ufdc.ufl.edu/ufir;DOI : 10.5281/zenodo.3931775. © The author(s). This is an open access article distributed under the Creative Commons license CC BY-NC 4.0 (https://creativecommons.org/ licenses/by-nc/4.0/). Abstract: A new subspecies of the common species Morpho menelaus (Linnaeus, 1758) is described from north-eastern Venezuela, and named Morpho menelaus chantalae Neild, Johnson & Blandin ssp. nov. Its relationship with M. menelaus orinocensis Le Moult, 1925, described from the Orinoco Delta, is discussed. The discovery of this new taxon emphasises the importance of the conservation of forest ecosystems in north-eastern Venezuela, where the distribution and diversification of species may have been driven by local geodynamics and the evolution of ecological contexts. -
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. -
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). -
(Lepidoptera: Lycaenidae: Lipteninae) Uses a Color-Generating Mechanism Widely Applied by Butterflies
View metadata, citation and similar papers at core.ac.uk brought to you by CORE provided by Repository of the Academy's Library Journal of Insect Science, (2018) 18(3): 6; 1–8 doi: 10.1093/jisesa/iey046 Research Downloaded from https://academic.oup.com/jinsectscience/article-abstract/18/3/6/5001952 by MTA Wigner Research Centre for Physics user on 17 September 2018 The Only Blue Mimeresia (Lepidoptera: Lycaenidae: Lipteninae) Uses a Color-Generating Mechanism Widely Applied by Butterflies Zsolt Bálint,1,5 Szabolcs Sáfián,2 Adrian Hoskins,3 Krisztián Kertész,4 Antal Adolf Koós,4 Zsolt Endre Horváth,4 Gábor Piszter,4 and László Péter Biró4 1Hungarian Natural History Museum, Budapest, Hungary, 2Faculty of Forestry, University of West Hungary, Sopron, Hungary, 3Royal Entomological Society, London, United Kingdom, 4Institute of Technical Physics and Materials Science, Centre for Energy Research, Budapest, Hungary, and 5Corresponding author, e-mail: [email protected] Subject Editor: Konrad Fiedler Received 21 February 2018; Editorial decision 25 April 2018 Abstract The butterflyMimeresia neavei (Joicey & Talbot, 1921) is the only species in the exclusively African subtribal clade Mimacraeina (Lipteninae: Lycaenidae: Lepidoptera) having sexual dimorphism expressed by structurally blue- colored male and pigmentary colored orange–red female phenotypes. We investigated the optical mechanism generating the male blue color by various microscopic and experimental methods. It was found that the blue color is produced by the lower lamina of the scale acting as a thin film. This kind of color production is not rare in day-flying Lepidoptera, or in other insect orders. The biological role of the blue color of M. -
Diversidad Y Composición De Mariposas (Lepidoptera: Morphinae Y Satyrinae) De Los Varillales En La Reserva Nacional Allpahuayo Mishana, Loreto, Perú*
BOLETÍN CIENTÍFICO bol.cient.mus.hist.nat. 25 (1), enero-junio, 2021. 177-190. ISSN: 0123-3068 (Impreso) ISSN: 2462-8190 (En línea) CENTRO DE MUSEOS MUSEO DE HISTORIA NATURAL Diversidad y composición de mariposas (Lepidoptera: Morphinae y Satyrinae) de los varillales en la Reserva Nacional Allpahuayo Mishana, Loreto, Perú* Joel Vásquez-Bardales1, Johnny Callirgos-Bardales2, Ricardo Zárate-Gómez3, Juan José Ramírez-Hernandez4, Julio Pinedo-Jiménez5, Alberto García-Ruiz6, Heiter Valderrama-Freyre7, Tedi Pacheco-Gómez8, Rodil Tello-Espinoza9 Resumen Introducción. Las mariposas son indicadores ecológicos muy sensibles a los cambios ambientales; el inventario de sus comunidades es una herramienta válida para conocer el estado de conservación o alteración de su hábitat. Objetivos. Evaluar la diversidad y composición de las mariposas (Lepidoptera: Morphinae y Satyrinae) en los Varíllales de la Reserva Nacional Allpahuayo Mishana (RNAM), Perú. Metodología. Los muestreos fueron realizados de enero a diciembre del 2015. En un Varillal alto y bajo a lo largo de 7 transectos de 25 m, las mariposas fueron atraídas con cebos de frutas fermentadas y capturadas con una red entomológica, durante 1 semana de cada mes; con recolectas diarias en el trascurso de la mañana y la tarde. Resultados. Se registraron un total de 2662 individuos, incluidos en 38 especies y 16 géneros, siendo las especies más abundantes Pierella lena, Pierella lamia y Cithaerias pireta aurorina dentro de los Satyrinae; y en los Morphinae figuran Morpho helenor y Caligo eurilochus. Entre las especies comerciales, resaltan Morpho menelaus, M. helenor, Caligo idomeneus, C. eurilochus, C. pireta aurorina y Haetera piera negra. Alcance. La mayor riqueza de especies se encontró en el Varillal alto y albergan varias especies de alto valor para fines de educación ambiental y bionegocios.