Bug Mugs (Mug Shots of the Most Common Insect ID Requests)
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Cylindroiulus Truncorum (Silvestri): a New Milliped for Virginia (USA), with Natural History Observations (Julida: Julidae)
Banisteria, Number 20, 2002 © 2002 by the Virginia Natural History Society Cylindroiulus truncorum (Silvestri): A New Milliped for Virginia (USA), with Natural History Observations (Julida: Julidae) Jorge A. Santiago-Blay Department of Paleobiology, MRC-121 National Museum of Natural History 10th and Constitution Avenue Smithsonian Institution P.O. Box 37012 Washington, DC 20013-7012 Richard L. Hoffman Virginia Museum of Natural History Martinsville, Virginia 24112 Joseph B. Lambert and Yuyang Wu Department of Chemistry Northwestern University 2145 Sheridan Road Evanston, Illinois 60208-3113 INTRODUCTION truncorum for Raleigh, North Carolina, about 320 km SSE of Salem (Shelley, 1978) is the southernmost In the fall 2000, author SB cleared the underbrush known occurrence of this species in the United States. of an Eastern White Pine (Pinus strobus L.) grove in his This milliped has also been documented for Brazil backyard located in an urban area of Salem, Virginia (Chamberlin & Hoffman, 1958; Hoffman, 1999). (USA) by cutting and removing the lower branches. About a year later, he revisited the same trees and Natural History Observations noticed copious resinous exudations originating from the branch stumps, particularly on five of the trees. Berlese extractions from P. strobus leaf litter were There, he observed about twenty millipeds, later conducted in November 2001 and yielded a maximum identified as Cylindroiulus truncorum (Silvestri, 1896; of about 50 C. truncorum per 0.25 m2 (= 200 C. species group reviewed by Korsós & Enghoff, 1990), truncorum per m2). In his many years of studying soil attached to the resin, 1-2 meters above ground (Fig. 1). invertebrates and running numerous Berlese samples, Voucher specimens of Cylindroiulus truncorum are particularly in southwestern Virginia, RLH has seldom deposited at the Virginia Museum of Natural History encountered millipeds under pine litter. -
Millipedes (Diplopoda) from Caves of Portugal
A.S.P.S. Reboleira and H. Enghoff – Millipedes (Diplopoda) from caves of Portugal. Journal of Cave and Karst Studies, v. 76, no. 1, p. 20–25. DOI: 10.4311/2013LSC0113 MILLIPEDES (DIPLOPODA) FROM CAVES OF PORTUGAL ANA SOFIA P.S. REBOLEIRA1 AND HENRIK ENGHOFF2 Abstract: Millipedes play an important role in the decomposition of organic matter in the subterranean environment. Despite the existence of several cave-adapted species of millipedes in adjacent geographic areas, their study has been largely ignored in Portugal. Over the last decade, intense fieldwork in caves of the mainland and the island of Madeira has provided new data about the distribution and diversity of millipedes. A review of millipedes from caves of Portugal is presented, listing fourteen species belonging to eight families, among which six species are considered troglobionts. The distribution of millipedes in caves of Portugal is discussed and compared with the troglobiont biodiversity in the overall Iberian Peninsula and the Macaronesian archipelagos. INTRODUCTION All specimens from mainland Portugal were collected by A.S.P.S. Reboleira, while collectors of Madeiran speci- Millipedes play an important role in the decomposition mens are identified in the text. Material is deposited in the of organic matter, and several species around the world following collections: Zoological Museum of University of have adapted to subterranean life, being found from cave Copenhagen, Department of Animal Biology, University of entrances to almost 2000 meters depth (Culver and Shear, La Laguna, Spain and in the collection of Sofia Reboleira, 2012; Golovatch and Kime, 2009; Sendra and Reboleira, Portugal. 2012). Although the millipede faunas of many European Species were classified according to their degree of countries are relatively well studied, this is not true of dependence on the subterranean environment, following Portugal. -
Oak Woodland Litter Spiders James Steffen Chicago Botanic Garden
Oak Woodland Litter Spiders James Steffen Chicago Botanic Garden George Retseck Objectives • Learn about Spiders as Animals • Learn to recognize common spiders to family • Learn about spider ecology • Learn to Collect and Preserve Spiders Kingdom - Animalia Phylum - Arthropoda Subphyla - Mandibulata Chelicerata Class - Arachnida Orders - Acari Opiliones Pseudoscorpiones Araneae Spiders Arachnids of Illinois • Order Acari: Mites and Ticks • Order Opiliones: Harvestmen • Order Pseudoscorpiones: Pseudoscorpions • Order Araneae: Spiders! Acari - Soil Mites Characteriscs of Spiders • Usually four pairs of simple eyes although some species may have less • Six pair of appendages: one pair of fangs (instead of mandibles), one pair of pedipalps, and four pair of walking legs • Spinnerets at the end of the abdomen, which are used for spinning silk threads for a variety of purposes, such as the construction of webs, snares, and retreats in which to live or to wrap prey • 1 pair of sensory palps (often much larger in males) between the first pair of legs and the chelicerae used for sperm transfer, prey manipulation, and detection of smells and vibrations • 1 to 2 pairs of book-lungs on the underside of abdomen • Primitively, 2 body regions: Cephalothorax, Abdomen Spider Life Cycle • Eggs in batches (egg sacs) • Hatch inside the egg sac • molt to spiderlings which leave from the egg sac • grows during several more molts (instars) • at final molt, becomes adult – Some long-lived mygalomorphs (tarantulas) molt after adulthood Phenology • Most temperate -
The Common Spiders of Antelope Island State Park
THE COMMON SPIDERS OF ANTELOPE ISLAND STATE PARK by Stephanie M Cobbold Web-building Spiders ______________________________________________________________________________ Family Araneidae (orb web spiders) Build a circular spiral web on support lines that radiate out from the center The spider is often found waiting for prey in the center of its web Typical eye pattern: 4 median eyes clustered in a square shape Eye pattern Orb web SMC SMC Neoscona (back and front views) Banded Garden Spider (Argiope) 1 ______________________________________________________________________________ Family Theridiidae (cob web spiders) Abdomen usually ball or globe-shaped Have bristles on legs called combs. These combs are used to fling silk strands over captive prey. Web is loose, irregular and 3-dimensional commons.wikimedia.org Black Widow (Latrodectus hesperus) Theridion ________________________________________________________________________ Family Linyphiidae (sheet web spiders) Build flat, sheet-like or dome-shaped webs under which the spider hangs upside- down. Abdomen is usually longer than wide SMC Sheet web spider hanging under its web 2 ________________________________________________________________________ Family Dictynidae (mesh web spiders) Make small, irregular webs of hackled threads Often found near the tips of plants SMC ________________________________________________________________________ Family Agelenidae (funnel web spiders) Web is a silk mat with a funnel-shaped retreat at one end in which the spider waits in ambush -
Clothes Moths ENTFACT-609 by Michael F
Clothes Moths ENTFACT-609 By Michael F. Potter, Extension Entomologist, University of Kentucky Clothes moths are pests that can destroy fabric and other materials. They feed exclusively on animal fibers, especially wool, fur, silk, feathers, felt, and leather. These materials contain keratin, a fibrous protein that the worm-like larvae of the clothes moth can digest. (In nature, the larvae feed on the nesting materials or carcasses of birds and mam- mals.) Cotton and synthetic fabrics such as poly- ester and rayon are rarely attacked unless blended with wool, or heavily soiled with food stains or body oils. Serious infestations of clothes moths Fig. 1b: Indianmeal moth can develop undetected in dwellings, causing ir- Two different types of clothes moths are common reparable harm to vulnerable materials. in North America — the webbing clothes moth Facts about Clothes Moths (Tineola bisselliella) and the casemaking clothes moth (Tinea pellionella). Adult webbing clothes Clothes moths are small, 1/2-inch moths that are moths are a uniform, buff-color, with a small tuft beige or buff-colored. They have narrow wings of reddish hairs on top of the head. Casemaking that are fringed with small hairs. They are often clothes moths are similar in appearance, but have mistaken for grain moths infesting stored food dark specks on the wings. Clothes moth adults do items in kitchens and pantries. Unlike some other not feed so they cause no injury to fabrics. How- types of moths, clothes moths are seldom seen be- ever, the adults lay about 40-50 pinhead-sized cause they avoid light. -
The Coume Ouarnède System, a Hotspot of Subterranean Biodiversity in Pyrenees (France)
diversity Article The Coume Ouarnède System, a Hotspot of Subterranean Biodiversity in Pyrenees (France) Arnaud Faille 1,* and Louis Deharveng 2 1 Department of Entomology, State Museum of Natural History, 70191 Stuttgart, Germany 2 Institut de Systématique, Évolution, Biodiversité (ISYEB), UMR7205, CNRS, Muséum National d’Histoire Naturelle, Sorbonne Université, EPHE, 75005 Paris, France; [email protected] * Correspondence: [email protected] Abstract: Located in Northern Pyrenees, in the Arbas massif, France, the system of the Coume Ouarnède, also known as Réseau Félix Trombe—Henne Morte, is the longest and the most complex cave system of France. The system, developed in massive Mesozoic limestone, has two distinct resur- gences. Despite relatively limited sampling, its subterranean fauna is rich, composed of a number of local endemics, terrestrial as well as aquatic, including two remarkable relictual species, Arbasus cae- cus (Simon, 1911) and Tritomurus falcifer Cassagnau, 1958. With 38 stygobiotic and troglobiotic species recorded so far, the Coume Ouarnède system is the second richest subterranean hotspot in France and the first one in Pyrenees. This species richness is, however, expected to increase because several taxonomic groups, like Ostracoda, as well as important subterranean habitats, like MSS (“Milieu Souterrain Superficiel”), have not been considered so far in inventories. Similar levels of subterranean biodiversity are expected to occur in less-sampled karsts of central and western Pyrenees. Keywords: troglobionts; stygobionts; cave fauna Citation: Faille, A.; Deharveng, L. The Coume Ouarnède System, a Hotspot of Subterranean Biodiversity in Pyrenees (France). Diversity 2021, 1. Introduction 13 , 419. https://doi.org/10.3390/ Stretching at the border between France and Spain, the Pyrenees are known as one d13090419 of the subterranean hotspots of the world [1]. -
Morphology, Taxonomy, and Biology of Larval Scarabaeoidea
Digitized by the Internet Archive in 2011 with funding from University of Illinois Urbana-Champaign http://www.archive.org/details/morphologytaxono12haye ' / ILLINOIS BIOLOGICAL MONOGRAPHS Volume XII PUBLISHED BY THE UNIVERSITY OF ILLINOIS *, URBANA, ILLINOIS I EDITORIAL COMMITTEE John Theodore Buchholz Fred Wilbur Tanner Charles Zeleny, Chairman S70.S~ XLL '• / IL cop TABLE OF CONTENTS Nos. Pages 1. Morphological Studies of the Genus Cercospora. By Wilhelm Gerhard Solheim 1 2. Morphology, Taxonomy, and Biology of Larval Scarabaeoidea. By William Patrick Hayes 85 3. Sawflies of the Sub-family Dolerinae of America North of Mexico. By Herbert H. Ross 205 4. A Study of Fresh-water Plankton Communities. By Samuel Eddy 321 LIBRARY OF THE UNIVERSITY OF ILLINOIS ILLINOIS BIOLOGICAL MONOGRAPHS Vol. XII April, 1929 No. 2 Editorial Committee Stephen Alfred Forbes Fred Wilbur Tanner Henry Baldwin Ward Published by the University of Illinois under the auspices of the graduate school Distributed June 18. 1930 MORPHOLOGY, TAXONOMY, AND BIOLOGY OF LARVAL SCARABAEOIDEA WITH FIFTEEN PLATES BY WILLIAM PATRICK HAYES Associate Professor of Entomology in the University of Illinois Contribution No. 137 from the Entomological Laboratories of the University of Illinois . T U .V- TABLE OF CONTENTS 7 Introduction Q Economic importance Historical review 11 Taxonomic literature 12 Biological and ecological literature Materials and methods 1%i Acknowledgments Morphology ]* 1 ' The head and its appendages Antennae. 18 Clypeus and labrum ™ 22 EpipharynxEpipharyru Mandibles. Maxillae 37 Hypopharynx <w Labium 40 Thorax and abdomen 40 Segmentation « 41 Setation Radula 41 42 Legs £ Spiracles 43 Anal orifice 44 Organs of stridulation 47 Postembryonic development and biology of the Scarabaeidae Eggs f*' Oviposition preferences 48 Description and length of egg stage 48 Egg burster and hatching Larval development Molting 50 Postembryonic changes ^4 54 Food habits 58 Relative abundance. -
Stored Grain Insects and Pea Weevil (Live) Insects Large – Dead Or Alive
To whom it may concern, Proposal for GTA Standards change regarding Cereal grains for categories: Stored Grain Insects and Pea Weevil (live) Insects Large – dead or alive Currently there is a lack of reference with insects of NIL tolerance applied by DA for export and that listed within GTA standards. This has the potential to cause contract disputes especially in the grower direct to port transactions. At present if a supplier delivers grain with live insects for example Small-eyed flour beetles and Black fungus beetles, there is no reference in the standards that declare such insects as NIL tolerance. If the buyer was loading a container direct for export this would pose a problem due to the NIL tolerance being applied by DA for export phytosanitary requirements. These insects are in the same category as Psocids which are listed in GTA receival standards. I would like to see the GTA "Stored Grain Insects and Pea Weevil (live)" & "Insects Large – dead or alive" reflect the Department of Agriculture PEOM 6a: Pests, Diseases and Contaminants of Grain and Plant Products (excluding horticulture) http://www.agriculture.gov.au/SiteCollectionDocuments/aqis/exporting/plants-exports-operation-manual/vol6A.pdf I put forward the motion to have all major and minor injurious pests listed within PEOM 6a that apply to cereal grains to be of NIL tolerance within the GTA standards. 1) This would involve moving the Hairy Fungus Beetle Typhaea stercorea from “Insects Large – dead or alive” to the list of “Stored Grain Insects and Pea Weevil (live)”. Thus taking it from a tolerance level of 3 per half litre to NIL. -
Estados Inmaduros De Lygaeinae (Hemiptera: Heteroptera
Disponible en www.sciencedirect.com Revista Mexicana de Biodiversidad Revista Mexicana de Biodiversidad 86 (2015) 34-40 www.ib.unam.mx/revista/ Taxonomía y sistemática Estados inmaduros de Lygaeinae (Hemiptera: Heteroptera: Lygaeidae) de Baja California, México Immature instars of Lygaeinae (Hemiptera: Heteroptera: Lygaeidae) from Baja California, Mexico Luis Cervantes-Peredoa,* y Jezabel Báez-Santacruzb a Instituto de Ecología, A. C. Carretera Antigua a Coatepec 351, 91070 Xalapa, Veracruz, México b Laboratorio de Entomología, Facultad de Biología, Universidad Michoacana de San Nicolás de Hidalgo, Sócrates Cisneros Paz, 58040 Morelia, Michoacán, México Recibido el 26 de mayo de 2014; aceptado el 17 de septiembre de 2014 Resumen Se describen los estados inmaduros de 3 especies de chinches Lygaeinae provenientes de la península de Baja California, México. Se ilustran y describen en detalle todos los estadios de Melacoryphus nigrinervis (Stål) y de Oncopeltus (Oncopeltus) sanguinolentus Van Duzee. Para Lygaeus kalmii kalmii Stål se ilustran y describen los estadios cuarto y quinto. Se incluyen también notas acerca de la biología y distribución de las especies estudiadas. Derechos Reservados © 2015 Universidad Nacional Autónoma de México, Instituto de Biología. Este es un artículo de acceso abierto distribuido bajo los términos de la Licencia Creative Commons CC BY-NC-ND 4.0. Palabras clave: Asclepias; Asteraceae; Plantas huéspedes; Diversidad de insectos; Chinches Abstract Immature stages of 3 species of Lygaeinae from the Peninsula of Baja California, Mexico are described. Illustrations and detailed descriptions of all instars of Oncopeltus (Oncopeltus) sanguinolentus Van Duzee and Melacoryphus nigrinervis (Stål); for Lygaeus kalmii kalmii Stål fourth and fifth instars are described and illustrated. -
Context-Dependence and the Development of Push-Pull Approaches for Integrated Management of Drosophila Suzukii
insects Review Context-Dependence and the Development of Push-Pull Approaches for Integrated Management of Drosophila suzukii 1 1, , 2, , Jeroen T. Alkema , Marcel Dicke * y and Bregje Wertheim * y 1 Laboratory of Entomology, Wageningen University, P.O. Box 16, 6700AA Wageningen, The Netherlands; [email protected] 2 Groningen Institute of Evolutionary Life Sciences, University of Groningen, P.O. Box 11103, 9700 CC Groningen, The Netherlands * Correspondence: [email protected] (M.D.); [email protected] (B.W.) Shared senior authors and corresponding authors. y Received: 13 November 2019; Accepted: 10 December 2019; Published: 15 December 2019 Abstract: Sustainable pest control requires a systems approach, based on a thorough ecological understanding of an agro-ecosystem. Such fundamental understanding provides a basis for developing strategies to manipulate the pest’s behaviour, distribution, and population dynamics, to be employed for crop protection. This review focuses on the fundamental knowledge required for the development of an effective push-pull approach. Push-pull is a strategy to repel a pest from a crop, while attracting it toward an external location. It often relies on infochemicals (e.g., pheromones or allelochemicals) that are relevant in the ecology of the pest insect and can be exploited as lure or repellent. Importantly, responsiveness of insects to infochemicals is dependent on both the insect’s internal physiological state and external environmental conditions. This context-dependency reflects the integration of cues from different sensory modalities, the effect of mating and/or feeding status, as well as diurnal or seasonal rhythms. Furthermore, when the costs of responding to an infochemical outweigh the benefits, resistance can rapidly evolve. -
Darkling Beetles and Mealworms Theresa A
Darkling Beetles and Mealworms Theresa A. Dellinger and Eric R. Day, Department of Entomology, Virginia Tech Description Darkling beetles belong in the beetle family Tenebrionidae, which consists of more than 20,000 species of beetles. Adult darkling beetles widely range in shape and size, with most measuring from 2 – 19 mm (0.13” – 0.75”). Adults are usually a reddish-brown to brownish-black in color and can be shiny or dull. The elytra (the wing covers) can be smooth, grooved, or otherwise sculptured. Most do not have colorful patterns on their wing covers. Adults are most active at night and tend to avoid bright lights. Darkling beetle larvae are often referred to as mealworms or false wireworms. They are long, hard-bodied grubs with a cylindrical shape and are shiny yellow-brown to darKer brown in color. They are active crawlers. Yellow mealworm larva, top. Dark mealworm larva, bottom. Clemson University-USDA Cooperative Adult yellow mealworm, Tenebrio molitor. Extension Slide Series, Bugwood.org. Clemson University-USDA Cooperative Extension Slide Series, Bugwood.org. Life Cycle Darkling beetles have a complete life cycle with egg, larval, pupal, and adult stages. Most species of darkling beetles have a slow rate of development and may live for a year as an adult. Species living on grains or other stored products may develop faster. Habitat/Distribution Darkling beetles are found throughout the world except for places with very cold climates. They are scavengers and omnivores, feeding on decomposing plant material, dead insects, fungi, and stored products. Only a handful of darkling beetles are considered pests; the vast majority of them live in the wild and pose no harm. -
Universidade Federal De Santa Catarina Centro De Ciências Agrárias Departamento De Fitotecnia
UNIVERSIDADE FEDERAL DE SANTA CATARINA CENTRO DE CIÊNCIAS AGRÁRIAS DEPARTAMENTO DE FITOTECNIA Controle biológico com Coleoptera: Coccinellidae das cochonilhas (Homoptera: Diaspididae, Dactylopiidae), pragas da “palma forrageira”. Ícaro Daniel Petter FLORIANÓPOLIS, SANTA CATARINA NOVEMBRO DE 2010 UNIVERSIDADE FEDERAL DE SANTA CATARINA CENTRO DE CIÊNCIAS AGRÁRIAS DEPARTAMENTO DE FITOTECNIA Controle biológico com Coleoptera: Coccinellidae das cochonilhas (Homoptera: Diaspididae, Dactylopiidae), pragas da “palma forrageira”. Relatório do Estágio de Conclusão do Curso de Agronomia Graduando: Ícaro Daniel Petter Orientador: César Assis Butignol FLORIANÓPOLIS, SANTA CATARINA NOVEMBRO DE 2010 ii Aos meus pais, por tudo, minha mais profunda gratidão e consideração. iii AGRADECIMENTOS À UFSC e à Embrapa (CPATSA) pelo apoio na realização do estágio. Ao Professor César Assis Butignol pela orientação. A todos que, de alguma forma, contribuíram positivamente na minha graduação, meus sinceros agradecimentos. iv RESUMO Neste trabalho relata-se o programa de controle biológico das cochonilhas, Diaspis echinocacti Bouché, 1833 (Homoptera: Diaspididae) e Dactylopius opuntiae Cockerell, 1896 (Homoptera: Dactylopiidae), pragas da “palma forrageira” (Opuntia ficus-indica (Linnaeus) Mill, e Nopalea cochenillifera Salm- Dyck) (Cactaceae), no semi-árido nordestino, atualmente desenvolvido pela Embrapa Semi-Árido (CPATSA) em Petrolina (PE). Os principais trabalhos foram com duas espécies de coccinelídeos predadores, a exótica Cryptolaemus montrouzieri Mulsant,