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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. -
Pollinator Butterfly Habitat
The ecology and conservation of grassland butterflies in the central U.S. Dr. Ray Moranz Moranz Biological Consulting 4514 North Davis Court Stillwater, Oklahoma 74075 Outline of the Presentation, Part I • Basic butterfly biology • Butterflies as pollinators • Rare butterflies of Kansas Outline of the Presentation, Part 2 • Effects of fire and grazing on grassland butterflies • Resources to learn more about butterflies • 15 common KS butterflies Life Cycle of a Painted Lady, Vanessa cardui Egg Larva Adult Chrysalis Some butterflies migrate The Monarch is the best-known migratory butterfly Knife River Indian Villages National Historic Site, North Dakota Fall migratory pathways of the Monarch The Painted Lady is another migrant Kirtland Air Force Base, New Mexico Other butterflies are non- migratory Such as this regal fritillary, seen in Anderson County, Kansas Implications of migratory status -migratory butterflies aren’t vulnerable to prescribed burns in winter and early spring (they haven’t arrived yet) -full-year resident butterflies ARE vulnerable to winter and spring fires -migratory butterflies may need lots of nectar sources on their flyway to fuel their flight Most butterfly caterpillars are host plant specialists Implications of host plant specialization • If you have the host plant, you probably have the butterfly • If you plant their host, the butterfly may follow • If you and your neighbors lack the host plants, you are unlikely to see the butterflies except during migration Butterflies as pollinators • Bees pollinate more plant -
Dipterists Forum
BULLETIN OF THE Dipterists Forum Bulletin No. 76 Autumn 2013 Affiliated to the British Entomological and Natural History Society Bulletin No. 76 Autumn 2013 ISSN 1358-5029 Editorial panel Bulletin Editor Darwyn Sumner Assistant Editor Judy Webb Dipterists Forum Officers Chairman Martin Drake Vice Chairman Stuart Ball Secretary John Kramer Meetings Treasurer Howard Bentley Please use the Booking Form included in this Bulletin or downloaded from our Membership Sec. John Showers website Field Meetings Sec. Roger Morris Field Meetings Indoor Meetings Sec. Duncan Sivell Roger Morris 7 Vine Street, Stamford, Lincolnshire PE9 1QE Publicity Officer Erica McAlister [email protected] Conservation Officer Rob Wolton Workshops & Indoor Meetings Organiser Duncan Sivell Ordinary Members Natural History Museum, Cromwell Road, London, SW7 5BD [email protected] Chris Spilling, Malcolm Smart, Mick Parker Nathan Medd, John Ismay, vacancy Bulletin contributions Unelected Members Please refer to guide notes in this Bulletin for details of how to contribute and send your material to both of the following: Dipterists Digest Editor Peter Chandler Dipterists Bulletin Editor Darwyn Sumner Secretary 122, Link Road, Anstey, Charnwood, Leicestershire LE7 7BX. John Kramer Tel. 0116 212 5075 31 Ash Tree Road, Oadby, Leicester, Leicestershire, LE2 5TE. [email protected] [email protected] Assistant Editor Treasurer Judy Webb Howard Bentley 2 Dorchester Court, Blenheim Road, Kidlington, Oxon. OX5 2JT. 37, Biddenden Close, Bearsted, Maidstone, Kent. ME15 8JP Tel. 01865 377487 Tel. 01622 739452 [email protected] [email protected] Conservation Dipterists Digest contributions Robert Wolton Locks Park Farm, Hatherleigh, Oakhampton, Devon EX20 3LZ Dipterists Digest Editor Tel. -
Arid-Adapted Antlion Brachynemurus Sackeni Hagen (Neuroptera: Myrmeleontidae)
Hindawi Publishing Corporation Psyche Volume 2010, Article ID 804709, 7 pages doi:10.1155/2010/804709 Research Article Phylogeographic Investigations of the Widespread, Arid-Adapted Antlion Brachynemurus sackeni Hagen (Neuroptera: Myrmeleontidae) Joseph S. Wilson, Kevin A. Williams, Clayton F. Gunnell, and James P. Pitts Department of Biology, Utah State University, 5305 Old Main Hill, Logan, UT 84322, USA Correspondence should be addressed to Joseph S. Wilson, [email protected] Received 10 June 2010; Accepted 16 November 2010 Academic Editor: Coby Schal Copyright © 2010 Joseph S. Wilson et al. This is an open access article distributed under the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited. Several recent studies investigating patterns of diversification in widespread desert-adapted vertebrates have associated major periods of genetic differentiation to late Neogene mountain-building events; yet few projects have addressed these patterns in widespread invertebrates. We examine phylogeographic patterns in the widespread antlion species Brachynemurus sackeni Hagen (Neuroptera: Myrmeleontidae) using a region of the mitochondrial gene cytochrome oxidase I (COI). We then use a molecular clock to estimate divergence dates for the major lineages. Our analyses resulted in a phylogeny that shows two distinct lineages, both of which are likely distinct species. This reveals the first cryptic species-complex in Myrmeleontidae. The genetic split between lineages dates to about 3.8–4.7 million years ago and may be associated with Neogene mountain building. The phylogeographic pattern does not match patterns found in other taxa. Future analyses within this species-complex may uncover a unique evolutionary history in this group. -
Hundreds of Species of Aquatic Macroinvertebrates Live in Illinois In
Illinois A B aquatic sowbug Asellus sp. Photograph © Paul P.Tinerella AAqquuaattiicc mayfly A. adult Hexagenia sp.; B. nymph Isonychia sp. MMaaccrrooiinnvveerrtteebbrraatteess Photographs © Michael R. Jeffords northern clearwater crayfish Orconectes propinquus Photograph © Michael R. Jeffords ruby spot damselfly Hetaerina americana Photograph © Michael R. Jeffords aquatic snail Pleurocera acutum Photograph © Jochen Gerber,The Field Museum of Natural History predaceous diving beetle Dytiscus circumcinctus Photograph © Paul P.Tinerella monkeyface mussel Quadrula metanevra common skimmer dragonfly - nymph Libellula sp. Photograph © Kevin S. Cummings Photograph © Paul P.Tinerella water scavenger beetle Hydrochara sp. Photograph © Steve J.Taylor devil crayfish Cambarus diogenes A B Photograph © ChristopherTaylor dobsonfly Corydalus sp. A. larva; B. adult Photographs © Michael R. Jeffords common darner dragonfly - nymph Aeshna sp. Photograph © Paul P.Tinerella giant water bug Belostoma lutarium Photograph © Paul P.Tinerella aquatic worm Slavina appendiculata Photograph © Mark J. Wetzel water boatman Trichocorixa calva Photograph © Paul P.Tinerella aquatic mite Order Prostigmata Photograph © Michael R. Jeffords backswimmer Notonecta irrorata Photograph © Paul P.Tinerella leech - adult and young Class Hirudinea pygmy backswimmer Neoplea striola mosquito - larva Toxorhynchites sp. fishing spider Dolomedes sp. Photograph © William N. Roston Photograph © Paul P.Tinerella Photograph © Michael R. Jeffords Photograph © Paul P.Tinerella Species List Species are not shown in proportion to actual size. undreds of species of aquatic macroinvertebrates live in Illinois in a Kingdom Animalia Hvariety of habitats. Some of the habitats have flowing water while Phylum Annelida Class Clitellata Family Naididae aquatic worm Slavina appendiculata This poster was made possible by: others contain still water. In order to survive in water, these organisms Class Hirudinea leech must be able to breathe, find food, protect themselves, move and reproduce. -
Britain's Robberflies – Diptera Asilidae
Britain’s Robberflies – Diptera Asilidae Malcolm Smart Asilidae – the BIG CATS of the Diptera World Adults exclusively carnivorous predators of other insects – mostly other Diptera Larvae where known are also believed to be predatory What distinguishes a Robber Fly (an Asilid) from other Diptera ??? Example based on drawings and photos of Philonicus albiceps notch Two primary characters: * Eyes separated in both sexes by a deep notch at the top of mystax the head. * There is a central clump of down-curved bristles on the face above the upper mouth edge (called the mystax). Typically large and robust Diptera with elongated bodies . The proboscis is rigid and adapted for piercing insect cuticle. Asilidae species count with examples World Britain VCs surrounding Bedford Bedfordshire VC 7000+ 29 18 13 World distribution of Asilidae Genera and Species (after F. Geller-Grim) An introduction to the British Asilidae fauna compiled using data primarily from the following sources Data held by the Soldierflies and Allies Recording Scheme run by & Distribution maps derived from it at October 2016 (15900 Asilidae records) Photographs of Asilidae submitted to Facebook for identification or comment by: Lester Wareham, Mo Richards, Graham Dash, Martin Parr, Graham Brownlow, Mark Welch Albums of Asilidae photographs submitted for public scrutiny by wildlife/ dipterist specialists: Steven Falk, Janet Graham, Ian Andrews, Gail Hampshire Pictures offered by or requested from: Nigel Jones, Martin Harvey, Alan Outen, Mike Taylor, Tim Ransom, Tim Hodge, Fritz -
Aquatic Critters Aquatic Critters (Pictures Not to Scale) (Pictures Not to Scale)
Aquatic Critters Aquatic Critters (pictures not to scale) (pictures not to scale) dragonfly naiad↑ ↑ mayfly adult dragonfly adult↓ whirligig beetle larva (fairly common look ↑ water scavenger for beetle larvae) ↑ predaceous diving beetle mayfly naiad No apparent gills ↑ whirligig beetle adult beetle - short, clubbed antenna - 3 “tails” (breathes thru butt) - looks like it has 4 - thread-like antennae - surface head first - abdominal gills Lower jaw to grab prey eyes! (see above) longer than the head - swim by moving hind - surface for air with legs alternately tip of abdomen first water penny -row bklback legs (fbll(type of beetle larva together found under rocks damselfly naiad ↑ in streams - 3 leaf’-like posterior gills - lower jaw to grab prey damselfly adult↓ ←larva ↑adult backswimmer (& head) ↑ giant water bug↑ (toe dobsonfly - swims on back biter) female glues eggs water boatman↑(&head) - pointy, longer beak to back of male - swims on front -predator - rounded, smaller beak stonefly ↑naiad & adult ↑ -herbivore - 2 “tails” - thoracic gills ↑mosquito larva (wiggler) water - find in streams strider ↑mosquito pupa mosquito adult caddisfly adult ↑ & ↑midge larva (males with feather antennae) larva (bloodworm) ↑ hydra ↓ 4 small crustaceans ↓ crane fly ←larva phantom midge larva ↑ adult→ - translucent with silvery bflbuoyancy floats ↑ daphnia ↑ ostracod ↑ scud (amphipod) (water flea) ↑ copepod (seed shrimp) References: Aquatic Entomology by W. Patrick McCafferty ↑ rotifer prepared by Gwen Heistand for ACR Education midge adult ↑ Guide to Microlife by Kenneth G. Rainis and Bruce J. Russel 28 How do Aquatic Critters Get Their Air? Creeks are a lotic (flowing) systems as opposed to lentic (standing, i.e, pond) system. Look for … BREATHING IN AN AQUATIC ENVIRONMENT 1. -
A Molecular Phylogeny of the Neotropical Butterfly Genus Anartia
MOLECULAR PHYLOGENETICS AND EVOLUTION Molecular Phylogenetics and Evolution 26 (2003) 46–55 www.elsevier.com/locate/ympev A molecular phylogeny of the neotropical butterfly genus Anartia (Lepidoptera: Nymphalidae) Michael J. Blum,a,b,* Eldredge Bermingham,b and Kanchon Dasmahapatrab,c a Department of Biology, Duke University, Durham, NC 27705, USA b Smithsonian Tropical Research Institute, Naos Island Molecular Laboratories, Unit 0948, APO-AA 34002-0948, Panama, FL, USA c Department of Biology, Galton Laboratory, University College, 4 Stephenson Way, London NW1 2HE, UK Received 2 August 2001; received in revised form 17 June 2002 Abstract While Anartia butterflies have served as model organisms for research on the genetics of speciation, no phylogeny has been published to describe interspecific relationships. Here, we present a molecular phylogenetic analysis of Anartia species relationships, using both mitochondrial and nuclear genes. Analyses of both data sets confirm earlier predictions of sister species pairings based primarily on genital morphology. Yet both the mitochondrial and nuclear gene phylogenies demonstrate that Anartia jatrophae is not sister to all other Anartia species, but rather that it is sister to the Anartia fatima–Anartia amathea lineage. Traditional bi- ogeographic explanations for speciation across the genus relied on A. jatrophae being sister to its congeners. These explanations invoked allopatric divergence of sister species pairs and multiple sympatric speciation events to explain why A. jatrophae flies alongside all its congeners. The molecular phylogenies are more consistent with lineage divergence due to vicariance, and range expansion of A. jatrophae to explain its sympatry with congeners. Further interpretations of the tree topologies also suggest how morphological evolution and eco-geographic adaptation may have set species range boundaries. -
The Genus Atomosia Macquart (Diptera: Asilidae) in North America North of Mexico
08 July 2008 PROC. ENTOMOL. SOc. WASH. 110(3),2008, pp. 701-732 THE GENUS ATOMOSIA MACQUART (DIPTERA: ASILIDAE) IN NORTH AMERICA NORTH OF MEXICO JEFFREY K. BARNES The Arthropod Museum, Department of Entomology, University of Arkansas, Fayetteville, AR 72701-1201, U.S.A. (e-mail: [email protected]) Abstract.-Atomosia arkansensis, new species, is described from specimens collected in blackland prairie in southern Arkansas, and Atomosia tibialis is reported the first time from North America north of Mexico. A new key to Nearctic Atomosia species is presented. Atomosia melanopogon and A. mucida are noted to be sexually dimorphic. In addition to more standard characters, the open or closed condition of cell r5 and the length of the pedicel and flagellum relative to the length of the scape are· used to distinguish similar species. Lectotypes are designated for Atomosia mucida, Atomosia puella, and Atomosia sayii. Atomosia echemon is synonymized with A. puella (new synonymy), and A. mucidoides is synonymized with A. sayii (new synonymy). Key Words: Diptera, Brachycera, robber fly, Asilidae, Atomosia, Nearctic The New World genus Atomosia Mac for species identification and does not quart consists of small, robust robber utilize some highly diagnostic morpho flies with elongate, slender antennae and logical characters, such as the relative a punctulate abdomen. It comprises sizes of the antennomeres and the more than 50 Neotropical species and condition of wing cell r5. It is also a fewer than 10 Nearctic species (Martin confusing key in that some species key and Papavero 1970, Poole 1996, Scar out at more than one couplet. Bromley's brough and Perez-Gelabert 2006). -
Gut Content Metabarcoding Unveils the Diet of a Flower‐Associated Coastal
ECOSPHERE NATURALIST No guts, no glory: Gut content metabarcoding unveils the diet of a flower-associated coastal sage scrub predator PAUL MASONICK , MADISON HERNANDEZ, AND CHRISTIANE WEIRAUCH Department of Entomology, University of California, Riverside, 900 University Avenue, Riverside, California 92521 USA Citation: Masonick, P., M. Hernandez, and C. Weirauch. 2019. No guts, no glory: Gut content metabarcoding unveils the diet of a flower-associated coastal sage scrub predator. Ecosphere 10(5):e02712. 10.1002/ecs2.2712 Abstract. Invertebrate generalist predators are ubiquitous and play a major role in food-web dynamics. Molecular gut content analysis (MGCA) has become a popular means to assess prey ranges and specificity of cryptic arthropods in the absence of direct observation. While this approach has been widely used to study predation on economically important taxa (i.e., pests) in agroecosystems, it is less frequently used to study the broader trophic interactions involving generalist predators in natural communities such as the diverse and threatened coastal sage scrub communities of Southern California. Here, we employ DNA metabarcoding-based MGCA and survey the taxonomically and ecologically diverse prey range of Phymata pacifica Evans, a generalist flower-associated ambush bug (Hemiptera: Reduviidae). We detected predation on a wide array of taxa including beneficial pollinators, potential pests, and other predatory arthropods. The success of this study demonstrates the utility of MGCA in natural ecosystems and can serve as a model for future diet investigations into other cryptic and underrepresented communities. Key words: biodiversity; blocking primers; DNA detectability half-life; Eriogonum fasciculatum; food webs; intraguild predation; natural enemies. Received 24 January 2019; accepted 11 February 2019. -
2009 Pinon Canyon Invertebrate Survey Report
"- - 70.096 60.096 50.096 40.096 30.096 20.096 10.096 0.0% Fig. 1 Most abundant Apiformes species calculated as a proportion of the total abundance of Apiformes in the collection period. Pinon Canyon Maneuver Site, 2008. 04% 1 j 0.391> 0.2% 0.1% 0.0% Fig. 2 Least abundant Apiformes species calculated as a proportion of the total abundance of Apiformes in the collection period. Pinon Canyon Maneuver Site, 2008.7 Fig. 3 Most abundant Carabidae species calculated as a proportion of the total abundance of Carabidae in the collection period. Pinon Canyon Maneuver Site, 2008. Fig. 4 Least abundant Carabidae species calculated as a proportion of the total abundance of Carabidae in the collection period. Pinon Canyon Maneuver Site, 2008. Fig. 5 Asilidae species abundance calculated as a proportion of the total abundace of Asilidae in the collection period. Pinon Canyon Maneuver Site, 2008. 30.0% 25.0% 20.0% 15.0% 10.0% 5.0% 0.0% Fig. 6 Butterfly species abundance calculated as a proportion of the total abundance of butterflies in the collection period. Pinon Canyon Maneuver Site, 2008. Fig. 7 Most abundant Orthoptera species calculated as a proportion of the total abundance of Orthoptera in the collection period. Pinon Canyon Maneuver Site, 2008. Fig. 8 Moderately abundant Orthoptera species calculated as a proportion of the total abundance of Orthoptera in the collection period. Pinon Canyon Maneuver Site, 2008. Fig. 9 Least abundant Orthoptera species calculated as a proportion of the total abundance of Orthoptera in the collection period. -
Pick Your Poison: Molecular Evolution of Venom Proteins in Asilidae (Insecta: Diptera)
toxins Article Pick Your Poison: Molecular Evolution of Venom Proteins in Asilidae (Insecta: Diptera) Chris M. Cohen * , T. Jeffrey Cole and Michael S. Brewer * Howell Science Complex, East Carolina University, 1000 E 5th St., Greenville, NC 27858, USA; [email protected] * Correspondence: [email protected] (C.M.C.); [email protected] (M.S.B.) Received: 5 November 2020; Accepted: 20 November 2020; Published: 24 November 2020 Abstract: Robber flies are an understudied family of venomous, predatory Diptera. With the recent characterization of venom from three asilid species, it is possible, for the first time, to study the molecular evolution of venom genes in this unique lineage. To accomplish this, a novel whole-body transcriptome of Eudioctria media was combined with 10 other publicly available asiloid thoracic or salivary gland transcriptomes to identify putative venom gene families and assess evidence of pervasive positive selection. A total of 348 gene families of sufficient size were analyzed, and 33 of these were predicted to contain venom genes. We recovered 151 families containing homologs to previously described venom proteins, and 40 of these were uniquely gained in Asilidae. Our gene family clustering suggests that many asilidin venom gene families are not natural groupings, as delimited by previous authors, but instead form multiple discrete gene families. Additionally, robber fly venoms have relatively few sites under positive selection, consistent with the hypothesis that the venoms of older lineages are dominated by negative selection acting to maintain toxic function. Keywords: Asilidae; transcriptome; positive selection Key Contribution: Asilidae venoms have relatively few sites under positive selection, consistent with the hypothesis that the venoms of older lineages are dominated by negative selection acting to maintain toxic function.