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The Effects of Sexual Dimorphism on Toxic Prey Avoidance in the Chinese Praying Mantis, Tenodera Sinensis
MUShare Undergraduate Research Symposium (URS) College of Arts and Sciences 12-5-2018 The Effects of Sexual Dimorphism on Toxic Prey Avoidance in the Chinese Praying Mantis, Tenodera sinensis Sophie Podgorski [email protected] Emma Swartz [email protected] Tisa Steinmeyer [email protected] Kayla I. Miller Ph.D. [email protected] Follow this and additional works at: https://mushare.marian.edu/urs Part of the Behavior and Ethology Commons, and the Biology Commons Recommended Citation Podgorski, Sophie; Swartz, Emma; Steinmeyer, Tisa; and Miller, Kayla I. Ph.D., "The Effects of Sexual Dimorphism on Toxic Prey Avoidance in the Chinese Praying Mantis, Tenodera sinensis" (2018). Undergraduate Research Symposium (URS). 4. https://mushare.marian.edu/urs/4 This Poster is brought to you for free and open access by the College of Arts and Sciences at MUShare. It has been accepted for inclusion in Undergraduate Research Symposium (URS) by an authorized administrator of MUShare. For more information, please contact [email protected]. The Effects of Sexual Dimorphism on Toxic Prey Avoidance in the Chinese Praying Mantis, Tenodera sinensis Sophie Podgorski, Emma Swartz, Tisa Steinmeyer, and Kayla I. Miller, PhD College of Arts and Sciences, Marian University Indianapolis 3200 Cold Spring Rd, Indianapolis, IN 46222 INTRODUCTION 0 MM AND 50 MM CONCENTRATION • This experiment strives to investigate if sex based behaviors in Figure 1. Figure 2. praying mantid feeding habits hold true when sexual Ethogram Ethogram dimorphism is not obvious in juvenile mantids showing the showing the • Sensitivity to bitter tastes provides an important means for activity activity happening happening animals to detect various toxic compounds in food (Wooding et during the during the al. -
Mantodea (Insecta), with a Review of Aspects of Functional Morphology and Biology
aua o ew eaa Ramsay, G. W. 1990: Mantodea (Insecta), with a review of aspects of functional morphology and biology. Fauna of New Zealand 19, 96 pp. Editorial Advisory Group (aoimes mae o a oaioa asis MEMBERS AT DSIR PLANT PROTECTION Mou Ae eseac Cee iae ag Aucka ew eaa Ex officio ieco — M ogwo eae Sysemaics Gou — M S ugae Co-opted from within Systematics Group Dr B. A ooway Κ Cosy UIESIIES EESEAIE R. M. Emeso Eomoogy eame ico Uiesiy Caeuy ew eaa MUSEUMS EESEAIE M R. L. ama aua isoy Ui aioa Museum o iae ag Weigo ew eaa OESEAS REPRESENTATIVE J. F. awece CSIO iisio o Eomoogy GO o 1700, Caea Ciy AC 2601, Ausaia Series Editor M C ua Sysemaics Gou SI a oecio Mou Ae eseac Cee iae ag Aucka ew eaa aua o ew eaa Number 19 Maoea (Iseca wi a eiew o asecs o ucioa mooogy a ioogy G W Ramsay SI a oecio M Ae eseac Cee iae ag Aucka ew eaa emoa us wig mooogy eosigma cooaio siuaio acousic sesiiiy eece eaiou egeeaio eaio aasiism aoogy a ie Caaoguig-i-uicaio ciaio AMSAY GW Maoea (Iseca – Weigo SI uisig 199 (aua o ew eaa ISS 111-533 ; o 19 IS -77-51-1 I ie II Seies UC 59575(931 Date of publication: see cover of subsequent numbers Suggese om o ciaio amsay GW 199 Maoea (Iseca wi a eiew o asecs o ucioa mooogy a ioogy Fauna of New Zealand [no.] 19. —— Fauna o New Zealand is eae o uicaio y e Seies Eio usig comue- ase e ocessig ayou a ase ie ecoogy e Eioia Aisoy Gou a e Seies Eio ackowege e oowig co-oeaio SI UISIG awco – sueisio o oucio a isiuio M C Maews – assisace wi oucio a makeig Ms A Wig – assisace wi uiciy a isiuio MOU AE ESEAC CEE SI Miss M oy -
Colour Transcript
Colour Transcript Date: Wednesday, 30 March 2011 - 6:00PM Location: Museum of London 30 March 2011 Colour Professor William Ayliffe Some of you in this audience will be aware that it is the 150th anniversary of the first colour photograph, which was projected at a lecture at the Royal Institute by James Clerk Maxwell. This is the photograph, showing a tartan ribbon, which was taken using the first SLR, invented by Maxwell’s friend. He took three pictures, using three different filters, and was then able to project this gorgeous image, showing three different colours for the first time ever. Colour and Colour Vision This lecture is concerned with the questions: “What is colour?” and “What is colour vision?” - not necessarily the same things. We are going to look at train crashes and colour blindness (which is quite gruesome); the antique use of colour in pigments – ancient red Welsh “Ladies”; the meaning of colour in medieval Europe; discovery of new pigments; talking about colour; language and colour; colour systems and the psychology of colour. So there is a fair amount of ground to cover here, which is appropriate because colour is probably one of the most complex issues that we deal with. The main purpose of this lecture is to give an overview of the whole field of colour, without going into depth with any aspects in particular. Obviously, colour is a function of light because, without light, we cannot see colour. Light is that part of the electromagnetic spectrum that we can see, and that forms only a tiny portion. -
Cryptic Female Mantids Signal Quality Through Brightness
Functional Ecology 2015, 29, 531–539 doi: 10.1111/1365-2435.12363 Sexual signals for the colour-blind: cryptic female mantids signal quality through brightness Katherine L. Barry*, Thomas E. White, Darshana N. Rathnayake, Scott A. Fabricant and Marie E. Herberstein Department of Biological Sciences, Macquarie University, Sydney, NSW 2109, Australia Summary 1. Cryptic coloration may evolve in response to selective pressure imposed by predators, yet effective intraspecific communication may require some level of detectability. This creates a tension between the benefits of sexually selected visual traits and the predatory costs imposed by greater conspicuousness, and little is known about how this tension may be ameliorated in highly cryptic species. 2. We explore these competing demands in the false garden mantid Pseudomantis albofimbriata, a colour-blind and seemingly cryptic insect. We use reflectance spectrometry and receptor-noise modelling to characterize the conspicuousness of mantid body regions in the visual systems of mates (mantids), as well as potential predators (birds) and prey (bees). We then use condition manipulation and conspecific choice tests to further explore the colour traits of interest. 3. Based on visual modelling, we find that male mantids are inconspicuous to conspecifics, prey and predators – that is, they are chromatically and achromatically cryptic. In contrast, female mantids are chromatically cryptic to all potential receivers, but their abdomens are achromatically conspicuous. Our food manipulation experiment shows that females in good condition (and therefore with more eggs) have brighter abdomens than females in poor condition. Choice assays show male mantids are consistently attracted to females bearing brighter abdomens. 4. Our results reveal brightness-mediated sexual signalling in a colour-blind and classically cryptic insect. -
Wetlands Invertebrates Banded Woollybear(Isabella Tiger Moth Larva)
Wetlands Invertebrates Banded Woollybear (Isabella Tiger Moth larva) basics The banded woollybear gets its name for two reasons: its furry appearance and the fact that, like a bear, it hibernates during the winter. Woollybears are the caterpillar stage of medium sized moths known as tiger moths. This family of moths rivals butterflies in beauty and grace. There are approximately 260 species of tiger moths in North America. Though the best-known woollybear is the banded woollybear, there are at least 8 woollybear species in the U.S. with similar dense, bristly hair covering their bodies. Woollybears are most commonly seen in the autumn, when they are just about finished with feeding for the year. It is at this time that they seek out a place to spend the winter in hibernation. They have been eating various green plants since June or early July to gather enough energy for their eventual transformation into butterflies. A full-grown banded woollybear caterpillar is nearly two inches long and covered with tubercles from which arise stiff hairs of about equal length. Its body has 13 segments. Middle segments are covered with red-orange hairs and the anterior and posterior ends with black hairs. The orange-colored oblongs visible between the tufts of setae (bristly hairs) are spiracles—entrances to the respiratory system. Hair color and band width are highly variable; often as the caterpillar matures, black hairs (especially at the posterior end) are replaced with orange hairs. In general, older caterpillars have more black than young ones. However, caterpillars that fed and grew in an area where the fall weather was wetter tend to have more black hair than caterpillars from dry areas. -
Lesson 3 Life Cycles of Insects
Praying Mantis 3A-1 Hi, boys and girls. It’s time to meet one of the most fascinating insects on the planet. That’s me. I’m a praying mantis, named for the way I hold my two front legs together as though I am praying. I might look like I am praying, but my incredibly fast front legs are designed to grab my food in the blink of an eye! Praying Mantis 3A-1 I’m here to talk to you about the life stages of insects—how insects develop from birth to adult. Many insects undergo a complete change in shape and appearance. I’m sure that you are already familiar with how a caterpillar changes into a butterfly. The name of the process in which a caterpillar changes, or morphs, into a butterfly is called metamorphosis. Life Cycle of a Butterfly 3A-2 Insects like the butterfly pass through four stages in their life cycles: egg, larva [LAR-vah], pupa, and adult. Each stage looks completely different from the next. The young never resemble, or look like, their parents and almost always eat something entirely different. Life Cycle of a Butterfly 3A-2 The female insect lays her eggs on a host plant. When the eggs hatch, the larvae [LAR-vee] that emerge look like worms. Different names are given to different insects in this worm- like stage, and for the butterfly, the larva state is called a caterpillar. Insect larvae: maggot, grub and caterpillar3A-3 Fly larvae are called maggots; beetle larvae are called grubs; and the larvae of butterflies and moths, as you just heard, are called caterpillars. -
Wax, Wings, and Swarms: Insects and Their Products As Art Media
Wax, Wings, and Swarms: Insects and their Products as Art Media Barrett Anthony Klein Pupating Lab Biology Department, University of Wisconsin—La Crosse, La Crosse, WI 54601 email: [email protected] When citing this paper, please use the following: Klein BA. Submitted. Wax, Wings, and Swarms: Insects and their Products as Art Media. Annu. Rev. Entom. DOI: 10.1146/annurev-ento-020821-060803 Keywords art, cochineal, cultural entomology, ethnoentomology, insect media art, silk 1 Abstract Every facet of human culture is in some way affected by our abundant, diverse insect neighbors. Our relationship with insects has been on display throughout the history of art, sometimes explicitly, but frequently in inconspicuous ways. This is because artists can depict insects overtly, but they can also allude to insects conceptually, or use insect products in a purely utilitarian manner. Insects themselves can serve as art media, and artists have explored or exploited insects for their products (silk, wax, honey, propolis, carmine, shellac, nest paper), body parts (e.g., wings), and whole bodies (dead, alive, individually, or as collectives). This review surveys insects and their products used as media in the visual arts, and considers the untapped potential for artistic exploration of media derived from insects. The history, value, and ethics of “insect media art” are topics relevant at a time when the natural world is at unprecedented risk. INTRODUCTION The value of studying cultural entomology and insect art No review of human culture would be complete without art, and no review of art would be complete without the inclusion of insects. Cultural entomology, a field of study formalized in 1980 (43), and ambitiously reviewed 35 years ago by Charles Hogue (44), clearly illustrates that artists have an inordinate fondness for insects. -
(Hemileuca Nuttalli) and GROUND MANTID (Litaneutria Minor) SEARCHES in the SOUTH OKANAGAN VALLEY, BRITISH COLUMBIA, 2009
NUTTALL’S BUCKMOTH (Hemileuca nuttalli) AND GROUND MANTID (Litaneutria minor) SEARCHES IN THE SOUTH OKANAGAN VALLEY, BRITISH COLUMBIA, 2009 By Vicky Young and Dawn Marks, BC Conservation Corps BC Ministry of Environment Internal Working Report September 23, 2009 ii EXECUTIVE SUMMARY The Nuttall’s Buckmoth (Hemileuca nuttalli) and Ground Mantid (Litaneutria minor) are two invertebrate species listed for inventory under the BC Conservation Framework (2009). The Nuttall’s Buckmoth is listed as a mid priority species on The COSEWIC Candidate List (COSEWIC 2009). The Ground Mantid may be recommended as a COSEWIC candidate (Rob Cannings, COSEWIC Arthropod subcommittee, pers. comm.). These species were included in a list of target species for the BC Conservation Corps grassland species inventory crew. The crew spent 4 days surveying antelope-brush habitats within the Southern Okanagan between August 24th and September 1st 2009. These searches did not result in any detection of either target species. This preliminary attempt to address the lack of data for these invertebrate species will help inform future inventory efforts. ACKNOWLEDGMENTS Funding for this project was provided by the BC Ministry of Environment through the BC Conservation Corps and through the BC Conservation Framework. We appreciate administrative support from the BC Conservation Foundation (Barb Waters). Guidance and mentorship was provided by Orville Dyer, Wildlife Biologist with the BC Ministry of Environment. Training regarding moth behaviour and identification was provided by Dennis St. John. Rob Cannings, Curator of Entomology, Royal BC Museum, provided insect biodiversity, insect inventory, collection of voucher specimens and identification training. Jerry Mitchell and Aaron Reid, biologists with the BC Ministry of Environment, provided assistance with Wildlife Species Inventory database submissions. -
Statecraft and Insect Oeconomies in the Global French Enlightenment (1670-1815)
Statecraft and Insect Oeconomies in the Global French Enlightenment (1670-1815) Pierre-Etienne Stockland Submitted in partial fulfillment of the requirements for the degree of Doctor of Philosophy in the Graduate School of Arts and Sciences COLUMBIA UNIVERSITY 2018 © 2017 Etienne Stockland All rights reserved ABSTRACT Statecraft and Insect Oeconomies in the Global French Enlightenment (1670-1815) Pierre-Etienne Stockland Naturalists, state administrators and farmers in France and its colonies developed a myriad set of techniques over the course of the long eighteenth century to manage the circulation of useful and harmful insects. The development of normative protocols for classifying, depicting and observing insects provided a set of common tools and techniques for identifying and tracking useful and harmful insects across great distances. Administrative techniques for containing the movement of harmful insects such as quarantine, grain processing and fumigation developed at the intersection of science and statecraft, through the collaborative efforts of diplomats, state administrators, naturalists and chemical practitioners. The introduction of insectivorous animals into French colonies besieged by harmful insects was envisioned as strategy for restoring providential balance within environments suffering from human-induced disequilibria. Naturalists, administrators, and agricultural improvers also collaborated in projects to maximize the production of useful substances secreted by insects, namely silk, dyes and medicines. A study of -
German Cockroach, Blattella Germanica (Linnaeus) (Insecta: Blattodea: Blattellidae)1 S
EENY-002 doi.org/10.32473/edis-in1283-2020 German Cockroach, Blattella germanica (Linnaeus) (Insecta: Blattodea: Blattellidae)1 S. Valles2 The Featured Creatures collection provides in-depth profiles of Distribution insects, nematodes, arachnids and other organisms relevant The German cockroach is found throughout the world to Florida. These profiles are intended for the use of interested in association with humans. They are unable to survive laypersons with some knowledge of biology as well as in locations away from humans or human activity. The academic audiences. major factor limiting German cockroach survival appears to be cold temperatures. Studies have shown that German Introduction cockroaches were unable to colonize inactive ships during The German cockroach (Figure 1) is the cockroach of cool temperatures and could not survive in homes without concern, the species that gives all other cockroaches a bad central heating in northern climates. The availability name. It occurs in structures throughout Florida, and is of water, food, and harborage also govern the ability of the species that typically plagues multifamily dwellings. In German cockroaches to establish populations, and limit Florida, the German cockroach may be confused with the growth. Asian cockroach, Blattella asahinai Mizukubo. While these cockroaches are very similar, there are some differences that Description a practiced eye can discern. Egg Eggs are carried in an egg case, or ootheca, by the female until just before hatch occurs. The ootheca can be seen protruding from the posterior end (genital chamber) of the female. Nymphs will often hatch from the ootheca while the female is still carrying it (Figure 2). -
An Overview of Systematics Studies Concerning the Insect Fauna of British Columbia
J ENTOMOL. Soc. B RIT. COLU MBIA 9 8. DECDmER 200 1 33 An overview of systematics studies concerning the insect fauna of British Columbia ROBERT A. CANNINGS ROYAL BRITISI-I COLUMBIA MUSEUM, 675 BELLEVILLE STREET, VICTORIA, BC, CANADA V8W 9W2 GEOFFREY G.E. SCUDDER DEPARTMENT OF ZOOLOGY, UNIVERSITY OF BRITISI-I COLUMBIA, VANCOUVER, BC, CANADA V6T IZ4 INTRODUCTION This summary of insect systematics pertaining to British Co lumbia is not intended as an hi storical account of entomologists and their work, but rath er is an overview of th e more important studies and publications dealing with the taxonomy, identifi cati on, distribution and faunistics of BC species. Some statistics on th e known size of various taxa are also give n. Many of the systematic references to th e province's insects ca nnot be presented in such a short summary as thi s and , as a res ult, the treatment is hi ghl y se lec tive. It deals large ly with publications appearing after 1950. We examine mainly terrestrial groups. Alth ough Geoff Scudder, Professor of Zoo logy at the University of Briti sh Co lumbi a, at Westwick Lake in the Cariboo, May 1970. Sc udder is a driving force in man y facets of in sect systemat ics in Briti sh Co lum bia and Canada. He is a world authority on th e Hemiptera. Photo: Rob Ca nnin gs. 34 J ENTOMOL. Soc BR IT. COLUMBIA 98, DECEMBER200 1 we mention the aquatic orders (those in which the larv ae live in water but the adults are aerial), they are more fully treated in the companion paper on aquatic in sects in thi s issue (Needham et al.) as are the major aquatic families of otherwise terrestrial orders (e.g. -
The Taxonomy of Utah Orthoptera with Notes on Distribution
Brigham Young University BYU ScholarsArchive Theses and Dissertations 1952-06-01 The Taxonomy of Utah orthoptera with notes on distribution Andrew H. Barnum Brigham Young University - Provo Follow this and additional works at: https://scholarsarchive.byu.edu/etd Part of the Life Sciences Commons BYU ScholarsArchive Citation Barnum, Andrew H., "The Taxonomy of Utah orthoptera with notes on distribution" (1952). Theses and Dissertations. 7622. https://scholarsarchive.byu.edu/etd/7622 This Thesis is brought to you for free and open access by BYU ScholarsArchive. It has been accepted for inclusion in Theses and Dissertations by an authorized administrator of BYU ScholarsArchive. For more information, please contact [email protected], [email protected]. THE TAXONOMY OF UTAH ORTHOP'J.'ERA WI'.l'H NOTES ON DISTRIBU'l'ION A Thesis submitted to the Department of Zoology and Entomology ot Brigham YOWJg U'ninraity In paJ"tial fulfillment ot the requirements tor the degree ot 1111.ater ot Arte by Andrew H. Barnum June 1962 This thesia by Andrew H. Barnwa is accepted 1n its present t'Ol"Dl by the Special Theaia Comnd:ttee a.a aatisfying the thed1 requirements tor ine degree ot ltaater or Arte. Signed 11 A theaia represents the combined efforts ot ma111inrliT1duala and groupa, many ot whom ha'Ye nner seen the completed product wt haYe rendered aasietanoe in some way to make its OOJn.pletionpo•sible. .Appreciation ia therefore extended to theee individuals for the assistance rendered. Appreciation is especially extended to Dr. Vasoo u. Tanner., head of: the Department of zoology and i,"lltomology of the Brigham Young University, under whose guidanoe and personal work a oolleotion of O:rthoptera was built up and which has been turned into the moat outstanding collection ill the state of Utah.