CHINESE MANTID (Praying Mantis; Tenodera Sinensis)
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
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. -
Developing Biodiverse Green Roofs for Japan: Arthropod and Colonizer Plant Diversity on Harappa and Biotope Roofs
20182018 Green RoofsUrban and Naturalist Urban Biodiversity SpecialSpecial Issue No. Issue 1:16–38 No. 1 A. Nagase, Y. Yamada, T. Aoki, and M. Nomura URBAN NATURALIST Developing Biodiverse Green Roofs for Japan: Arthropod and Colonizer Plant Diversity on Harappa and Biotope Roofs Ayako Nagase1,*, Yoriyuki Yamada2, Tadataka Aoki2, and Masashi Nomura3 Abstract - Urban biodiversity is an important ecological goal that drives green-roof in- stallation. We studied 2 kinds of green roofs designed to optimize biodiversity benefits: the Harappa (extensive) roof and the Biotope (intensive) roof. The Harappa roof mimics vacant-lot vegetation. It is relatively inexpensive, is made from recycled materials, and features community participation in the processes of design, construction, and mainte- nance. The Biotope roof includes mainly native and host plant species for arthropods, as well as water features and stones to create a wide range of habitats. This study is the first to showcase the Harappa roof and to compare biodiversity on Harappa and Biotope roofs. Arthropod species richness was significantly greater on the Biotope roof. The Harappa roof had dynamic seasonal changes in vegetation and mainly provided habitats for grassland fauna. In contrast, the Biotope roof provided stable habitats for various arthropods. Herein, we outline a set of testable hypotheses for future comparison of these different types of green roofs aimed at supporting urban biodiversity. Introduction Rapid urban growth and associated anthropogenic environmental change have been identified as major threats to biodiversity at a global scale (Grimm et al. 2008, Güneralp and Seto 2013). Green roofs can partially compensate for the loss of green areas by replacing impervious rooftop surfaces and thus, contribute to urban biodiversity (Brenneisen 2006). -
Curriculum Vitae
CURRICULUM VITAE Lawrence E. Hurd Phone: (540) 458-8484 Department of Biology FAX: 540-458-8012 Washington & Lee University Email: [email protected] Lexington, Virginia 24450 USA Education: B.A., Hiram College, 1969 Ph.D., Syracuse University, 1972 Positions (in reverse chronological order): Herwick Professor of Biology, Washington & Lee University 2008-present; Pesquisador Visitante Especial, Universidade Federal do Amazonas (UFAM) 2013-2015. Editor- in-Chief,Annals of the Entomological Society of America, 2007 – present. Research supported by John T. Herwick Endowment, Brazilian research fellowship from CAPES, and by Lenfest faculty research grants from Washington and Lee University. Head of Department of Biology, Washington and Lee University, 1993-2008. Editorial Board of Oecologia, 1997 - 2003. Professor of Biology, Program in Ecology, School of Life and Health Sciences, and member of Graduate Faculty, University of Delaware, 1973-1993. Joint appointments: (1) College of Marine Studies (1974-1984); (2) Department of Entomology and Applied Ecology, College of Agriculture (1985-1993). Research supported by grants from NSF, NOAA (Sea Grant), and UDRF (U. Del.). Postdoctoral Fellow, Cornell University, 1972 - 1973. Studies of population genetics and agro-ecosystems with D. Pimentel. Supported by grant from Ford Foundation to DP. Postdoctoral Fellow, Costa Rica, summer 1972. Behavioral ecology of tropical hummingbirds with L. L. Wolf. Supported by NSF grant to LLW. Memberships: American Association for the Advancement of Science Linnean Society -
Taxa Names List 6-30-21
Insects and Related Organisms Sorted by Taxa Updated 6/30/21 Order Family Scientific Name Common Name A ACARI Acaridae Acarus siro Linnaeus grain mite ACARI Acaridae Aleuroglyphus ovatus (Troupeau) brownlegged grain mite ACARI Acaridae Rhizoglyphus echinopus (Fumouze & Robin) bulb mite ACARI Acaridae Suidasia nesbitti Hughes scaly grain mite ACARI Acaridae Tyrolichus casei Oudemans cheese mite ACARI Acaridae Tyrophagus putrescentiae (Schrank) mold mite ACARI Analgidae Megninia cubitalis (Mégnin) Feather mite ACARI Argasidae Argas persicus (Oken) Fowl tick ACARI Argasidae Ornithodoros turicata (Dugès) relapsing Fever tick ACARI Argasidae Otobius megnini (Dugès) ear tick ACARI Carpoglyphidae Carpoglyphus lactis (Linnaeus) driedfruit mite ACARI Demodicidae Demodex bovis Stiles cattle Follicle mite ACARI Demodicidae Demodex brevis Bulanova lesser Follicle mite ACARI Demodicidae Demodex canis Leydig dog Follicle mite ACARI Demodicidae Demodex caprae Railliet goat Follicle mite ACARI Demodicidae Demodex cati Mégnin cat Follicle mite ACARI Demodicidae Demodex equi Railliet horse Follicle mite ACARI Demodicidae Demodex folliculorum (Simon) Follicle mite ACARI Demodicidae Demodex ovis Railliet sheep Follicle mite ACARI Demodicidae Demodex phylloides Csokor hog Follicle mite ACARI Dermanyssidae Dermanyssus gallinae (De Geer) chicken mite ACARI Eriophyidae Abacarus hystrix (Nalepa) grain rust mite ACARI Eriophyidae Acalitus essigi (Hassan) redberry mite ACARI Eriophyidae Acalitus gossypii (Banks) cotton blister mite ACARI Eriophyidae Acalitus vaccinii -
Bird Predation by Praying Mantises: a Global Perspective
The Wilson Journal of Ornithology 129(2):331–344, 2017 BIRD PREDATION BY PRAYING MANTISES: A GLOBAL PERSPECTIVE MARTIN NYFFELER,1 MICHAEL R. MAXWELL,2 AND J. V. REMSEN, JR.3 ABSTRACT.—We review 147 incidents of the capture of small birds by mantids (order Mantodea, family Mantidae). This has been documented in 13 different countries, on all continents except Antarctica. We found records of predation on birds by 12 mantid species (in the genera Coptopteryx, Hierodula, Mantis, Miomantis, Polyspilota, Sphodromantis, Stagmatoptera, Stagmomantis, and Tenodera). Small birds in the orders Apodiformes and Passeriformes, representing 24 identified species from 14 families (Acanthizidae, Acrocephalidae, Certhiidae, Estrildidae, Maluridae, Meliphagidae, Muscicapidae, Nectariniidae, Parulidae, Phylloscopidae, Scotocercidae, Trochilidae, Tyrannidae, and Vireonidae), were found as prey. Most reports (.70% of observed incidents) are from the USA, where mantids have often been seen capturing hummingbirds attracted to food sources in gardens, i.e., hummingbird feeders or hummingbird-pollinated plants. The Ruby-throated Hummingbird (Archilochus colubris) was the species most frequently reported to be captured by mantids. Captures were reported also from Canada, Central America, and South America. In Africa, Asia, Australia, and Europe, we found 29 records of small passerine birds captured by mantids. Of the birds captured, 78% were killed and eaten by the mantids, 2% succeeded in escaping on their own, and 18% were freed by humans. In North America, native and non-native mantids were engaged in bird predation. Our compilation suggests that praying mantises frequently prey on hummingbirds in gardens in North America; therefore, we suggest caution in use of large-sized mantids, particularly non-native mantids, in gardens for insect pest control. -
Capture Deterrence in Drosophila Melanogaster
bioRxiv preprint doi: https://doi.org/10.1101/010330; this version posted October 14, 2014. The copyright holder for this preprint (which was not certified by peer review) is the author/funder, who has granted bioRxiv a license to display the preprint in perpetuity. It is made available under aCC-BY-ND 4.0 International license. ! ! 1! How predator hunting-modes affect prey behaviour: Capture 2! deterrence in Drosophila melanogaster 3! 4! Abhijna Parigi1,2,3, Cody Porter2,4, Megan Cermak2, William R. Pitchers1,3 and Ian Dworkin1,2,3* 5! 6! Affiliations: 7! 1 Program in Ecology, Evolutionary Biology, and Behaviour, Michigan State University, East 8! Lansing, MI 48824, USA 9! 2 Department of Zoology, Michigan State University, East Lansing, MI 48824, USA 10! 3 BEACON Centre for the Study of Evolution in Action, Michigan State University, East 11! Lansing, MI 48824, USA 12! 4 Current address: Department of Zoology and Physiology, University of Wyoming. Laramie, 13! WY, USA. 14! * Correspondence to Ian Dworkin: [email protected] 15! 16! Links to videos (also available in supplement) 17! !Abdominal Lifting http://dx.doi.org/10.6084/m9.figshare.1185638 18! !Stopping Behaviour http://dx.doi.org/10.6084/m9.figshare.1185639 19! !Retreat http://dx.doi.org/10.6084/m9.figshare.1185640 20! 21! ! bioRxiv preprint doi: https://doi.org/10.1101/010330; this version posted October 14, 2014. The copyright holder for this preprint (which was not certified by peer review) is the author/funder, who has granted bioRxiv a license to display the preprint in perpetuity. It is made available under aCC-BY-ND 4.0 International license. -
UNIVERSITY of CALIFORNIA RIVERSIDE Outcomes of Chronic
UNIVERSITY OF CALIFORNIA RIVERSIDE Outcomes of Chronic Arsenic Exposure on Aquatic Insects A Dissertation submitted in partial satisfaction of the requirements for the degree of Doctor of Philosophy in Entomology by Christina Loraine Mogren June 2013 Dissertation Committee: Dr. John T. Trumble, Chairperson Dr. Ring T. Cardé Dr. David R. Parker Dr. William E. Walton Copyright by Christina Loraine Mogren 2013 The Dissertation of Christina Loraine Mogren is approved: Committee Chairperson University of California, Riverside Acknowledgements I would like to first and foremost thank my major advisor, Dr. John Trumble, for all of his help and guidance throughout my graduate career, and particularly for the many opportunities to travel and present my research at professional meetings in this country and abroad. I would like to thank my dissertation committee members, Drs. William Walton, David Parker, and Ring Cardé, who were wonderfully understanding and helpful in providing guidance on their various areas of expertise that were critical to the success of this research. I would also like to thank Drs. Brad Mullens and Joao Pedra who served as members of my qualifying exams committee and deemed me fit for PhD candidacy. My collaborators, Drs. Guntram von Kiparski from the Environmental Sciences Department and Samuel Webb from the Stanford Synchrotron Radiation Lightsource, were instrumental in supplying me with the skills and knowledge necessary to perform the many analytical tests that made this an interdisciplinary endeavor. I cannot thank them enough for their patience with me and the learning curve that was required to complete this research in a timely fashion. The research presented in this dissertation would not have been possible without the generous support from members of the Trumble lab, past and present, who helped with colony maintenance, data collection, manuscript revisions, and ordering supplies, among other things. -
Florida Preying Mantids Insecta - Mantodea
Florida Preying Mantids Insecta - Mantodea Stagmomantis carolina (Johannson) female- photo by P. M. Choate 2003 Florida Mantids - 1 Florida Mantids - Key to Species Diagnostic Key to species of Florida Mantids Insecta - Mantodea (this key was generated from an Insect Classification exercise) Species of Mantids that may occur in Florida Mantoida maya Saussure & Zehntner - Little Yucatan mantid; adults Jun-Sept, open pinelands, scrub (resemble wasps) = Callimantis floridana Scudder 1896 (smaller Florida mantid)? Brunneria borealis Scudder - Brunner’s mantid Litaneutra minor (Scudder) - Minor ground mantid (possible) Gonatista grisea (Fab.) - Grizzled mantid (lichen mimic) Thesprotia graminis (Scudder) - Grass-like mantid Oligonicella scudderi (Saussure) - Scudder’s mantid Mantis religiosa L. - European mantid (introduced) Tenodera angustipennis Saussure - Narrow-winged mantid Tenodera aridifolia Saussure - Chinese mantid (introduced), largest mantid in US. Stagmomantis floridensis Davis - Larger Florida mantid - Dunedin (Oct), restricted to Florida Stagmomantis carolina (Johannson) - Carolina mantid Phyllovates chlorophaena (Blanchard) - (record from Blatchley, 1920) © P. M. Choate 2003 Dichotomous Key to Species of Mantids that may occur in Florida 1. Pronotum much longer than wide ........................................................................................................... 2 - Pronotum about as long as wide; small black species, 30mm. ........................... Mantoida maya S. and Z. 2. Antennae thin, threadlike; body -
Colorado Insect of Interest
Colorado Insect of Interest European Mantid (“Praying Mantid”) Scientific Name: Mantis religiosa L. Order: Mantodea (Mantids) Family: Mantidae Identification and Descriptive Features: Adults are large insects, about 2.5-3.2 inches when full-grown. Generally coloration is variable but is either some shade of green or brown. The European mantid can be distinguished by the presence of bulls’-eye patterns on the inside coxae (“armpit”) of the front legs. Distribution in Colorado: The European mantid is an introduced species, native to Europe, that has become widely adapted to the northern US and Canada. In Colorado it is most commonly seen along the northern half of the Figures 1, 2. Adult female, brown form (top) and adult male, green form (bottom). Front Range and in the Tri-River counties of western Colorado. Four species of native mantids occur in Colorado, most commonly associated with prairie sites and along waterways. In addition egg masses of the Chinese mantid (Tenodera aridifolia sinensis) are commonly sold through garden catalogs and by some nurseries, although this species rarely, if ever, survives winter within the state. The mantids of Colorado are discussed in Extension Fact Sheet 5.510. Life History and Habits: Winter is spent as the Figure 3. Egg cases (oothecae) of the European egg stage, within an egg mass (ootheca) that is mantid. attached to rocks, logs, and other solid surfaces. Eggs hatch late the following spring and the newly emerged mantids are tiny (ca. 1/3-inch). Very soon they disperse (perhaps after a bit of sibling cannibalism) and begin to hunt on their own. -
Full List Sorted by Scientific Name (PDF As of 6/30/21)
Insects and Related Organisms Sorted by Scientific Name Updated 6/30/21 Scientific Name Common Name Order Family A Abacarus hystrix (Nalepa) grain rust mite ACARI Eriophyidae Abgrallaspis ithacae (Ferris) hemlock scale HEMIPTERA Diaspididae Abia inflata (Norton) honeysuckle sawfly HYMENOPTERA Cimbicidae Acalitus essigi (Hassan) redberry mite ACARI Eriophyidae Acalitus gossypii (Banks) cotton blister mite ACARI Eriophyidae Acalitus vaccinii (Keifer) blueberry bud mite ACARI Eriophyidae Acalymma trivittatum (Mannerheim) western striped cucumber beetle COLEOPTERA Chrysomelidae Acalymma vittatum (Fabricius) striped cucumber beetle COLEOPTERA Chrysomelidae Acanthocinus princeps (Walker) ponderosa pine bark borer COLEOPTERA Cerambycidae Acanthococcus araucariae (Maskell) araucaria mealybug HEMIPTERA Eriococcidae Acanthococcus azaleae (Comstock) azalea bark scale HEMIPTERA Eriococcidae Acanthococcus carolinae (Williams) beachgrass scale HEMIPTERA Eriococcidae Acanthococcus lagerstroemiae (Kuwana) crapemyrtle bark scale HEMIPTERA Eriococcidae Acantholyda erythrocephala (Linnaeus) pine false webworm HYMENOPTERA Pamphiliidae Acanthomyops claviger (Roger) smaller yellow ant HYMENOPTERA Formicidae Acanthomyops interjectus (Mayr) larger yellow ant HYMENOPTERA Formicidae Acanthoscelides obtectus (Say) bean weevil COLEOPTERA Chrysomelidae Acarapis woodi (Rennie) honey bee mite ACARI Tarsonemidae Acarus siro Linnaeus grain mite ACARI Acaridae Aceratagallia sanguinolenta (Provancher) clover leafhopper HEMIPTERA Cicadellidae Aceria aloinis (Keifer) aloe -
Phyllocrania Paradoxa): Are Components of the Strike Stereotypic? Christopher E
© 2016. Published by The Company of Biologists Ltd | Journal of Experimental Biology (2016) 219, 2733-2742 doi:10.1242/jeb.139675 RESEARCH ARTICLE Patterns of variation in feeding strike kinematics of juvenile ghost praying mantis (Phyllocrania paradoxa): are components of the strike stereotypic? Christopher E. Oufiero*, Tammy Nguyen, Annie Sragner and Angelah Ellis ABSTRACT the standard deviation as a percentage of the mean trait value; Rice and Functional systems, such as feeding mechanics, often involve the Westneat, 2005; Wainwright et al., 2008). If a trait exhibits low evolution of several components of the musculoskeletal system that variability and/or high repeatability, it is considered a stereotypic are moved in coordination to capture prey. Because these systems response. Conversely, if the trait can be modulated resulting in high often involve the quick movement of several structures, some feeding variability and low repeatability, then it is not considered stereotypic. systems have been hypothesized to be stereotypic. While the motor Interpretations of the amount of stereotypy in a functional activity patterns are often stereotyped, the subsequent kinematics can response are often difficult because of the variation in traits reported be variable, many times in response to variation in prey stimulus (e.g. and focus of the system. In functional systems, such as feeding and prey position). Patterns of feeding kinematics have been well studied locomotion, the coordinated movements of the parts of the system among vertebrates, with less attention on invertebrate systems. The are often stereotyped in their patterns. That is, key events often occur goal of this study was to examine the amount of stereotypy in the in the same order. -
EUROPEAN MANTIS Class Order Family Genus Species Insecta Mantodea Mantidae Mantis Religiosa
EUROPEAN MANTIS Class Order Family Genus Species Insecta Mantodea Mantidae Mantis religiosa Range: Origins in S. Europe. Introduced to us in 1899. Now found all over NE U.S. and Canada to Pacific Northwest Habitat: Temperate habitat, meadows on foliage and flowers Niche: Diurnal, carnivorous, arboreal Diet: Wild: diurnal insects, some small amphibians, reptiles and mammals Zoo: Special Adaptations: Their green and brown body provides excellent camouflage among the leaves and twigs. Mantises have two grasping, spiked forelegs in which prey items are caught and held securely. The first thoracic segment, the prothorax, is commonly elongated and flexibly articulated, allowing for greater range of movement of the front limbs, while the remainder of the body remains more or less immobile. They have triangular heads poised on a long "neck," or elongated thorax. The articulation of the head is remarkably flexible, allowing a wide range of motion, allowing praying mantises the ability to swivel its head nearly 180 degrees without having to move the remainder of the body. Their vision is enhanced with by two large compound eyes (large binocular field of vision) and three other simple eyes located between them, allowing them to spot potential prey without having to move the rest of their body. They undergo incomplete metamorphosis. They have powerful mouthparts that cut through the armor of most insects, their primary prey. Other: Phasmids should not be confused with mantids, as phasmids are herbivores and mantids are insect eaters and have forelegs modified for grasping and holding prey. Most species of mantis are known to engage in cannibalism.