Risks and Pathways Project WORLD’S WORST INSECT INVADERS: ANTS, BEES & WASPS
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Can Trapping Control Asian Paper Wasp (<I>Polistes Chinensis
TOFT, HARRIS: ASIAN PAPER WASP CONTROL 279 SHORT COMMUNICATION Can trapping control Asian paper wasp (Polistes chinensis antennalis) populations? Richard J. Toft and Richard J. Harris Landcare Research, Private Bag 6, Nelson, New Zealand (E-mail: [email protected]) ____________________________________________________________________________________________________________________________________ Abstract: Asian paper wasps reach very high densities in some areas of the far north of the North Island, and concerns about their impact on native biota have led to a search for potential control methods. We simulated the effects of kill-trapping adults by manually removing either 50% or 75% of adults from nests and comparing subsequent counts of adults and capped pupal cells with paired untreated nests. Five weeks after treatment, the 50% removal group had an average of c. 29% fewer wasps than the untreated group, while the 75% removal group had c. 34% fewer than the untreated group. The rate of growth of both the 50% and 75% treatment groups after manipulation was similar to the untreated nests. We conclude that trapping is unlikely to be viable as a control tool unless it can be targeted at early-season queens, and that other options are better pursued at this stage. ____________________________________________________________________________________________________________________________________ Keywords: Asian paper wasp; control; Polistes; trapping. Introduction 2000). Unlike Vespula wasps, Polistes are not attracted Asian paper wasps (Polistes chinensis antennalis) to dead forms of protein such as meat. Therefore, they were first recorded in New Zealand in 1979, and have cannot be controlled using the toxic chicken or fish since spread through much of the North Island and the baits developed for poisoning Vespula species (Spurr north of the South Island (Clapperton et al., 1996; et al., 1996; Harris and Etheridge, 2001). -
Following the Trail of Ants: an Examination of the Work of E.O
Sacred Heart University DigitalCommons@SHU Writing Across the Curriculum Writing Across the Curriculum (WAC) 2012 Following The rT ail Of Ants: An Examination Of The orW k Of E.O. Wilson Samantha Kee Sacred Heart University Follow this and additional works at: http://digitalcommons.sacredheart.edu/wac_prize Part of the Biodiversity Commons, Ecology and Evolutionary Biology Commons, Entomology Commons, Other Genetics and Genomics Commons, Philosophy of Science Commons, Religion Commons, and the Theory, Knowledge and Science Commons Recommended Citation Kee, Samantha, "Following The rT ail Of Ants: An Examination Of The orkW Of E.O. Wilson" (2012). Writing Across the Curriculum. 2. http://digitalcommons.sacredheart.edu/wac_prize/2 This Article is brought to you for free and open access by the Writing Across the Curriculum (WAC) at DigitalCommons@SHU. It has been accepted for inclusion in Writing Across the Curriculum by an authorized administrator of DigitalCommons@SHU. For more information, please contact [email protected]. Samantha Kee RS 299-Writing With Public Purpose Dr. Brian Stiltner March 2, 2012 Following the trail of ants An examination of the work of E.O. Wilson Edward Osborne Wilson was a born naturalist, in every sense of the word. As a child growing up in Alabama, he collected and studied species of snakes, flies, and the insect that became the basis of his life’s work, ants. He made a goal to record every species of ant that could be found in Alabama—a childhood project that would eventually lead to his first scientific publication. By age 13, Wilson discovered a red, non-native ant in a local town in Alabama, and by the time he entered the University of Alabama, the fire ant had become a significant threat to the state’s agriculture. -
Effects of Urban Development on Ant Communities: Implications for Ecosystem Services and Management
Contributed Paper Effects of Urban Development on Ant Communities: Implications for Ecosystem Services and Management MONTE P. SANFORD,∗‡ PATRICIA N. MANLEY,† AND DENNIS D. MURPHY∗ ∗Ecology, Evolution and Conservation Biology / 316, University of Nevada, Reno, Reno, NV 89557, U.S.A. †Pacific Southwest Research Station, USDA Forest Service, Davis, CA 95618, U.S.A. Abstract: Research that connects the effects of urbanization on biodiversity and ecosystem services is lack- ing. Ants perform multifarious ecological functions that stabilize ecosystems and contribute to a number of ecosystem services. We studied responses of ant communities to urbanization in the Lake Tahoe basin by sam- pling sites along a gradient of urban land development. We sampled ant communities, measured vegetation characteristics, quantified human activities, and evaluated ant-community responses by grouping ants into service-providing units (SPUs), defined as a group of organisms and their populations that perform specific ecosystem services, to provide an understanding of urbanization impacts on biodiversity and their delivery of ecosystem services. Species richness and abundance peaked at intermediate levels of urban development, as did the richness of 3 types of ant SPUs (aerators, decomposers, and compilers). With increasing land development aerator and decomposer ants significantly declined in abundance, whereas compiler ants signif- icantly increased in abundance. Competing models demonstrated that precipitation was frequently among the strongest influences on ant community structure; however, urban development and human activities also had a strong, negative influence on ants, appearing in most models with ΔAICc < 2 for species richness and abundance patterns of SPUs and generalists. Response diversity was observed within SPUs, which suggests that the corresponding ecosystem services were maintained until development reached 30–40%. -
Ants Are More Than a Hundred Million Years Older Than Humans, and They Cover the Land Surface of the Planet
Copyrighted Material 1 THE A NT C OLONY AS A C OMPLE X S YSTEM Ants are more than a hundred million years older than humans, and they cover the land surface of the planet. Probably peo- ple have always watched ants, and probably they have always asked the same question: How can ants get anything done when no one is in charge? Whoever wrote Proverbs 6:6 put it this way: “Look to the ant, thou sluggard—consider her ways and be wise. Without chief, overseer or ruler, she gathers the harvest in the summer to eat in the winter.” The history of our understanding of ant behavior is the history of our changing views of how organizations work.1 There have been times when it was impossible to imagine an ant colony without a leader. The scientific study of ants began when natural history joined the rest of the emerging sciences in the eighteenth century. It was already clear that ants live in colonies, consisting of one or more reproductive females, while the rest are sterile females. Among bees, the reproductive female in a colony was called the ‘queen,’ and the females who do not reproduce called ‘workers,’ by Charles Butler in The Feminine Monarchie, or the Historie of Bees, in Copyrighted Material 2 Chapter 1 1609.2 These observations of bees were extended to ants in the eighteenth century by the French naturalist Réaumur. Like his contemporaries, such as Maeterlinck, writing about bees, Réaumur described ants as a group of subordinate laborers happy to serve their monarch. -
'Genome to Paddock' Approach to Control Plant Disease
PLENARY 1 – DANIEL MCALPINE MEMORIAL LECTURE A ‘genome to paddock’ approach to control plant disease 1 Barbara Howlett 1. University of Melbourne, Melbounre, VIC, Australia Pathogenic fungi evolve in concert with their plant hosts to invade and overcome defence responses. A detailed knowledge of these processes is essential for successful disease management strategies. Blackleg caused by the fungus, Leptosphaeria maculans, is the major disease of canola worldwide. In this lecture I describe how field data, such as disease incidence and severity, coupled with information about the biology, molecular genetics and genomics of the blackleg fungus has been exploited to control this important disease. Field populations of Leptosphaeria maculans can evolve and overcome disease resistance bred into canola within three years of commercial release of a cultivar. The risk of breakdown of resistance can be determined by monitoring disease severity of canola cultivars and changes in virulence of fungal populations using high throughput molecular assays that are based on sequences of avirulence genes. Farmers can avoid a predicted epidemic by sowing canola cultivars with different resistance genes in subsequent years. This strategy has been exploited in Australia and has averted substantial yield losses due to disease. NOTES: CONCURRENT SESSION 1 – PEST AND PATHOGEN EVOLUTION AND DIVERSITY Linking molecules to morphology: fruit fly integrative taxonomy Mark K Schutze1, Matthew N Krosch1, Jane Royer2, Nicholas Woods3, Rodney Turner3, Melanie Bottrill3, Bill Woods4, Ian 4 1 1 5 Lacey , Jacinta McMahon , Francesca Strutt , Stephen L Cameron 1. Queensland University of Technology, Brisbane, QUEENSLAND, Australia 2. Queensland Department of Agriculture and Fisheries, Brisbane 3. Plant Health Australia, Canberra 4. -
Odorous Garden Ants (Iridomyrmex Chasei Spp.) Factsheet
July 2018 Factsheet Odorous garden ants (Iridomyrmex chasei spp.) Ants to watch out for Red imported fire ants, yellow crazy ants, electric ants and carpenter ants, all pose a serious social, economic and environmental threat to Western Australia. If you suspect you have these ants or any ants you haven’t seen before, please contact us on freecall 1800 084 881. Summary Native ants commonly referred to as odorous garden ants belong to the Iridomyrmex chasei species group. These ants are harmless and do not sting. Where are they found? These ants nest in the ground outside and may be observed excavating sand in gardens and pathways. They may also be seen climbing trees and tending pests such as scale, mealy bugs and aphids. Damage Odorous garden ants (Iridomyrmex chasei spp.), with two winged These ants do not sting and do not damage or nest in reproductives (alates) (bottom) buildings. They can be a nuisance in spring and summer when their numbers are at their highest and winged reproductive ants group together and leave the nest (known as swarming). These ants rarely enter the home. Contact Treatment Pest and Disease Information Service (PaDIS) Liquid sprays offer much better control for these ants than dusts or granules and a number of products are available. Call: (08) 9368 3080 Sprays containing chemicals such as permethrin will be effective when applied to nesting and foraging areas. Email: [email protected] These products can be obtained from garden centres and hardware stores. Exotic threats The following ants could impact on our outdoor lifestyle and Western Australia’s agricultural and food industries. -
Black House Ants (Ochetellus Glaber), Summary Inset Showing a Queen Ant Black House Ants Are Native to Australia and Are a Common House-Infesting Ant Species
July 2018 Factsheet Black house ants (Ochetellus glaber) Ants to watch out for Red imported fire ants, yellow crazy ants, electric ants and carpenter ants, all pose a serious social, economic and environmental threat to Western Australia. If you suspect you have these ants or any ants you haven’t seen before, please contact us on freecall 1800 084 881. Black house ants (Ochetellus glaber), Summary inset showing a queen ant Black house ants are native to Australia and are a common house-infesting ant species. These ants do not bite or sting and are active day and night. Where are they found? In the home they are commonly attracted to sweet liquids and foods and are often drawn to the kitchen, laundry and bathroom. They naturally nest and forage in trees, feeding on insects, honeydew and nectar. Damage These ants rarely cause direct damage but are considered household pests as they are one of the few ant species that will nest inside. They can be found nesting in areas such as roof and wall spaces, rolled up awnings, pot plants, and in-between flat packed items. They may also Contact infest electrical items such as kettles, microwave ovens, computers or clock radios. Pest and Disease Information Service (PaDIS) Treatment Call: (08) 9368 3080 Control of these ants when numbers are low is advisable. When numbers are high and multiple nests have been Email: [email protected] established, control can be increasingly difficult. If nests are exposed they can be sprayed with fly spray, otherwise baits containing borates (borax) are effective for this sweet- feeding ant species. -
Wasps: Australian Paper Wasp (Polistes Humilis), Asian Paper Wasp (Polistes Chinensis), Common Wasp (Vespula Vulgaris) and German Wasp (Vespula Germanica)
Biosecurity series – animal factsheet Wasps: Australian paper wasp (Polistes humilis), Asian paper wasp (Polistes chinensis), common wasp (Vespula vulgaris) and German wasp (Vespula germanica) Advisory animal Eradication Progressive containment Sustained control Site-led Stop Australian, Asian, common and German wasps from damaging high value biodiversity sites. WHY WASPS ARE PESTS Production threat Environmental threat Public threat Four species of wasps in the Waikato region are considered pests, the Australian paper wasp, Asian paper wasp, common wasp and German wasp. German and common wasps pose the greatest risk to human health. They also attack beehives and prey on native insects. The common wasp IDENTIFYING FEATURES and the German wasp inhabit agricultural areas, native forests, planted Common and German wasps are slightly larger than forests, scrub/shrublands and urban areas where they nest underground honey bees, with distinctive black and yellow stripes. and in cavities in trees and buildings. Paper wasps are generally smaller with less yellow in Asian and Australian paper wasps are far less aggressive than German and their markings. common wasps, but they also prey on insects and chew weatherboards. The Asian paper wasp is larger than the Australian paper wasp. It Common and German wasps • Generally 12 to17mm long, although queens are arrived in New Zealand in the late 1970s and by 1995 was widespread larger. throughout the Upper North Island. It thrives in lowland open habitats such as shrublands, swamps and salt marshes but will often build nests on • Slightly bigger than a honey bee with smooth houses or other buildings as well as nesting in trees or bushes. -
Eusociality: Origin and Consequences
Corrections CELL BIOLOGY. For the article ‘‘The NF1 tumor suppressor criti- BIOCHEMISTRY. For the article ‘‘Engineered single-chain dimeric cally regulates TSC2 and mTOR,’’ by Cory M. Johannessen, streptavidins with an unexpected strong preference for biotin- Elizabeth E. Reczek, Marianne F. James, Hilde Brems, Eric 4-fluorescein,’’ by Filiz M. Aslan, Yong Yu, Scott C. Mohr, and Legius, and Karen Cichowski, which appeared in issue 24, June Charles R. Cantor, which appeared in issue 24, June 14, 2005, of 14, 2005, of Proc. Natl. Acad. Sci. USA (102, 8573–8578; first Proc. Natl. Acad. Sci. USA (102, 8507–8512; first published June published June 3, 2005; 10.1073͞pnas.0503224102), the authors 6, 2005; 10.1073͞pnas.0503112102), the footnotes appeared in note the following. On page 8574, the last sentence of the first the wrong order, due to a printer’s error. The ** footnote on paragraph in the left column, ‘‘Clarified lysates were normalized page 8507 should have read: ‘‘Throughout this paper, we use the for protein levels and analyzed by Western blotting with the terms monomer(ic), dimer(ic), and tetramer(ic) to refer to the following antibodies: phospho-p70S6K (T-389), phospho- number of biotin-binding domains present in a molecule, re- tuberin (S-939), phospho-tuberin (T-1462), phospho-Akt (S- gardless of the number of polypeptide chains it has.’’ In addition, 473), tuberin (C-20) from Santa Cruz Biotechnology, and the †† footnote on page 8512 should have read: ‘‘We note, protein kinase B␣͞AKT1, actin, and -tubulin from Sigma- however, -
Western Plant Diagnostic Network First Detector News
Western Plant Diagnostic Network1 First Detector News A Quarterly Pest Update for WPDN First Detectors Spring 2016 edition, volume 9, number 2 In this Issue Dear First Detectors, For most of us, ants all look the same! Page 1: Editor’s comments Our first response is how to kill them. When one Googles Pages 2 – 7: Ants and You “ant”, the first links that appear are pest control companies. Ants have been around for approximately 130 million years and have diversified and evolved a complicated social Pages 7 - 10: Phytophthora behavior. With the help of several ant experts, we have and Nursery Plants assembled a workshop on ants with wonderful links. Check out the websites and enjoy the vast and varied world of ants! Page 11: Pest Update: Red Blotch of Grapes Vector It is nursery season, and many of us are planting home Found gardens and commercial plantings. The second article is on the challenges presented by Phytophthora infestations in nursery stock. Finally, there is a new pest update. A vector has been discovered for a virus disease of grapevines, known as red blotch. Contact us at the WPDN Regional Center at UC Davis: Please find the NPDN family of newsletters at: Phone: 530 754 2255 Email: [email protected] Newsletters Web: https://wpdn.org Editor: Richard W. Hoenisch @Copyright Regents of the University of California All Rights Reserved Brocken Inaglory Brocken Western Plant Diagnostic Network News Ants fossilized in Baltic amber Ants and You 2 Ants are a true social (eusocial) insect, often appearing suddenly and invading in mass. -
First European Records of an Alien Paper Wasp: Polistes (Aphanilopterus) Major Palisot De Beauvois, 1818 (Hymenoptera: Vespidae) in Northern Spain
Zootaxa 3681 (1): 089–092 ISSN 1175-5326 (print edition) www.mapress.com/zootaxa/ Correspondence ZOOTAXA Copyright © 2013 Magnolia Press ISSN 1175-5334 (online edition) http://dx.doi.org/10.11646/zootaxa.3681.1.7 http://zoobank.org/urn:lsid:zoobank.org:pub:262A4AAA-30D2-44C7-80EB-DCA59A353D46 First European records of an alien paper wasp: Polistes (Aphanilopterus) major Palisot de Beauvois, 1818 (Hymenoptera: Vespidae) in northern Spain LEOPOLDO CASTRO1, ANDRÉS ARIAS2 & ANTONIO TORRALBA-BURRIAL3,4 1Av. Sanz Gadea 9-9D, 44002 Teruel, Spain. E-mail: [email protected] 2Dpto. Biología de Organismos y Sistemas, Universidad de Oviedo, Oviedo 33071, Spain. E-mail: [email protected] 3Cluster de Energía, Medioambiente y Cambio Climático, Universidad de Oviedo, Oviedo 33071, Spain. E-mail: [email protected] 4Corresponding author. E-mail: [email protected] The frequency and speed of the transport of goods and passengers have been on the increase for decades, involving a higher rate of introductions of animals and plants to new regions that they were not able to colonise unassisted. In particular, a large number of Hymenoptera have become introduced, either deliberately (for crop pollination purposes or pest control) or unintentionally. No global data are available, but a few regional examples may outline the size of the problem: 286 hymenopteran species are known to have been introduced into Europe (Rasplus et al. 2010), 148 into New Zealand (Landcare Research 2009), 35 into the Galápagos Islands (Causton et al. 2006) and 28 into the Canary Islands (Báez & Oromí 2010). The introduction of vespids has become relatively common worldwide: 33 species are known as introduced, with Hawaii (15 species) and North America (8) as the main host regions (Beggs et al. -
Causes of Ecological Success: the Case of the Ants
Journal of Animal Ecology (1987), 56, 1-9 CAUSES OF ECOLOGICAL SUCCESS: THE CASE OF THE ANTS. THE SIXTH TANSLEY LECTURE* BY EDWARD 0. WILSON Museum of ComparativeZoology, Harvard University, Cambridge,Massachusetts 02138, U.S.A. INTRODUCTION The key remaining questions of evolutionary biology are more ecological than genetic in nature. In spite of the continuing great vitality of genetics in general, the known mechanisms of heredity appear to be sufficient to explain the observed phenomena of evolution. This is not to say that all processes of genetic change have been discovered. It may even prove true that extragenetic constraints on embryonic development, such as fundamental physical limits on cell size and configuration, play a role in evolution. What I am suggesting instead is that nothing empirically known at the present time about the nature and rate of evolution even hints at the existence of undiscovered hereditary processes. Consequently, what we know for sure that we do not know is largely ecological in nature. And ecologically-based problems of basic importance abound. One of the more obvious is why there are a certain number of species on Earth and not some other, in particular why 10 million (if that, say, proves to be the number) and not a thousand or a hundred million. Another unanswered question is why certain groups of organisms speciate profusely and spread over the world while otherwise similar ones remain undiversified and static. And that leads ineluctably to a third, related question, the meaning of ecological success. The subject has received remarkably little attention, perhaps because it is difficult to express with any precision and may appear to be more semantic than scientific.