Grapholita Lobarzewskii) in Organic Apple Orchards of Northeastern Italy
Total Page:16
File Type:pdf, Size:1020Kb
Load more
Recommended publications
-
FT Grapholita Pro Caps
M2i technology Unique patented process of pheromone micro-encapsulation Controled rate of pheromone release for greater efficiency 100% biodegradable Easy storage, at room temperature Extended shelf life: 2,5 years User guide M2i recommends: Grapholita Pro Caps® syringe + Delta trap © M2i Trap setup: empty the content of the syringe into the cup. Remove the protective film from the sticky sheet. Stick the cup containing the pheromone formulation in the middle of the sheet. Place the sticky sheet in the trap. The moths are attracted by the sexual pheromone, enter the trap and are caught. Characteristics of Grapholita Pro Caps® Type of product Pheromone dispenser Use Monitoring Z8-dodecenyl acetate, E8-dodecenyl acetate, Active substance © M2i Z8-dodecenol Volume of formulation 1,2 mL Indicative diffusion* 3 months Targeted insect life-stage Adult (moth) Estimated radius of diffusion Moths attracted on a radius of 5-10 m * depending on climatic conditions, for an average temperature of 30°C and without strong winds. Monitoring setup Detection period: from March to October (adapt and renew the pheromone dispenser according to the recommended diffusion time). Trap location: hung on the upper part of the tree’s canopy. © M2i Recommended density: 1-2 traps/ha Pest monitoring and recommendations Trap follow-up frequency Weekly Recommended intervention 8 moths/trap/week During the critical season and depending on trapping levels: it is possible to perform an additional Pest control methods insecticide and/or a biocontrol treatment according to the insect life stage. Refer to recommendations of registered products for plant protection (ephy.anses.fr) and/or to your technical advisor. -
Plum Fruit Moth Cydia Funebrana
Michigan State University’s invasive species factsheets Plum fruit moth Cydia funebrana The plum fruit moth is a pest of stone fruits in Europe and Asia. The larvae tunnel into fruits reducing marketable yields. This exotic insect is a concern for Michigan’s stone fruit producers and tree fruit nurseries. Michigan risk maps for exotic plant pests. Other common names red plum maggot, plum fruit maggot Systematic position Insecta > Lepidoptera > Tortricidae > Cydia funebrana (Treitschke) Global distribution Europe: Albania, Austria, Belgium, Bulgaria, Czech Republic, Denmark, Finland, France, Germany, Hungary, Adult resting on a plum leaf. (Photo: R. Coutin / OPIE) Italy, Netherlands, Norway, Poland, Romania, Sicily, Spain, Sweden, Switzerland, UK, Yugoslavia. Asia: China, Cyprus, India, Iran, Syria, Turkey, former Soviet Union. Africa: Algeria. Quarantine status Cydia sp. has been intercepted nearly 6,700 times at U.S. ports of entry between 1995 and 2003 (Venette et al. 2003) although no specimens were identified specifically as C. funebrana. This insect is not known to be established in North America; it has been a target for the national CAPS survey in the United States (USDA-APHIS 2007). Plant hosts The moth feeds primarily on stone fruits (Prunus spp.) including apricot (P. armeniaca), cherry (P. avium), peach (P. persica) and plum (P. domestica). Biology A female moth lays eggs singly on the underside of the Larva in a plum. (Photo: R. Coutin / OPIE) fruit. After hatching, the caterpillar tunnels into the fruit and feeds around the seed. The mature caterpillar exits the fruit. Pupation occurs in a cocoon spun in various settings such as dead wood, under tree bark and in soil. -
5.7 MB Perennial Flower Strips – a Tool for Improving Pest Control in Fruit
Technical guide 2018 | No. 1096 Functional agrobiodiversity Perennial flower strips – a tool for improving pest control in fruit orchards Why sowing flower strips in orchards? Orchards are interesting habitats for biodiversity • They provide natural enemies with shelter and due to their perennial character and their diversi- food (pollen, nectar, alternative preys) that allow fied structure. They are potentially attractive for them to maintain their populations within the both pollinators and pests’ natural enemies. Diver- orchard and to produce more offspring. sifying orchards with non-crop vegetation such as • The flower strips’ proximity to the crop makes it flower strips can provide additional opportunities easier for the predators and parasitoids to reach to maintain and develop these populations and the pests and thus increase biological pest control, thus optimize ecosystem services. especially for little, mobile species. • Undisturbed ground zones in flower strips pro- Advantages of sown flower strips: mote beneficial arthropods that live on the soil • Flower strips in drive alleys enhance the surface such as ground beetles and spiders that complexi ty of the orchard ecosystem, which is feed on pest larvae. attractive to many species of predators, parasi- toids and pollinators. A diversified and complex ecosystem provides better biological pest control. Interaction between natural enemies promoted by flower strips and phytophagous pests Ladybird beetles Hoveries Bats Parasitic wasps Birds N s a e t i Predatory bugs u r m a e l n s e e t n s l e P e a m r Moths u i t e s a Ladybird larvae Lacewing larvae N Beetles Aphids Psylla Spiders Rove beetles Ground beetles Earwigs Pollen and nectar Alternative insect hosts Pest caterpillars and pupae Throughout the year, sown flower strips maintain a diverse population of natural enemies close to the fruit trees. -
Thaumatotibia Leucotreta Pest Report to Support Ranking of EU Candidate Priority Pests
APPROVED: 17 May 2019 Doi: 10.5281/zenodo.2789843 Thaumatotibia leucotreta Pest Report to support ranking of EU candidate priority pests EFSA (European Food Safety Authority), Baker R, Gilioli G, Behring C, Candiani D, Gogin A, Kaluski T, Kinkar M, Mosbach-Schulz O, Neri FM, Preti S, Rosace MC, Siligato R, Stancanelli G and Tramontini S Requestor: European Commission Question number: EFSA-Q-2018-00403 Output number: EN-1656 Correspondence: [email protected] Acknowledgements: EFSA wishes to acknowledge the contribution of Marja van der Straten to the EKE and the review conducted by Lucia Zappalà. 0 Table of Contents 1. Introduction to the report ................................................................................................................ 4 2. The biology, ecology and distribution of the pest ............................................................................ 5 2.1. Summary of the biology and taxonomy ................................................................................. 5 2.2. Host plants.............................................................................................................................. 5 2.2.1. List of hosts ............................................................................................................................. 5 2.2.2. Selection of hosts for the evaluation ..................................................................................... 5 2.2.3. Conclusions on the hosts selected for the evaluation .......................................................... -
Thaumatotibia Leucotreta
Thaumatotibia leucotreta Scientific Name Thaumatotibia leucotreta (Meyrick) Synonyms: Cryptophlebia leucotreta (Meyrick), Cryptophlebia roerigii Zacher Olethreutes leucotreta Meyrick Thaumatotibia roerigii Zacher Common Name(s) False codling moth, citrus codling moth, orange moth, and orange codling moth Type of Pest Moth Figure 1. Larva of Thaumatotibia leucotreta (T. Grove Taxonomic Position and W. Styn, bugwood.org). Class: Insecta, Order: Lepidoptera, Family: Tortricidae Reason for Inclusion CAPS Target: AHP Prioritized Pest List - 2003 through 2014 Pest Description Eggs: Eggs are flat, oval (0.77 mm long by 0.60 mm wide) shaped discs with a granulated surface. The eggs are white to cream colored when initially laid. They change to a reddish color before the black head capsule of the larvae becomes visible under the chorion prior to hatching (Daiber, 1979a). 1 Larvae: First instar (neonate) larvae approximately 1 to 1.2 mm (< /16 in) in length with dark pinacula giving a spotted appearance, fifth instar larvae are orangey-pink, 1 becoming more pale on sides and yellow in ventral region, 12 to 18 mm (approx. /2 to 11 /16 in) long, with a brown head capsule and prothoracic shield (Fig. 1). [Note this coloration is only present in live specimens.] The last abdominal segment bears an anal comb with two to ten “teeth.” The mean head capsule width for the first through fifth instar larvae has been recorded as: 0.22, 0.37, 0.61, 0.94 and 1.37 mm, respectively (Daiber, 1979b). Diagnostic characters would include the anal comb with two to ten teeth in addition to: L pinaculum on T1 enlarged and extending beneath and beyond (posterad of) the spiracle; spiracle on A8 displaced posterad of SD pinaculum; crochets unevenly triordinal, 36-42; L-group on A9 usually trisetose (all setae usually on same pinaulum) (Brown, 2011). -
Small Ermine Moths Role of Pheromones in Reproductive Isolation and Speciation
CHAPTER THIRTEEN Small Ermine Moths Role of Pheromones in Reproductive Isolation and Speciation MARJORIE A. LIÉNARD and CHRISTER LÖFSTEDT INTRODUCTION Role of antagonists as enhancers of reproductive isolation and interspecific interactions THE EVOLUTION TOWARDS SPECIALIZED HOST-PLANT ASSOCIATIONS SUMMARY: AN EMERGING MODEL SYSTEM IN RESEARCH ON THE ROLE OF SEX PHEROMONES IN SPECIATION—TOWARD A NEW SEX PHEROMONES AND OTHER ECOLOGICAL FACTORS “SMALL ERMINE MOTH PROJECT”? INVOLVED IN REPRODUCTIVE ISOLATION Overcoming the system limitations Overview of sex-pheromone composition Possible areas of future study Temporal and behavioral niches contributing to species separation ACKNOWLEDGMENTS PHEROMONE BIOSYNTHESIS AND MODULATION REFERENCES CITED OF BLEND RATIOS MALE PHYSIOLOGICAL AND BEHAVIORAL RESPONSE Detection of pheromone and plant compounds Introduction onomic investigations were based on examination of adult morphological characters (e.g., wing-spot size and color, geni- Small ermine moths belong to the genus Yponomeuta (Ypo- talia) (Martouret 1966), which did not allow conclusive dis- nomeutidae) that comprises about 75 species distributed glob- crimination of all species, leading to recognition of the so- ally but mainly in the Palearctic region (Gershenson and called padellus-species complex (Friese 1960) which later Ulenberg 1998). These moths are a useful model to decipher proved to include five species (Wiegand 1962; Herrebout et al. the process of speciation, in particular the importance of eco- 1975; Povel 1984). logical adaptation driven by host-plant shifts and the utiliza- In the 1970s, “the small ermine moth project” was initiated tion of species-specific pheromone mating-signals as prezy- to include research on many aspects of the small ermine gotic reproductive isolating mechanisms. -
REJOINDER TU BRYANT MATHER Other Than Skippers, I Would Be Pleased to Know of It
• FOUNDED VOL.6; NO.2 1978 JULY 1984 THE OFFICIAL PUBLICATION OF THE SOUTHERN LEPIDOPTERISTS' SOCIETY, ORGANIZED TO PROMOTE SCIENTIFIC INTEREST AND KNOWLEDGE RELATED TO UNDERSTANDING THE LEPIDOPTERA FAUNA OF THE SOUTHERN REGION OF THE UNITED STATES. REJOINDER TU BRYANT MATHER other than skippers, I would be pleased to know of it. Second, Mather dislikes the SOUTHERN LEPIDOPTERISTS' NEWS 5:1 arrangement of the photographs. This was Robert M. Pyle out of my hands and often at odds with my Swede Park, 369 Loop Road suggestions. Third, common (English) names Gray's River, WA 98621 Again I had no choice but to employ them, and therefore to coin some new ones. I at Thank you for the opportunity to reply tempted to use names that conveyed somethin to Bryant Mather's "Critique of the about the organism better than reiteration Audubon Field Guide" (SLN 5:1, May 1983, of the Latin or a patronym would do. If page 3). As with the remarks of scores Mather dislikes my choices, that is his pre of lepidopterists and others who have rogative. A joint Committee of the Xerces communicated with me about the book, Society and the Lepidopterists' Society is Bryant's comments are appreciated and I currently attempting to standardize English have duly noted them and forwarded them names for American butterflies, so a future to the editors for their consideration. edition my be able to rely on such a list. You were correct in your editorial note I certainly agree that the sole use of com when you explained that I was working mon names as photo captions is highly unfor under constraints imposed by the Chant tunate. -
Ecosystem Services Provided by Bats
Ann. N.Y. Acad. Sci. ISSN 0077-8923 ANNALS OF THE NEW YORK ACADEMY OF SCIENCES Issue: The Year in Ecology and Conservation Biology Ecosystem services provided by bats Thomas H. Kunz,1 Elizabeth Braun de Torrez,1 Dana Bauer,2 Tatyana Lobova,3 and Theodore H. Fleming4 1Center for Ecology and Conservation Biology, Department of Biology, Boston University, Boston, Massachusetts. 2Department of Geography, Boston University, Boston, Massachusetts. 3Department of Biology, Old Dominion University, Norfolk, Virginia. 4Department of Ecology and Evolutionary Biology, University of Arizona, Tucson, Arizona Address for correspondence: Thomas H. Kunz, Ph.D., Center for Ecology and Conservation Biology, Department of Biology, Boston University, Boston, MA 02215. [email protected] Ecosystem services are the benefits obtained from the environment that increase human well-being. Economic valuation is conducted by measuring the human welfare gains or losses that result from changes in the provision of ecosystem services. Bats have long been postulated to play important roles in arthropod suppression, seed dispersal, and pollination; however, only recently have these ecosystem services begun to be thoroughly evaluated. Here, we review the available literature on the ecological and economic impact of ecosystem services provided by bats. We describe dietary preferences, foraging behaviors, adaptations, and phylogenetic histories of insectivorous, frugivorous, and nectarivorous bats worldwide in the context of their respective ecosystem services. For each trophic ensemble, we discuss the consequences of these ecological interactions on both natural and agricultural systems. Throughout this review, we highlight the research needed to fully determine the ecosystem services in question. Finally, we provide a comprehensive overview of economic valuation of ecosystem services. -
Phylogeny of Tortricidae (Lepidoptera): a Morphological Approach with Enhanced Whole
Template B v3.0 (beta): Created by J. Nail 06/2015 Phylogeny of Tortricidae (Lepidoptera): A morphological approach with enhanced whole mount staining techniques By TITLE PAGE Christi M. Jaeger AThesis Submitted to the Faculty of Mississippi State University in Partial Fulfillment of the Requirements for the Degree of Master of Science in Agriculture and Life Sciences (Entomology) in the Department of Biochemistry, Molecular Biology, Entomology, & Plant Pathology Mississippi State, Mississippi August 2017 Copyright by COPYRIGHT PAGE Christi M. Jaeger 2017 Phylogeny of Tortricidae (Lepidoptera): A morphological approach with enhanced whole mount staining techniques By APPROVAL PAGE Christi M. Jaeger Approved: ___________________________________ Richard L. Brown (Major Professor) ___________________________________ Gerald T. Baker (Committee Member) ___________________________________ Diana C. Outlaw (Committee Member) ___________________________________ Jerome Goddard (Committee Member) ___________________________________ Kenneth O. Willeford (Graduate Coordinator) ___________________________________ George M. Hopper Dean College of Agriculture and Life Sciences Name: Christi M. Jaeger ABSTRACT Date of Degree: August 11, 2017 Institution: Mississippi State University Major Field: Agriculture and Life Sciences (Entomology) Major Professor: Dr. Richard L. Brown Title of Study: Phylogeny of Tortricidae (Lepidoptera): A morphological approach with enhanced whole mount staining techniques Pages in Study 117 Candidate for Degree of Master of -
PRODUCTION of CYDIA POMONELLA GRANULOVIRUS (Cpgv) in a HETERALOGOUS HOST, THAUMATOTIBIA LEUCOTRETA (MEYRICK) (FALSE CODLING MOTH)
PRODUCTION OF CYDIA POMONELLA GRANULOVIRUS (CpGV) IN A HETERALOGOUS HOST, THAUMATOTIBIA LEUCOTRETA (MEYRICK) (FALSE CODLING MOTH). A thesis submitted in fulfillment of the requirements for the degree of DOCTOR OF PHILOSOPHY of RHODES UNIVERSITY By CRAIG BRIAN CHAMBERS December 2014 ABSTRACT Cydia pomonella (Linnaeus) (Family: Tortricidae), the codling moth, is considered one of the most significant pests of apples and pears worldwide, causing up to 80% crop loss in orchards if no control measures are applied. Cydia pomonella is oligophagous feeding on a number of alternate hosts including quince, walnuts, apricots, peaches, plums and nectarines. Historically the control of this pest has been achieved with the use of various chemical control strategies which have maintained pest levels below the economic threshold at a relatively low cost to the grower. However, there are serious concerns surrounding the use of chemical insecticides including the development of resistance in insect populations, the banning of various insecticides, regulations for lowering of the maximum residue level and employee and consumer safety. For this reason, alternate measures of control are slowly being adopted by growers such as mating disruption, cultural methods and the use of baculovirus biopesticides as part of integrated pest management programmes. The reluctance of growers to accept baculovirus or other biological control products in the past has been due to questionable product quality and inconsistencies in their field performance. Moreover, the development and application of biological control products is more costly than the use of chemical alternatives. Baculoviruses are arthropod specific viruses that are highly virulent to a number of lepidopteran species. Due to the virulence and host specificity of baculoviruses, Cydia pomonella granulovirus has been extensively and successfully used as part of integrated pest management systems for the control of C. -
Tortricoidea: Lepidoptera) from Northwestern India -- Tribe Eucosmini (Olethreutinae)
PAPER ZOOS' PRINT JOURNAL 20(2): 1751-1765 TAXONOMIC STUDIES ON THE FAMILY TORTRICIDAE (TORTRICOIDEA: LEPIDOPTERA) FROM NORTHWESTERN INDIA -- TRIBE EUCOSMINI (OLETHREUTINAE) H.S. Rose and H.S. Pooni Department of Zoology, Punjabi University, Patiala, Punjab 147002, India E-mail: [email protected] ABSTRACT Sixteen species belonging to eleven genera viz., Rhopobota Lederer, Acroclita Lederer, Strepsicrates Meyrick, Gibberifera Obraztsov, Loboschiza Diakonoff, Crocidosema Zeller, Epinotia Hübner, Helictophanes Meyrick, Acanthoclita Diakonoff, Ancylis Hübner and Eucosma Hübner belonging to the tribe Eusosmini (Olethreutinae) of the family Tortricidae have been collected from northwestern India and dealt with taxonomically. Key to the presently examined genera has been prepared on the basis of characters such as the labial palpi, antennae, costal fold, anal fold, wing venation and male and female genitalic characteristics. Further, keys to the species of the genera Epinotia Hübner and Eucosma Hübner represented by more than one species have also been furnished. Eucosma pseudostrigulata is being reported as new to science. Species such as Rhopobota grypodes Meyrick, Epinotia corynetes Diakonoff, Acanthoclita iridorphna Meyrick and Eucosma prominens Meyrick are being reported for the first time from India, whereas, Acroclita corinthia Meyrick, Gibberifera glaciata Meyrick, Epinotia canthonias Meyrick, Helictophanes dryocoma Meyrick, Ancylis lutescens Meyrick, Eucosma stereoma Meyrick and E. melanoneura Meyrick have been collected for the first -
MOTH CHECKLIST Species Listed Are Those Recorded on the Wetland to Date
Version 4.0 Nov 2015 Map Ref: SO 95086 46541 MOTH CHECKLIST Species listed are those recorded on the Wetland to date. Vernacular Name Scientific Name New Code B&F No. MACRO MOTHS 3.005 14 Ghost Moth Hepialus humulae 3.001 15 Orange Swift Hepialus sylvina 3.002 17 Common Swift Hepialus lupulinus 50.002 161 Leopard Moth Zeuzera pyrina 54.008 169 Six-spot Burnet Zygaeba filipendulae 66.007 1637 Oak Eggar Lasiocampa quercus 66.010 1640 The Drinker Euthrix potatoria 68.001 1643 Emperor Moth Saturnia pavonia 65.002 1646 Oak Hook-tip Drepana binaria 65.005 1648 Pebble Hook-tip Drepana falcataria 65.007 1651 Chinese Character Cilix glaucata 65.009 1653 Buff Arches Habrosyne pyritoides 65.010 1654 Figure of Eighty Tethia ocularis 65.015 1660 Frosted Green Polyploca ridens 70.305 1669 Common Emerald Hermithea aestivaria 70.302 1673 Small Emerald Hemistola chrysoprasaria 70.029 1682 Blood-vein Timandra comae 70.024 1690 Small Blood-vein Scopula imitaria 70.013 1702 Small Fan-footed Wave Idaea biselata 70.011 1708 Single-dotted Wave Idaea dimidiata 70.016 1713 Riband Wave Idaea aversata 70.053 1722 Flame Carpet Xanthorhoe designata 70.051 1724 Red Twin-spot Carpet Xanthorhoe spadicearia 70.049 1728 Garden Carpet Xanthorhoe fluctuata 70.061 1738 Common Carpet Epirrhoe alternata 70.059 1742 Yellow Shell Camptogramma bilineata 70.087 1752 Purple Bar Cosmorhoe ocellata 70.093 1758 Barred Straw Eulithis (Gandaritis) pyraliata 70.097 1764 Common Marbled Carpet Chloroclysta truncata 70.085 1765 Barred Yellow Cidaria fulvata 70.100 1776 Green Carpet Colostygia pectinataria 70.126 1781 Small Waved Umber Horisme vitalbata 70.107 1795 November/Autumnal Moth agg Epirrita dilutata agg.