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Integrated Pest Management: Current and Future Strategies
Integrated Pest Management: Current and Future Strategies Council for Agricultural Science and Technology, Ames, Iowa, USA Printed in the United States of America Cover design by Lynn Ekblad, Different Angles, Ames, Iowa Graphics and layout by Richard Beachler, Instructional Technology Center, Iowa State University, Ames ISBN 1-887383-23-9 ISSN 0194-4088 06 05 04 03 4 3 2 1 Library of Congress Cataloging–in–Publication Data Integrated Pest Management: Current and Future Strategies. p. cm. -- (Task force report, ISSN 0194-4088 ; no. 140) Includes bibliographical references and index. ISBN 1-887383-23-9 (alk. paper) 1. Pests--Integrated control. I. Council for Agricultural Science and Technology. II. Series: Task force report (Council for Agricultural Science and Technology) ; no. 140. SB950.I4573 2003 632'.9--dc21 2003006389 Task Force Report No. 140 June 2003 Council for Agricultural Science and Technology Ames, Iowa, USA Task Force Members Kenneth R. Barker (Chair), Department of Plant Pathology, North Carolina State University, Raleigh Esther Day, American Farmland Trust, DeKalb, Illinois Timothy J. Gibb, Department of Entomology, Purdue University, West Lafayette, Indiana Maud A. Hinchee, ArborGen, Summerville, South Carolina Nancy C. Hinkle, Department of Entomology, University of Georgia, Athens Barry J. Jacobsen, Department of Plant Sciences and Plant Pathology, Montana State University, Bozeman James Knight, Department of Animal and Range Science, Montana State University, Bozeman Kenneth A. Langeland, Department of Agronomy, University of Florida, Institute of Food and Agricultural Sciences, Gainesville Evan Nebeker, Department of Entomology and Plant Pathology, Mississippi State University, Mississippi State David A. Rosenberger, Plant Pathology Department, Cornell University–Hudson Valley Laboratory, High- land, New York Donald P. -
Tropical Insect Chemical Ecology - Edi A
TROPICAL BIOLOGY AND CONSERVATION MANAGEMENT – Vol.VII - Tropical Insect Chemical Ecology - Edi A. Malo TROPICAL INSECT CHEMICAL ECOLOGY Edi A. Malo Departamento de Entomología Tropical, El Colegio de la Frontera Sur, Carretera Antiguo Aeropuerto Km. 2.5, Tapachula, Chiapas, C.P. 30700. México. Keywords: Insects, Semiochemicals, Pheromones, Kairomones, Monitoring, Mass Trapping, Mating Disrupting. Contents 1. Introduction 2. Semiochemicals 2.1. Use of Semiochemicals 3. Pheromones 3.1. Lepidoptera Pheromones 3.2. Coleoptera Pheromones 3.3. Diptera Pheromones 3.4. Pheromones of Insects of Medical Importance 4. Kairomones 4.1. Coleoptera Kairomones 4.2. Diptera Kairomones 5. Synthesis 6. Concluding Remarks Acknowledgments Glossary Bibliography Biographical Sketch Summary In this chapter we describe the current state of tropical insect chemical ecology in Latin America with the aim of stimulating the use of this important tool for future generations of technicians and professionals workers in insect pest management. Sex pheromones of tropical insectsUNESCO that have been identified to– date EOLSS are mainly used for detection and population monitoring. Another strategy termed mating disruption, has been used in the control of the tomato pinworm, Keiferia lycopersicella, and the Guatemalan potato moth, Tecia solanivora. Research into other semiochemicals such as kairomones in tropical insects SAMPLErevealed evidence of their presence CHAPTERS in coleopterans. However, additional studies are necessary in order to confirm these laboratory results. In fruit flies, the isolation of potential attractants (kairomone) from Spondias mombin for Anastrepha obliqua was reported recently. The use of semiochemicals to control insect pests is advantageous in that it is safe for humans and the environment. The extensive use of these kinds of technologies could be very important in reducing the use of pesticides with the consequent reduction in the level of contamination caused by these products around the world. -
Tomato Pinworm Keiferia Lycopersicella
Tomato pinworm Keiferia lycopersicella Figure 1. Larva of Keiferia lycopersicella showing indistinct dorsal markings. Larvae reach a maximum length of 8 mm. © Alton N. Sparks, Jr., University of Georgia, Bugwood.org Background The tomato pinworm, Keiferia lycopersicella (Walsingham) (Lepidoptera, Gelechiidae) is a pest of tomatoes in North America. It has caused foliage and fruit damage to crops in the United States, with reports of up to 80% of fruit in infested fields damaged over the growing season. In 2008, K. lycopersicella was found for the first time in Europe, in Italy, where it was causing severe damage to a crop of tomatoes along with another introduced gelechiid pest, Tuta absoluta (the South American tomato moth). Keiferia lycopersicella has not been intercepted in the UK to date. Geographical Distribution Keiferia lycopersicella is native to North America, where the species was first described. It is found in Mexico and southern states in the USA, as well as on the islands of Cuba, Haiti, the Bahamas and Hawaii. Outbreaks of the pest under glass PLANT PEST FACTSHEET have been reported from more northerly states in the USA, including Delaware and Pennsylvania, and from regions in Canada, including Ontario. Keiferia lycopersicella was reported from a site near Genova in Italy in November 2008. However, the Italian outbreak of K. lycopersicella was eradicated, and it is no longer considered to be present in Europe. Host Plants The preferred host is tomato (Lycopersicon esculentum), on which the larvae initially mine the leaves, but may start to eat fruit or stems as they grow older. Larvae will also feed on the leaves of aubergine (Solanum melongena) and potato (S. -
Tuta Absoluta, the South American Tomato Leafminer
ANR Publication 8589 | January 2018 http://anrcatalog.ucanr.edu Tuta Absoluta, The South American Tomato Leafminer he South American tomato leafminer, Tuta absoluta TMeyrick (Lepidoptera: Gelechiidae), is a serious and devastating pest of fresh market and processing tomatoes (fig. 1). Tuta absoluta, or Tuta, as it is also known, is thought to be native to South America. Currently, Tuta can be found in South America, southern Central America, southern Europe, northern Africa, the Middle East, and in localized parts of India (CABI 2016). Tuta is continuing to spread throughout the tomato-growing areas of the world (Desneux et al. 2010). Although it has not been reported in California or elsewhere in the United States, computer Figure 1. Tuta damage. Photo: J. Arno. KRIS GODFREY, University of models that are used to match the life history of an invasive California, Davis, Contained pest with climate and availability of host plants have predicted that Tuta has a moderate Research Facility; likelihood of establishing in the commercial tomato-growing regions of California, FRANK ZALOM, University of Arizona, and the southern United States (USDA 2011). California, Davis, Department of Entomology and Nematology; Tuta absoluta bores into tomato leaves, stems, flowers, apical buds, and fruit, resulting in less fruit set, poor plant and JOANNA CHIU, University of structure, and unmarketable fruit. Crop losses can be as high as 80 to 100 percent, and insecticide costs may California, Davis, Department of dramatically increase due to the need for additional insecticide applications (Lopez 1991; Estay 2000; Torres et al. Entomology and Nematology ANR Publication 8589 | Tuta Absoluta, The South American Tomato Leafminer | January 2018 | 2 2001; Desneux et al. -
Surveying for Terrestrial Arthropods (Insects and Relatives) Occurring Within the Kahului Airport Environs, Maui, Hawai‘I: Synthesis Report
Surveying for Terrestrial Arthropods (Insects and Relatives) Occurring within the Kahului Airport Environs, Maui, Hawai‘i: Synthesis Report Prepared by Francis G. Howarth, David J. Preston, and Richard Pyle Honolulu, Hawaii January 2012 Surveying for Terrestrial Arthropods (Insects and Relatives) Occurring within the Kahului Airport Environs, Maui, Hawai‘i: Synthesis Report Francis G. Howarth, David J. Preston, and Richard Pyle Hawaii Biological Survey Bishop Museum Honolulu, Hawai‘i 96817 USA Prepared for EKNA Services Inc. 615 Pi‘ikoi Street, Suite 300 Honolulu, Hawai‘i 96814 and State of Hawaii, Department of Transportation, Airports Division Bishop Museum Technical Report 58 Honolulu, Hawaii January 2012 Bishop Museum Press 1525 Bernice Street Honolulu, Hawai‘i Copyright 2012 Bishop Museum All Rights Reserved Printed in the United States of America ISSN 1085-455X Contribution No. 2012 001 to the Hawaii Biological Survey COVER Adult male Hawaiian long-horned wood-borer, Plagithmysus kahului, on its host plant Chenopodium oahuense. This species is endemic to lowland Maui and was discovered during the arthropod surveys. Photograph by Forest and Kim Starr, Makawao, Maui. Used with permission. Hawaii Biological Report on Monitoring Arthropods within Kahului Airport Environs, Synthesis TABLE OF CONTENTS Table of Contents …………….......................................................……………...........……………..…..….i. Executive Summary …….....................................................…………………...........……………..…..….1 Introduction ..................................................................………………………...........……………..…..….4 -
Garden Pest Insects and Their Control
Joseph Berger, Bugwood.org Curriculum Clemson University Bugwood.org Tomato pest management Kaushalya Amarasekare, Ph.D. Assistant Professor of Entomology Department of Agric. and Environ. Sciences College of Agriculture Tennessee State University Nashville, TN Univ. of California-Statewide IPM Project Univ. of California-Statewide IPM Project Goal The goal of this training is to educate stakeholders on arthropods (pest insects and mites) that damage tomatoes and methods to manage them using integrated pest management (IPM) techniques Objectives Upon completion of this training, the participants will be able to 1) teach, 2) demonstrate and 3) guide growers, small farmers, backyard and community gardeners, master gardeners, and other stakeholders on management of pest arthropods in tomatoes Course Outline 1. Introduction: background information on tomatoes 2. Arthropod pests (insects and mites) of tomatoes a) Early season pests b) Pests during fruit set to harvest 3. Summary 4. References 1. Introduction Tomatoes Hornworm damage to foliage • An easy and popular vegetable to grow • Problems/issues: caused by nutrient deficiencies, diseases, and / or arthropod (insect and Julie Pioch Michigan State University Extension mite) pests • Need to assess the symptoms and use appropriate control measures • Good cultural practices: reduce or eliminate many Hornworm damage to fruits University of California Cooperative Extension- problems Master Gardeners of Sacramento County Tomatoes in Tennessee • 2012: TN ranked 6th in the nation for production -
Pests on the Horizon
7/31/2014 Pests on the Horizon Pests on the Horizon • Tomato leafminer -Tuta absoluta • Tomato fruit borer - Neoleucinodes elegantalis • Old world bollworm - Helicoverpa armigera • Tomato apical stunt viroid Umesh Kodira, Director • Bois noir and stolbur phytoplasma – „Candidatus Pest Detection and Emergency Programs USDA-APHIS-PPQ Phytoplasma solani‟ Tomato leafminer - Tuta absoluta Tomato leafminer - Tuta absoluta • Pest of Solanaceae family • Native to South America; also found in Europe, northern Africa, and the Middle East • Not known to occur in the United States Source: cs.wikipedia.org Source: pathpiva.wifeo.com Source: agralan-growers.co.uk • Preferred host: tomato, can attack eggplant, potato, pepper, • Lays eggs in all aboveground portions of the plant (leaves, shoots, flowers, fruit) • Can be confused with the tomato pinworm (Keiferia lycopersicella) Source: Devaiah Muruvanda, PPQ Source: Devaiah Muruvanda, PPQ Source: efa-dip.org Tomato leafminer - Tuta absoluta Tomato leafminer - Tuta absoluta Prevalence and global distribution Albania Estonia Lebanon Senegal* Algeria* Ethiopia Liberia* Sierra Leone* Argentina Finland Libya Slovakia Potential pathways: Austria France* Lithuania Slovenia Bahrain Gambia, The* Luxembourg South Sudan Belgium* Germany Mali* Spain* • Movement of infested fruit and plants for planting Benin* Ghana* Malta Sudan Bolivia Greece* Morocco* Sweden • All stages could be carried in fruit, leaves and stems Brazil Guinea* Netherlands* Switzerland Bulgaria Guinea-Bissau* Niger* Syria • Movement via the nursery -
Keiferia Lycopersicella
EUROPEAN AND MEDITERRANEAN PLANT PROTECTION ORGANIZATION ORGANISATION EUROPEENNE ET MEDITERRANEENNE POUR LA PROTECTION DES PLANTES 12-17836 Pest Risk Analysis for Keiferia lycopersicella September 2012 EPPO 21 Boulevard Richard Lenoir 75011 Paris www.eppo.int [email protected] This risk assessment follows the EPPO Standard PM 5/3(5) Decision-support scheme for quarantine pests (available at http://archives.eppo.int/EPPOStandards/pra.htm) and uses the terminology defined in ISPM 5 Glossary of Phytosanitary Terms (available at https://www.ippc.int/index.php). This document was first elaborated by an Expert Working Group and then reviewed by core members and by the Panel on Phytosanitary Measures and if relevant other EPPO bodies. It was finally approved by the Council in September 2012. Cite this document as: EPPO (2012) Final pest risk analysis for Keiferia lycopersicella. EPPO, Paris. EUROPEAN AND MEDITERRANEAN PLANT PROTECTION ORGANIZATION ORGANISATION EUROPEENNE ET MEDITERRANEENNE POUR LA PROTECTION DES PLANTES 12-17836 (12-17584, 11-17314) Pest Risk Analysis for Keiferia lycopersicella This PRA follows the EPPO Decision-support scheme for quarantine pests PM 5/3 (5). A preliminary draft has been prepared by the EPPO Secretariat. This document has been reviewed by an Expert Working Group that met in the EPPO Headquarters in Paris on 2011-09-19/22. This EWG was composed of: Ad hoc members Mr John TRUMBLE, University of California – Riverside (US) Mr Brahim CHERMITI, Institut Supérieur Agronomique - Chott-Mériem (TN) Ms Tülin KILIÇ, Plant Protection Research Institute (TR) Mr Antonio MONSERRAT, Servicio de Sanidad Vegetal. La Alberca-Murcia (ES) Mr Roel POTTING, Plant Protection Service- Wageningen (NL) Core members Mr Jose Maria GUITIAN CASTRILLON, TRAGSATEC - Madrid (ES) Ms Claire SANSFORD - Food and Environment Research Agency- York (GB) Secretariat Ms Muriel Suffert – EPPO Secretariat Ms Fabienne Grousset – Consultant for EPPO who has prepared the draft PRA. -
List of Quarantine Pests of Georgia Section I. List A1 Chapter 1. Insects
List of quarantine pests of Georgia Section I. List A1 Chapter 1. Insects and mites 1. Aceria sheldoni Ewing. 2. Agrilus planipennis Fainmaire 3. Aleurocanthus woglumi Ashby. 4. Anastrepha fraterculus 5. Anastrepha ludens 6. Anastrepha suspensa 7. Anoplophora glabripennis Mots. 8. Anthonomus bisignifer 9. Anthonomus signatus 10. Arrhenodes minutus (as a putative vector of Ceratocystis fagacearum) 11. Bemisia tabaci Gen. 12. Bactericera cockerelli (as a vector of Liberibacter solanacearum) 13. Bactrocera cucurbitae 14. Bactrocera dorsalis 15. Blitopertha orientalis 16. Callosobruchus analis L. 17. Callosobruchus chinensis L. 18. Callosobruchus maculatus F. 19. Carposina sasakii Mat. 20. Carneocephala fulgida (as vector of Xylella fastidiosa) 21. Ceratitis capitata (Wied.) 22. Ceratitis rosa 23. Choristoneura conflictana 24. Choristoneura rosaceana 25. Conotrachelus nenuphar 26. Cydia prunivora 27. Dendrolimus sibiricus 28. Dendrolimus superans 29. Diabrotica barberi 30. Diabrotica speciosa 31. Diabrotica undecimpunctata undecimpunctata 32. Diabrotica virgifera virgifera 33. Diaphorina citri (as vector of Liberobacter spp.) 34. Draeculacephala minerva (as vector of Xylella fastidiosa) 35. Epitrix tuberis 36. Epitrix subcriniata 37. Frankliniella occidentalis 38. Graphocephala atropunctata (as vector of Xylella fastidiosa) 39. Helicoverpa zea 40. Heteronychus arator 41. Homalodisca vitripennis (= H. coagulata - vector of Xylella fastidiosa) 42. Ips calligraphus 43. Ips confusus & I. paraconfusus 44. Ips grandicollis 45. Ips lecontei 46. Ips pini 47. Ips plastographus 48. Keiferia lycopersicella 49. Leucinodes orbonalis 50. Liriomyza trifolii 51. Listronotus bonariensis 52. Lymantria dispar L. 53. Malacosoma americanum 54. Malacosoma disstria 55. Margarodes vitis 56. Megaplatypus mutatus 57. Melanotus communis 58. Metamasius hemipterus 59. Monochamus spp. (vectors of B. xylophilus) 60. Monochamus alternatus 61. Monochamus carolinensis 62. Monochamus marmorator 63. -
Transgenesis of Tomato: Relevance in Molecular Research Today
IJSAR, 4(7), 2017; 103-112 International Journal of Sciences & Applied Research www.ijsar.in Transgenesis of tomato: Relevance in molecular research today Somnath Mondal and Surekha Kundu* Molecular and Applied Mycology and Plant Pathology Laboratory, Department of Botany, University of Calcutta 35, Ballygunge Circular Road, Kolkata-700019, India. Corresponding author: *Surekha Kundu, Molecular and Applied Mycology and Plant Pathology Laboratory, Department of Botany, University of Calcutta 35, Ballygunge Circular Road, Kolkata-700019, India. _____________________________________________________________________________________________ Abstract Tomato is not only one of the most important of vegetable crops but also is an important dicotyledonous model plant for scientific research. Genetic transformation of tomato is often the first step of various scientific researches to follow. Along with the view to generating tomato lines with diverse desirable traits transformed tomato serve as the background of doing functional studies. There are many transformation protocols for tomato and these have their advantages and dis-advantages. The selection of the desirable traits, the appropriate promoter/terminator sequences, suitable selectable markers and reporter genes are to be critically considered. A number of different transgenic lines of tomato are available today that have improved nutritional content, better shelf life, resistance to biotic/abiotic stresses and even for development of vaccines and as tools in immunotherapy. The importance -
Obilnářské Listy, 20, 2012, 4, 97-101
Dvouleté pokusy (2009–2010 a 2010–2011) nepotvrdily tento Evans LT, Fischer RA (1999): Yield potential: Its definition, předpoklad. Genotypy s MRS měly nižší výnosy oproti measurement, and significance. Crop Sci., 39(6): 1544–1551. genotypům s LG a oproti kontrolním odrůdám s NS. Nejvyšší Foulkes MJ, Slafer GA, Davies WJ, Berry PM, Sylvester-Bradley dosažený výnos u linie s MRS KM 52-09MRS dosáhl 11,0 t.ha-1 R, Martre P, Calderini DF, Griffiths S, Reynolds MP (2011): v roce 2011 ve variantě se 100 kg dusíku a s ošetřením fungicidy Raising yield potential of wheat. III. Optimizing partitioning to a morforegulátory, byl sice poměrně vysoký, byl ale o jednu tunu grain while maintaining lodging resistance. J. Exp. Bot. 62: nižší než u odrůd s NS (Federer, Bohemia a Biscay), které dosáhly 469–486. shodně výnosu 12,0 t.ha-1. Proto genové zdroje s MRS se zatím Gebbing T, Schnyder H (2001): 13C labelling kinetics of sucrose jeví jako šlechtitelsky méně perspektivní. Nižší výnosová in glumes indicates significant refixation of respiratory CO2 in schopnost genotypů s MRS byla kompenzována vyšším the wheat ear. Aust. J. Plant Physiol. 28(10): 1047–1053. obsahem dusíkatých látek v zrnu. Hu L, Li Y, Xu WG, Zhang QC, Zhang L, Qi, XL, Dong HB (2012): Klasy s LG se vyznačují větší délkou a zvětšeným povrchem Improvement of the photosynthetic characteristics of plev a svými výnosovými charakteristikami se více podobají transgenic wheat plants by transformation with the maize C4 kontrolním odrůdám s NS. U genotypů s LG byla zaznamenána phosphoenolpyruvate carboxylase gene. -
Dichotomous Key to Gelechiid Larvae
KEY TO SEPARATE NATIVE AND QUARANTINE SIGNIFICANT SPECIES OF GELECHIIDAE FEEDING ON SOLANACEAE IN FLORIDA AND THE GULF COAST REGION Steven Passoa and Jim Young Passoa (2007) illustrated identification characters of some exotic Lepidoptera of quarantine significance to the southern United States. As pointed out by Hodges (1998), little information exists on the immature stages of the Gelechioidea and very few vouchers document these life cycles. This lack of material prevented Passoa (2007) from treating the family Gelechiidae at the species level. Here we present a key to separate some native and quarantine significant species of Gelechiidae feeding on Solanaceae in Florida and the Gulf Coast Region. Identification of the pest species is often difficult; in particular, there is a need to distinguish Tuta absoluta from Keiferia lycopersicella (Povolny 1975: 392). Larval terminology follows Stehr (1987). The definition of "outer tooth" (called an extra tooth by Benander 1937) follows Passoa (1985). This key is made for late instar larvae; early instars may not be identifiable. Characters used in the key were taken from Capps (1946), Keifer (1936, 1937), Povolny (1973), Schnitzler et al. (2012), USDA (1973) and Weisman (1986). A few discrepancies in the literature are discussed in the caveat section below. The characters in the couplets are ordered from the head to abdomen for ease of viewing. The number of teeth on the mandible is subject to wear, and the last (fifth) tooth is especially small and easily missed if worn. Typically, gelechiid larvae are recognized by having the following combination of characters: a trisetose prespiracular group, L1 and L2 closely spaced below the spiracle on A3-6, a bisetose SV group on A1, a trisetose SV group on A3-6, and A9 with the D and SD setae each on a separate pinaculum (Capps 1946).