TY - JOUR
T1 - Worldwide tests of generic attractants, a promising tool for early detection of non-native cerambycid species
AU - Roques, Alain
AU - Ren, Lili
AU - Rassati, Davide
AU - Shi, Juan
AU - Akulov, Evgueni
AU - Audsley, Neil
AU - Auger-Rozenberg, Marie Anne
AU - Avtzis, Dimitrios
AU - Battisti, Andrea
AU - Bellanger, Richard
AU - Bernard, Alexis
AU - Bernadinelli, Iris
AU - Branco, Manuela
AU - Cavaletto, Giacomo
AU - Cocquempot, Christian
AU - Contarini, Mario
AU - Courtial, Béatrice
AU - Courtin, Claudine
AU - Denux, Olivier
AU - Dvořák, Miloň
AU - Fan, Jian ting
AU - Feddern, Nina
AU - Francese, Joseph
AU - Franzen, Emily K.L.
AU - Garcia, André
AU - Georgiev, Georgi
AU - Georgieva, Margarita
AU - Giarruzzo, Federica
AU - Gossner, Martin
AU - Gross, Louis
AU - Guarneri, Daniele
AU - Hoch, Gernot
AU - Hölling, Doris
AU - Jonsell, Mats
AU - Kirichenko, Natalia
AU - Loomans, Antoon
AU - Luo, You qing
AU - McCullough, Deborah
AU - Maddox, Craig
AU - Magnoux, Emmanuelle
AU - Marchioro, Matteo
AU - Martinek, Petr
AU - Mas, Hugo
AU - Mériguet, Bruno
AU - Pan, Yong zhi
AU - Phélut, Régis
AU - Pineau, Patrick
AU - Ray, Ann M.
AU - Roques, Olivier
AU - Ruiz, Marie Cécile
AU - i Monteys, Victor Sarto
AU - Speranza, Stefano
AU - Sun, Jiang hua
AU - Sweeney, Jon D.
AU - Touroult, Julien
AU - Valladares, Lionel
AU - Veillat, Loïs
AU - Yuan, Yuan
AU - Zalucki, Myron P.
AU - Zou, Yunfan
AU - Žunič-Kosi, Alenka
AU - Hanks, Lawrence M.
AU - Millar, Jocelyn G.
N1 - We thank Filippo Giannone, Riccardo Poloni, Kate Van Rooyen, Chantelle Kostanowicz, Vincent Webster, Andrej Kapla, Matic Gabor, Mischa Giasson and Cory Hughes for technical assistance in the lab and field and for species identification. Paige Payter, Michigan State University (MSU), installed and monitored traps in Michigan and Page Payter and Gary Parsons (MSU) identified the captured cerambycids. We are indebted to Fréderic Delport, François-Xavier Saintonge, Jean-Baptiste Daubrée and all colleagues of the “Santé des Forêts” Department (DSF) and local offices (SRAL) of the French Ministry of Agriculture for the management of the traps in France. Marie-Pierre Dufresne from Fredon Centre - Val de Loire and Sylvain Amiot from the Direction Patrimoine végétal et Biodiversité of Tours-Métropole helped to settle traps in the Val de Loire area, France. We are also grateful to Eddy Poirier and Nicolas Moulin for the management of the traps in Martinique and to the forest health team of Vaersa and the forest management service (SOGF) of the Generalitat Valenciana (Spain). We thank very much Xing Zhong-Ping for his help in the trappings in Yunnan and Anastasia Knorre for helping us with field research in the State Nature Reserve “Stolby” (Krasnoyarsk, Russia). We also want to thank Prof. Ana Paula Ramos for enabling a connection with the administration of the municipalities of Lisbon and Setúbal for the trappings in Portugal. We are indebted to Eng. Rui Simão and Eng. Ana Júlia Francisco in CM-Lisboa, Dr. António Nobre from the administration board of Lisbon harbour, Eng. Sérgio Gaspar from CM-Setúbal for allowing us to conduct this work in their municipalities. The municipality of L’Argentière la Bessée provided invaluable assistance for the management of the traps in the southern French Alps. We thank Robert Haack, Nicolas Meurisse and a third anonymous reviewer for their very helpful comments and suggestions on the manuscript
This work was essentially supported by the HOMED project (HOlistic Management of Emerging Forest Pests and Diseases) which received funding from the European Union’s Horizon 2020 research and innovation programme under grant agreement No. 771271 (https://homed-projecteu/). We also acknowledge funding from the European project LIFE SAMFIX (SAving Mediterranean Forests from Invasions of Xy-losandrus Beetles and associated Pathogenic Fungi, LIFE17 NAT/IT/000609, https:// wwwlifesamfixeu/), from the EUPHRESCO project MULTITRAP (“Multi-lure and multi-trap surveillance for invasive tree pests”). Trappings in France were supported from funding by the French Ministry of Agriculture under the PORTRAP project “Test de l’efficacité de pièges génériques multicomposés pour la détection précoce d’in-sectes exotiques xylophages dans les sites potentiels d’entrée sur le territoire national” and by the Région Centre-Val de Loire under the CANOPEE project (“Biodiversité des insectes des canopées de chênes dépérissants“-Project No. 2018-00124136). Trapping in Austria was supported by the Austrian Federal Ministry for Agriculture, Forestry, Regions and Water Management (Research Project 101183). Trapping in China was partially supported by a grant from the French Embassy in Beijing under the programme CaiYuanPei. LR, JS, YQL and YY are grateful for funding by the National Key Research and Development Program of China (Grant No 2021YFC2600400) and the National Natural Science Foundation of China (31770687). Research conducted in Nova Scotia, Canada, was funded by the Pest Risk Management Program of Natural Resources Canada, Canadian Forest Service. Trapping in Michigan was supported by a grant from the Michigan Department of Agriculture and Rural Development. Research in Siberia (Russia) was supported by Sukachev Institute of Forest SB RAS (the basic project, grant No 0287-2021-0011) [field collection] and the Russian Science Foundation (grant No 22-16-00075) [species identification]. AMR and EKLF are grateful for the Robert Borcer Endowment and the Undergraduate Research Fund of Xavier University and USDA-APHIS cooperative agreement numbers AP19PPQS and T00C082 and AP20PPQS and T00C173. MZ and CM acknowledge funding by the New South Wales government and Hort Innovation project 16004 NSW DPI component of the Macadamia Integrated Pest Management. Trials in Martinique were part of a natural site inventory funded by the DEAL Martinique (French Ministry of Environment). The work in Slovenia was financially supported by the Slovenian Research Agency (Research Core Funding P1-0255). Trapping in England was supported by the Department for Environment, Food and Rural Affairs (Defra). JGM and LMH gratefully acknowledge support from United States Department of Agriculture, Animal and Plant Health Inspection Service (APHIS) grants 19-to 22-8130-1422-CA.
PY - 2023
Y1 - 2023
N2 - A large proportion of the insects which have invaded new regions and countries are emerging species, being found for the first time outside their native range. Being able to detect such species upon arrival at ports of entry before they establish in non-native countries is an urgent challenge. The deployment of traps baited with broad-spectrum semiochemical lures at ports-of-entry and other high-risk sites could be one such early detection tool. Rapid progress in the identification of semiochemicals for cerambycid beetles during the last 15 years has revealed that aggregation-sex pheromones and sex pheromones are often conserved at global levels for genera, tribes or subfamilies of the Cerambycidae. This possibly allows the development of generic attractants which attract multiple species simultaneously, especially when such pheromones are combined into blends. Here, we present the results of a worldwide field trial programme conducted during 2018–2021, using traps baited with a standardised 8-pheromone blend, usually complemented with plant volatiles. A total of 1308 traps were deployed at 302 sites covering simultaneously or sequentially 13 European countries, 10 Chinese provinces and some regions of the USA, Canada, Australia, Russia (Siberia) and the Caribbean (Martinique). We intended to test the following hypotheses: 1) if a species is regularly trapped in significant numbers by the blend on a continent, it increases the probability that it can be detected when it arrives in other countries/continents and 2) if the blend exerts an effective, generic attraction to multiple species, it is likely that previously unknown and unexpected species can be captured due to the high degree of conservation of pheromone structures within related taxa. A total of 78,321 longhorned beetles were trapped, representing 376 species from eight subfamilies, with 84 species captured in numbers greater than 50 individuals. Captures comprised 60 tribes, with 10 tribes including more than nine species trapped on different continents. Some invasive species were captured in both the native and invaded continents. This demonstrates the potential of multipheromone lures as effective tools for the detection of ‘unexpected’ cerambycid invaders, accidentally translocated outside their native ranges. Adding new pheromones with analogous well-conserved motifs is discussed, as well as the limitations of using such blends, especially for some cerambycid taxa which may be more attracted by the trap colour or other characteristics rather than to the chemical blend.
AB - A large proportion of the insects which have invaded new regions and countries are emerging species, being found for the first time outside their native range. Being able to detect such species upon arrival at ports of entry before they establish in non-native countries is an urgent challenge. The deployment of traps baited with broad-spectrum semiochemical lures at ports-of-entry and other high-risk sites could be one such early detection tool. Rapid progress in the identification of semiochemicals for cerambycid beetles during the last 15 years has revealed that aggregation-sex pheromones and sex pheromones are often conserved at global levels for genera, tribes or subfamilies of the Cerambycidae. This possibly allows the development of generic attractants which attract multiple species simultaneously, especially when such pheromones are combined into blends. Here, we present the results of a worldwide field trial programme conducted during 2018–2021, using traps baited with a standardised 8-pheromone blend, usually complemented with plant volatiles. A total of 1308 traps were deployed at 302 sites covering simultaneously or sequentially 13 European countries, 10 Chinese provinces and some regions of the USA, Canada, Australia, Russia (Siberia) and the Caribbean (Martinique). We intended to test the following hypotheses: 1) if a species is regularly trapped in significant numbers by the blend on a continent, it increases the probability that it can be detected when it arrives in other countries/continents and 2) if the blend exerts an effective, generic attraction to multiple species, it is likely that previously unknown and unexpected species can be captured due to the high degree of conservation of pheromone structures within related taxa. A total of 78,321 longhorned beetles were trapped, representing 376 species from eight subfamilies, with 84 species captured in numbers greater than 50 individuals. Captures comprised 60 tribes, with 10 tribes including more than nine species trapped on different continents. Some invasive species were captured in both the native and invaded continents. This demonstrates the potential of multipheromone lures as effective tools for the detection of ‘unexpected’ cerambycid invaders, accidentally translocated outside their native ranges. Adding new pheromones with analogous well-conserved motifs is discussed, as well as the limitations of using such blends, especially for some cerambycid taxa which may be more attracted by the trap colour or other characteristics rather than to the chemical blend.
KW - Cerambycidae
KW - Holarctic
KW - early detection
KW - invasion
KW - multi-pheromone blend
KW - pheromone trapping
UR - http://www.scopus.com/inward/record.url?scp=85161715655&partnerID=8YFLogxK
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U2 - 10.3897/NEOBIOTA.84.91096
DO - 10.3897/NEOBIOTA.84.91096
M3 - Article
AN - SCOPUS:85161715655
SN - 1619-0033
VL - 84
SP - 169
EP - 209
JO - NeoBiota
JF - NeoBiota
ER -