Miklos Toth

Dr. Miklos Toth

orcid

Research Focus & Metrics

Academic Career Length

16Years (2011-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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30 March 2019 in Pest Management Science
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Journal Article
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ZLZsófia Lohonyai
Zsófia Lohonyai
JVJozsef Vuts
Jozsef Vuts
Zsolt KarpatiZsolt Karpati
Zsolt Karpati
SKSándor Koczor
Sándor Koczor
MDMichael J. Domingue
Michael J. Domingue
ZIZoltan Imrei
Zoltan Imrei

30 November 2011 in Entomologia Experimentalis et Applicata
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Journal Article
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MTMiklos Toth
Miklos Toth
PLPeter Landolt
Peter Landolt
ISIstván Szarukán
István Szarukán
ISImre Szólláth
Imre Szólláth
IVImre Vitányi
Imre Vitányi
SKSándor Koczor
Sándor Koczor

1 June 2013 in Zeitschrift für Naturforschung C
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Journal Article
Open access
ZIZoltan Imrei
Zoltan Imrei
JMJocelyn Millar
Jocelyn Millar
MTMiklos Toth
Miklos Toth
Five compounds known to be pheromone components of longhorned beetles (Coleoptera: Cerambycidae) in the subfamily Cerambycinae were fi eld-tested as attractants and possible pheromones for the cerambycid fauna of Hungary. Nine cerambycid species were caught in baited traps. Large numbers of both sexes of the cerambycine species Molorchus umbellatarum Schreb. were caught in traps baited with (2R*,3S*)-octanediol, while the diastereomeric (2R*,3R*)-octanediol was to some extent attractive as well. This is the fi rst report on an aggregation attractant and a likely pheromone for a species in the cerambycine tribe Molorchini. The results of our study support the hypothesis that the diol/hydroxyketone pheromone motif is characteristic of and highly conserved within the subfamily Cerambycinae. Intraspecifi c chemical communication is summarized for the subfamily Cerambycinae, and possible links between taxonomy, insect behaviour, and pheromone structures are described

8 October 2014 in Chemoecology
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Journal Article
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MTMiklos Toth
Miklos Toth
LFLorenzo Furlan
Lorenzo Furlan
JVJózsef Vuts
József Vuts
ISIstván Szarukán
István Szarukán
IUIstván Ujváry
István Ujváry
WFWittko Francke
Wittko Francke

9 August 2021 in Journal of Chemical Ecology
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Journal Article
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JVJozsef Vuts
Jozsef Vuts
SSSzabolcs Szanyi
Szabolcs Szanyi
KSKálmán Szanyi
Kálmán Szanyi
LKLisa König
Lisa König
Antal NagyAntal Nagy
Antal Nagy
MTMiklos Toth
Miklos Toth

13 April 2023 in Insects
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NFNorbert Flórián
Norbert Flórián
JJJúlia Katalin Jósvai
Júlia Katalin Jósvai
ZTZsolt Tóth
Zsolt Tóth
Veronika GergócsVeronika Gergócs
Veronika Gergócs
LSLászló Sipőcz
László Sipőcz
MDMiklós Dombos
Miklós Dombos
Monitoring insect populations is essential to optimise pest control with the correct protection timing and the avoidance of unnecessary insecticide use. Modern real-time monitoring practices use automatic insect traps, which are expected to be able to estimate the population sizes of pest animals with high species specificity. There are many solutions to overcome this challenge; however, there are only a few data that consider their accuracy under field conditions. This study presents an opto-electronic device prototype (ZooLog VARL) developed by us. A pilot field study evaluated the precision and accuracy of the data filtering using an artificial neural network(ANN) and the detection accuracy of the new probes. The prototype comprises a funnel trap, sensor-ring, and data communication system. The main modification of the trap was a blow-off device that prevented the escape of flying insects from the funnel. These new prototypes were tested in the field during the summer and autumn of 2018, detecting the daily and monthly flight of six moth species (Agrotis segetum, Autographa gamma, Helicoverpa armigera, Cameraria ohridella, Grapholita funebrana, Grapholita molesta). The accuracy of ANN was always higher than 60%. In the case of species with larger body sizes, it reached 90%. The detection accuracy ranged from 84% to 92% on average. These probes detected the real-time catches of the moth species. Therefore, weekly and daily patterns of moth flight activity periods could be compared and displayed for the different species. This device solved the problem of multiple counting and gained a high detection accuracy in target species cases. ZooLog VARL probes provide the real-time, time-series data sets of each monitored pest species. Further evaluation of the catching efficiency of the probes is needed. However, the prototype allows us to follow and model pest dynamics and may make more precise forecasts of population outbreaks.