The toxicological effects of petroleum spray oils on insects – Evidence for an alternative mode of action and possible new control options

We tested the most widely held theory about the mode of action of petroleum spray oils (PSOs) on insects (i.e. anoxia). An nC24 petroleum oil was applied topically to cotton aphids ( Aphis gossypii) and cluster caterpillars ( Spodoptera litura), which then showed signs of mortality that are inconsis...

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Veröffentlicht in:Food and chemical toxicology 2008-09, Vol.46 (9), p.3003-3014
Hauptverfasser: Najar-Rodríguez, A.J., Lavidis, N.A., Mensah, R.K., Choy, P.T., Walter, G.H.
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container_issue 9
container_start_page 3003
container_title Food and chemical toxicology
container_volume 46
creator Najar-Rodríguez, A.J.
Lavidis, N.A.
Mensah, R.K.
Choy, P.T.
Walter, G.H.
description We tested the most widely held theory about the mode of action of petroleum spray oils (PSOs) on insects (i.e. anoxia). An nC24 petroleum oil was applied topically to cotton aphids ( Aphis gossypii) and cluster caterpillars ( Spodoptera litura), which then showed signs of mortality that are inconsistent with anoxia. The insects died soon after treatment, with most of the mortality occurring within the first 10 min. Toxicity symptoms included loss of locomotory ability, unusual abdominal contractions associated with spiracular fluttering, and ultimately dehydration and necrosis within 24 h. We therefore investigated the main mechanism(s) by which the nC24 petroleum oil interacts with the insects’ cells and organs, and ultimately kills the insects. The results suggest a mode of action that relates to the liphophylic properties of the oil. This includes rapid penetration through the insect cuticle followed by accumulation in the lipid-containing tissues, mainly those of the CNS, and finally penetration into the nerve cells themselves. In vitro tests with isolated insect cells further revealed that the oil penetrates the cytoplasm and induces 100% mortality of these cells within 2 min of application. No signs of oil accumulation within the tracheae were observed, so it is unlikely that anoxia is taking place at any stage of the intoxication process. Electrophysiological studies confirm that oil accumulation in the nerve ganglia has the direct effect of suppressing synaptic transmission in insect ganglia as well as in the neuromuscular junctions of vertebrates (toads and rats). These results demonstrate conclusively that at least some modern PSOs do not kill insects by anoxia, but by a range of cellular disruptions that lead to rapid insect death. The implications of our findings for the development of oil-based integrated pest management strategies are discussed.
doi_str_mv 10.1016/j.fct.2008.05.042
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An nC24 petroleum oil was applied topically to cotton aphids ( Aphis gossypii) and cluster caterpillars ( Spodoptera litura), which then showed signs of mortality that are inconsistent with anoxia. The insects died soon after treatment, with most of the mortality occurring within the first 10 min. Toxicity symptoms included loss of locomotory ability, unusual abdominal contractions associated with spiracular fluttering, and ultimately dehydration and necrosis within 24 h. We therefore investigated the main mechanism(s) by which the nC24 petroleum oil interacts with the insects’ cells and organs, and ultimately kills the insects. The results suggest a mode of action that relates to the liphophylic properties of the oil. This includes rapid penetration through the insect cuticle followed by accumulation in the lipid-containing tissues, mainly those of the CNS, and finally penetration into the nerve cells themselves. In vitro tests with isolated insect cells further revealed that the oil penetrates the cytoplasm and induces 100% mortality of these cells within 2 min of application. No signs of oil accumulation within the tracheae were observed, so it is unlikely that anoxia is taking place at any stage of the intoxication process. Electrophysiological studies confirm that oil accumulation in the nerve ganglia has the direct effect of suppressing synaptic transmission in insect ganglia as well as in the neuromuscular junctions of vertebrates (toads and rats). These results demonstrate conclusively that at least some modern PSOs do not kill insects by anoxia, but by a range of cellular disruptions that lead to rapid insect death. 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In vitro tests with isolated insect cells further revealed that the oil penetrates the cytoplasm and induces 100% mortality of these cells within 2 min of application. No signs of oil accumulation within the tracheae were observed, so it is unlikely that anoxia is taking place at any stage of the intoxication process. Electrophysiological studies confirm that oil accumulation in the nerve ganglia has the direct effect of suppressing synaptic transmission in insect ganglia as well as in the neuromuscular junctions of vertebrates (toads and rats). These results demonstrate conclusively that at least some modern PSOs do not kill insects by anoxia, but by a range of cellular disruptions that lead to rapid insect death. 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An nC24 petroleum oil was applied topically to cotton aphids ( Aphis gossypii) and cluster caterpillars ( Spodoptera litura), which then showed signs of mortality that are inconsistent with anoxia. The insects died soon after treatment, with most of the mortality occurring within the first 10 min. Toxicity symptoms included loss of locomotory ability, unusual abdominal contractions associated with spiracular fluttering, and ultimately dehydration and necrosis within 24 h. We therefore investigated the main mechanism(s) by which the nC24 petroleum oil interacts with the insects’ cells and organs, and ultimately kills the insects. The results suggest a mode of action that relates to the liphophylic properties of the oil. This includes rapid penetration through the insect cuticle followed by accumulation in the lipid-containing tissues, mainly those of the CNS, and finally penetration into the nerve cells themselves. In vitro tests with isolated insect cells further revealed that the oil penetrates the cytoplasm and induces 100% mortality of these cells within 2 min of application. No signs of oil accumulation within the tracheae were observed, so it is unlikely that anoxia is taking place at any stage of the intoxication process. Electrophysiological studies confirm that oil accumulation in the nerve ganglia has the direct effect of suppressing synaptic transmission in insect ganglia as well as in the neuromuscular junctions of vertebrates (toads and rats). These results demonstrate conclusively that at least some modern PSOs do not kill insects by anoxia, but by a range of cellular disruptions that lead to rapid insect death. The implications of our findings for the development of oil-based integrated pest management strategies are discussed.</abstract><cop>Oxford</cop><cop>New York, NY</cop><pub>Elsevier Ltd</pub><pmid>18602441</pmid><doi>10.1016/j.fct.2008.05.042</doi><tpages>12</tpages></addata></record>
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subjects Amphibia
Animals
Aphididae
Aphids - physiology
Aphis gossypii
Biological and medical sciences
Bufo marinus
Cell Membrane Permeability - drug effects
Chemical control
Control
Drosophila melanogaster
Fundamental and applied biological sciences. Psychology
Ganglia, Invertebrate - drug effects
hypoxia
Insect control
Insect Control - methods
Integrated pest management
Larva - drug effects
mechanism of action
Microscopy, Confocal
Mode of action
Nervous System - drug effects
Neurotoxicity
petroleum
Petroleum - toxicity
Petroleum spray oils
Phytopathology. Animal pests. Plant and forest protection
Protozoa. Invertebrates
Rats
Rats, Wistar
Spodoptera - physiology
Spodoptera litura
toxicity
title The toxicological effects of petroleum spray oils on insects – Evidence for an alternative mode of action and possible new control options
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