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Journal of Insect Behavior

, Volume 31, Issue 6, pp 656–671 | Cite as

Choice of Tethering Material Influences the Magnitude and Significance of Treatment Effects in Whitefly Electrical Penetration Graph Recordings

  • Quentin Chesnais
  • Kerry E. MauckEmail author
Article

Abstract

The electrical penetration graphing or electropenetrography (EPG) technique is essential for understanding interactions of hemipteran insects with their host plants. Typically, 10–12.5 μm diameter gold wire is used as the tethering material in EPG studies. This wire was originally chosen based on suitability for aphids, but application of the EPG technique to other insects necessitates testing of alternative tethering materials that permit natural foraging and probing behavior. Whiteflies are one group for which EPG studies are increasing, with most researchers using 10 or 12.5 μm diameter gold wire even though these insects are smaller than aphids and very different in mobility. However, 2.5 μm diameter Wollaston process platinum wire has been used for a subset of EPG studies and seems to permit more natural movement and feeding behaviors. Here, we compared EPG variables derived from recordings of the sweet potato whitefly (Bemisia tabaci) tethered with 12.5 μm diameter gold wire or 2.5 μm diameter platinum wire. On a suitable host, gold-tethered whiteflies had reduced phloem phases, which are indicative of host plant acceptance, compared to platinum-tethered whiteflies. When we included a treatment known to reduce plant quality (methyl jasmonate application), platinum-tethered whiteflies exhibited expected reductions in EPG variables related to host acceptance, while gold-tethered whiteflies either had no response, or the opposite response. Our results indicate that tethering material strongly influences the outcome of EPG experiments, with important consequences for evaluations of host plant resistance, putative instances of plant virus manipulation, and feeding variables associated with virus transmission.

Keywords

Electrical penetration graph host plant resistance probing behavior potential drop phloem ingestion insect tethering 

Notes

Acknowledgements

This work was supported by startup funding from the University of California, Riverside to K.E. Mauck. We are grateful to Gregory Walker for many productive discussions, which contributed to the ideas presented in this manuscript. We are also thankful to Ian Wright for assistance with plant and insect culture, and for producing the images of gold wire and platinum wire tethered whiteflies for this manuscript.

Supplementary material

10905_2018_9705_MOESM1_ESM.docx (631 kb)
ESM 1 (DOCX 631 kb)

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Authors and Affiliations

  1. 1.Department of EntomologyUniversity of CaliforniaRiversideUSA

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