Ultrasound Pulse Emission Spectroscopy Method to Characterize Xylem Conduits in Plant Stems

Journal Article (2022)
Author(s)

Satadal Dutta (TU Delft - Dynamics of Micro and Nano Systems)

Zhiyi Chen (Wageningen University & Research)

Elias Kaiser (Wageningen University & Research)

Priscilla Malcolm Matamoros (Wageningen University & Research)

P.G. Steeneken (TU Delft - QN/Steeneken Lab, TU Delft - Dynamics of Micro and Nano Systems)

G.J. Verbiest (TU Delft - Dynamics of Micro and Nano Systems)

Research Group
Dynamics of Micro and Nano Systems
Copyright
© 2022 S. Dutta, Zhiyi Chen, Elias Kaiser, Priscilla Malcolm Matamoros, P.G. Steeneken, G.J. Verbiest
DOI related publication
https://doi.org/10.34133/2022/9790438
More Info
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Publication Year
2022
Language
English
Copyright
© 2022 S. Dutta, Zhiyi Chen, Elias Kaiser, Priscilla Malcolm Matamoros, P.G. Steeneken, G.J. Verbiest
Research Group
Dynamics of Micro and Nano Systems
Volume number
2022
Reuse Rights

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Abstract

Although it is well known that plants emit acoustic pulses under drought stress, the exact origin of the waveform of these ultrasound pulses has remained elusive. Here, we present evidence for a correlation between the characteristics of the waveform of these pulses and the dimensions of xylem conduits in plants. Using a model that relates the resonant vibrations of a vessel to its dimension and viscoelasticity, we extract the xylem radii from the waveforms of ultrasound pulses and show that these are correlated and in good agreement with optical microscopy. We demonstrate the versatility of the method by applying it to shoots of ten different vascular plant species. In particular, for Hydrangea quercifolia, we further extract vessel element lengths with our model and compare them with scanning electron cryomicroscopy. The ultrasonic, noninvasive characterization of internal conduit dimensions enables a breakthrough in speed and accuracy in plant phenotyping and stress detection.