Abstract
Main conclusion
The chlorophyll fluorescence parameter Φ NO is an excellent metric for the non-destructive monitoring of disease progression, measured over a broad range of light intensities.
The suitability of the slow induction chlorophyll fluorescence parameters Φ PSII, Φ NPQ, and Φ NO to monitor in vivo disease progression in a host-root pathogen pathosystem was evaluated and compared to the established method of monitoring disease by measuring F v /F m . Using the infection of ginseng plants (Panax quinquefolius L.) with Pythium irregulare Buisman as a model, light response curves were used to establish the optimal irradiance for the resolution of differences between fluorescence parameters Φ PSII, Φ NPQ and Φ NO. As infection progressed only changes in Φ NO remained consistent with increased irradiance, and increased as infection progressed. Furthermore, Φ NO showed a high sensitivity for distinguishing increased disease load. In contrast, the magnitude in change of Φ PSII and Φ NPQ were sensitive to irradiance levels. The magnitude of increase in Φ NO per unit disease score was equivalent to the corresponding decline in F v /F m values. Thus Φ NO is as sensitive as F v /F m in monitoring biotic stress. The ability to measure Φ NO under a wide range of light intensities, including natural light, potentially without the need for dark adaptation, means that it can be used in the development of a general protocol for non-invasive, in vivo monitoring of plant health, from the laboratory to the field scale.
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Acknowledgments
The authors gratefully acknowledge Mr. Jeffrey Rice of J.C.K. Farms Ltd. (Brantford, Ontario, Canada) for providing ginseng seed and Damaree Farms (Delhi, Ontario, Canada) for providing ginseng roots. This work was supported by a Post-Graduate Scholarship from the Natural Sciences and Engineering Research Council (NSERC) of Canada to D.A.I., and a NSERC Discovery Grant to M.A.B.
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Ivanov, D.A., Bernards, M.A. Chlorophyll fluorescence imaging as a tool to monitor the progress of a root pathogen in a perennial plant. Planta 243, 263–279 (2016). https://doi.org/10.1007/s00425-015-2427-9
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DOI: https://doi.org/10.1007/s00425-015-2427-9