Autofluorescence: biological functions and technical applications

JI García-Plazaola, B Fernández-Marín, SO Duke… - Plant Science, 2015 - Elsevier
Plant Science, 2015Elsevier
Chlorophylls are the most remarkable examples of fluorophores, and their fluorescence has
been intensively studied as a non-invasive tool for assessment of photosynthesis. Many
other fluorophores occur in plants, such as alkaloids, phenolic compounds and porphyrins.
Fluorescence could be more than just a physicochemical curiosity in the plant kingdom, as
several functional roles in biocommunication occur or have been proposed. Besides,
fluorescence emitted by secondary metabolites can convert damaging blue and UV into …
Abstract
Chlorophylls are the most remarkable examples of fluorophores, and their fluorescence has been intensively studied as a non-invasive tool for assessment of photosynthesis. Many other fluorophores occur in plants, such as alkaloids, phenolic compounds and porphyrins. Fluorescence could be more than just a physicochemical curiosity in the plant kingdom, as several functional roles in biocommunication occur or have been proposed. Besides, fluorescence emitted by secondary metabolites can convert damaging blue and UV into wavelengths potentially useful for photosynthesis. Detection of the fluorescence of some secondary phytochemicals may be a cue for some pollinators and/or seed dispersal organisms. Independently of their functions, plant fluorophores provide researchers with a tool that allows the visualization of some metabolites in plants and cells, complementing and overcoming some of the limitations of the use of fluorescent proteins and dyes to probe plant physiology and biochemistry. Some fluorophores are influenced by environmental interactions, allowing fluorescence to be also used as a specific stress indicator.
Elsevier
以上显示的是最相近的搜索结果。 查看全部搜索结果