Single-plant-omics reveals the cascade of transcriptional changes during the vegetative-to-reproductive transition

Plants undergo rapid developmental transitions, which occur contemporaneously with gradual changes in physiology. Moreover, individual plants within a population undergo developmental transitions asynchronously. Single-plant-omics has the potential to distinguish between transcriptional events that are associated with these binary and continuous processes. Furthermore, we can use single-plant-omics to order individual plants by their intrinsic biological age, providing a high-resolution transcriptional time series. We performed RNA-seq on leaves from a large population of wild-type Arabidopsis (Arabidopsis thaliana) during the vegetative-to-reproductive transition. Though most transcripts were differentially expressed between bolted and unbolted plants, some regulators were more closely associated with leaf size and biomass. Using a pseudotime inference algorithm, we determined that some senescence-associated processes, such as the reduction in ribosome biogenesis, were evident in the transcriptome before a bolt was visible. Even in this near-isogenic population, some variants are associated with developmental traits. These results support the use of single-plant-omics to uncover rapid transcriptional dynamics by exploiting developmental asynchrony.

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Publication Details

Journal
The Plant Cell
Published
2024-08-09
DOI
https://doi.org/10.1093/plcell/koae226
Citations
7
Primary Topic
Plant Molecular Biology Research
Type
article
Field-Weighted Citation Impact
4.20

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article

Single-plant-omics reveals the cascade of transcriptional changes during the vegetative-to-reproductive transition

Daphne Ezer, James Ronald, Seth J Davis, Ethan J. Redmond
7 citations
The Plant Cell
Plant Molecular Biology Research
4.20
article

Single-plant-omics reveals the cascade of transcriptional changes during the vegetative-to-reproductive transition

Daphne Ezer, James Ronald, Seth J Davis, Ethan J. Redmond
article en
7 citations

Abstract

Plants undergo rapid developmental transitions, which occur contemporaneously with gradual changes in physiology. Moreover, individual plants within a population undergo developmental transitions asynchronously. Single-plant-omics has the potential to distinguish between transcriptional events that are associated with these binary and continuous processes. Furthermore, we can use single-plant-omics to order individual plants by their intrinsic biological age, providing a high-resolution transcriptional time series. We performed RNA-seq on leaves from a large population of wild-type Arabidopsis (Arabidopsis thaliana) during the vegetative-to-reproductive transition. Though most transcripts were differentially expressed between bolted and unbolted plants, some regulators were more closely associated with leaf size and biomass. Using a pseudotime inference algorithm, we determined that some senescence-associated processes, such as the reduction in ribosome biogenesis, were evident in the transcriptome before a bolt was visible. Even in this near-isogenic population, some variants are associated with developmental traits. These results support the use of single-plant-omics to uncover rapid transcriptional dynamics by exploiting developmental asynchrony.

The Plant CellVol. 36(10)
University of York (GB), University of Glasgow (GB)
Royal Society, Directorate for Biological Sciences, Biotechnology and Biological Sciences Research Council
Life in Land
Openalex Percentile: Top 7%
Plant Molecular Biology Research
4.20
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