Division Zone Activity Determines the Potential of Drought-Stressed Maize Leaves to Resume Growth after Rehydration.

IF 6 1区 生物学 Q1 PLANT SCIENCES Plant, Cell & Environment Pub Date : 2024-10-23 DOI:10.1111/pce.15227
Tom Van Hautegem, Hironori Takasaki, Christian Damian Lorenzo, Kirin Demuynck, Hannes Claeys, Timothy Villers, Heike Sprenger, Kevin Debray, Dries Schaumont, Lennart Verbraeken, Julie Pevernagie, Julie Merchie, Bernard Cannoot, Stijn Aesaert, Griet Coussens, Kazuko Yamaguchi-Shinozaki, Michael L Nuccio, Frédéric Van Ex, Laurens Pauwels, Thomas B Jacobs, Tom Ruttink, Dirk Inzé, Hilde Nelissen
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Abstract

Drought is one of the most devastating causes of yield losses in crops like maize, and the anticipated increases in severity and duration of drought spells due to climate change pose an imminent threat to agricultural productivity. To understand the drought response, phenotypic and molecular studies are typically performed at a given time point after drought onset, representing a steady-state adaptation response. Because growth is a dynamic process, we monitored the drought response with high temporal resolution and examined cellular and transcriptomic changes after rehydration at 4 and 6 days after leaf four appearance. These data showed that division zone activity is a determinant for full organ growth recovery upon rehydration. Moreover, a prolonged maintenance of cell division by the ectopic expression of PLASTOCHRON1 extends the ability to resume growth after rehydration. The transcriptome analysis indicated that GROWTH-REGULATING FACTORS (GRFs) affect leaf growth by impacting cell division duration, which was confirmed by a prolonged recovery potential of the GRF1-overexpression line after rehydration. Finally, we used a multiplex genome editing approach to evaluate the most promising differentially expressed genes from the transcriptome study and as such narrowed down the gene space from 40 to seven genes for future functional characterization.

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分裂带活动决定干旱胁迫下玉米叶片在补水后恢复生长的潜力
干旱是造成玉米等农作物减产的最具破坏性的原因之一,而气候变化导致干旱的严重程度和持续时间预计会增加,这对农业生产力构成了迫在眉睫的威胁。为了解干旱反应,通常在干旱发生后的特定时间点进行表型和分子研究,这代表一种稳态适应反应。由于生长是一个动态过程,我们对干旱响应进行了高时间分辨率的监测,并在叶片出现四次后的 4 天和 6 天对复水后的细胞和转录组变化进行了研究。这些数据表明,分裂区活动是器官在复水后完全恢复生长的决定因素。此外,通过异位表达 PLASTOCHRON1 来延长细胞分裂的维持时间,可以延长复水后恢复生长的能力。转录组分析表明,生长调节因子(GRFs)通过影响细胞分裂的持续时间来影响叶片的生长。最后,我们使用多重基因组编辑方法评估了转录组研究中最有希望的差异表达基因,并因此将基因空间从 40 个缩小到 7 个基因,以便将来进行功能表征。
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来源期刊
Plant, Cell & Environment
Plant, Cell & Environment 生物-植物科学
CiteScore
13.30
自引率
4.10%
发文量
253
审稿时长
1.8 months
期刊介绍: Plant, Cell & Environment is a premier plant science journal, offering valuable insights into plant responses to their environment. Committed to publishing high-quality theoretical and experimental research, the journal covers a broad spectrum of factors, spanning from molecular to community levels. Researchers exploring various aspects of plant biology, physiology, and ecology contribute to the journal's comprehensive understanding of plant-environment interactions.
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