Mechanically induced localisation of SECONDARY WALL INTERACTING bZIP is associated with thigmomorphogenic and secondary cell wall gene expression.

Quantitative plant biology Pub Date : 2024-05-03 eCollection Date: 2024-01-01 DOI:10.1017/qpb.2024.5
Joshua H Coomey, Kirk J-M MacKinnon, Ian W McCahill, Bahman Khahani, Pubudu P Handakumbura, Gina M Trabucco, Jessica Mazzola, Nicole A Leblanc, Rithany Kheam, Miriam Hernandez-Romero, Kerrie Barry, Lifeng Liu, Ji E Lee, John P Vogel, Ronan C O'Malley, James J Chambers, Samuel P Hazen
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引用次数: 0

Abstract

Plant growth requires the integration of internal and external cues, perceived and transduced into a developmental programme of cell division, elongation and wall thickening. Mechanical forces contribute to this regulation, and thigmomorphogenesis typically includes reducing stem height, increasing stem diameter, and a canonical transcriptomic response. We present data on a bZIP transcription factor involved in this process in grasses. Brachypodium distachyon SECONDARY WALL INTERACTING bZIP (SWIZ) protein translocated into the nucleus following mechanostimulation. Classical touch-responsive genes were upregulated in B. distachyon roots following touch, including significant induction of the glycoside hydrolase 17 family, which may be unique to grass thigmomorphogenesis. SWIZ protein binding to an E-box variant in exons and introns was associated with immediate activation followed by repression of gene expression. SWIZ overexpression resulted in plants with reduced stem and root elongation. These data further define plant touch-responsive transcriptomics and physiology, offering insights into grass mechanotranduction dynamics.

机械诱导的次生细胞壁互作蛋白 bZIP 的定位与植株形态和次生细胞壁基因的表达有关。
植物生长需要整合内部和外部线索,将其感知并转化为细胞分裂、伸长和壁增厚的发育程序。机械力有助于这种调控,而粗壮形态发生通常包括降低茎高、增加茎直径以及典型的转录组反应。我们介绍了参与禾本科植物这一过程的一个 bZIP 转录因子。在机械刺激下,Brachypodium distachyon SECONDARY WALL INTERACTING bZIP(SWIZ)蛋白转位到细胞核中。经典的触动反应基因在触动后在远志根中上调,包括糖苷水解酶 17 家族的显著诱导,这可能是禾本科植物茎叶形态发生过程中独有的现象。SWIZ 蛋白与外显子和内含子中的 E-box 变体结合后,基因表达立即被激活,随后被抑制。过量表达 SWIZ 会导致植物的茎和根伸长减少。这些数据进一步确定了植物触觉响应转录组学和生理学,为了解草的机械传动动力学提供了见解。
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CiteScore
2.50
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