Conservation of the dehiscence zone gene regulatory network in dicots and the role of the SEEDSTICK ortholog of California poppy (Eschscholzia californica) in fruit development.

IF 4.1 2区 生物学 Q1 DEVELOPMENTAL BIOLOGY Evodevo Pub Date : 2024-12-27 DOI:10.1186/s13227-024-00236-0
Dominik Lotz, Le Han Rössner, Katrin Ehlers, Doudou Kong, Clemens Rössner, Oliver Rupp, Annette Becker
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Abstract

Background: Fruits, with their diverse shapes, colors, and flavors, represent a fascinating aspect of plant evolution and have played a significant role in human history and nutrition. Understanding the origins and evolutionary pathways of fruits offers valuable insights into plant diversity, ecological relationships, and the development of agricultural systems. Arabidopsis thaliana (Brassicaceae, core eudicot) and Eschscholzia californica (California poppy, Papaveraceae, sister group to core eudicots) both develop dry dehiscent fruits, with two valves separating explosively from the replum-like region upon maturation. This led to the hypothesis, that homologous gene regulatory networks direct fruit development and dehiscence in both species.

Results: Transcriptome analysis of separately collected valve and replum-like tissue of California poppy yielded the SEEDSTICK (STK) ortholog as candidate for dehiscence zone regulation. Expression analysis of STK orthologs from dry dehiscing fruits of legumes (Vicia faba, Glycine max and Pisum sativum) shows their involvement in fruit development. Functional analysis using Virus-Induced Gene Silencing (VIGS) showed premature rupture of fruits and clarified the roles of EscaSTK: an evolutionary conserved role in seed filling and seed coat development, and a novel role in restricting cell divisions in the inner cell layer of the valve.

Conclusion: Our analysis shows that the gene regulatory network described in Arabidopsis is significantly different in other dicots, even if their fruits form a dehiscence zone at the valve margins. The ortholog of STK, known to be involved in ovule development and seed abscission in Arabidopsis, was recruited to a network regulating fruit wall proliferation in California poppy. There, EscaSTK allows fruit maturation without premature capsule rupture, highlighting the importance of proper endocarp development for successful seed dispersal.

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加利福尼亚罂粟(Eschscholzia californica)果裂区基因调控网络的保护及籽棒同源物在果实发育中的作用。
水果以其不同的形状、颜色和味道,代表了植物进化的一个迷人的方面,并在人类历史和营养中发挥了重要作用。了解水果的起源和进化途径对植物多样性、生态关系和农业系统的发展提供了有价值的见解。拟南芥(芸苔科)和加利福尼亚罂粟(加利福尼亚罂粟科,罂粟科,核心植物的姐妹群)都发育干燥开裂的果实,成熟时两个瓣从类似雷管的区域爆炸分离。这导致了一种假设,即同源基因调控网络直接影响两种物种的果实发育和开裂。结果:分别采集加利福尼亚罂粟瓣和茎样组织的转录组分析得出了SEEDSTICK (STK)同源物作为开裂区调控的候选物。对豆科植物(蚕豆、甘氨酸和豌豆)干开裂果实中STK同源物的表达分析表明,它们参与果实发育。利用病毒诱导基因沉默(VIGS)进行功能分析,发现果实早破裂,并明确了EscaSTK的作用:在种子灌浆和种皮发育中具有进化保守作用,在阀内细胞层中具有限制细胞分裂的新作用。结论:我们的分析表明,在拟南芥中描述的基因调控网络在其他薯类中有显著不同,即使它们的果实在瓣缘形成开裂区。已知参与拟南芥胚珠发育和种子脱落的STK同源基因被招募到调节加利福尼亚罂粟果壁增殖的网络中。在那里,EscaSTK允许果实成熟而不会过早破裂,强调了正确的内果皮发育对种子成功传播的重要性。
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来源期刊
Evodevo
Evodevo EVOLUTIONARY BIOLOGY-DEVELOPMENTAL BIOLOGY
CiteScore
7.50
自引率
0.00%
发文量
18
审稿时长
>12 weeks
期刊介绍: EvoDevo publishes articles on a broad range of topics associated with the translation of genotype to phenotype in a phylogenetic context. Understanding the history of life, the evolution of novelty and the generation of form, whether through embryogenesis, budding, or regeneration are amongst the greatest challenges in biology. We support the understanding of these processes through the many complementary approaches that characterize the field of evo-devo. The focus of the journal is on research that promotes understanding of the pattern and process of morphological evolution. All articles that fulfill this aim will be welcome, in particular: evolution of pattern; formation comparative gene function/expression; life history evolution; homology and character evolution; comparative genomics; phylogenetics and palaeontology
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