Biodiversity Science ›› 2018, Vol. 26 ›› Issue (9): 988-997.doi: 10.17520/biods.2018127

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Designing leaf marginal shapes: Regulatory mechanisms of leaf serration or dissection

Jinxiu Ke, Duo Chen, Yanping Guo*()   

  1. Ministry of Education Key Laboratory for Biodiversity Science and Ecological Engineering, and College of Life Sciences, Beijing Normal University, Beijing 100875
  • Received:2018-04-26 Accepted:2018-06-17 Online:2019-01-05
  • Guo Yanping E-mail:guoyanping@bnu.edu.cn
  • About author:

    # Co-first authors

The mechanism of formation and evolution of phenotypic diversity is one of the key problems in biodiversity science because phenotype diversity is not only a marker of species diversity, but carries the designs adjusted to environments. Plant leaves exhibit a great deal of morphological variation. Such variation is attributed largely to changes of leaf marginal architecture. Leaf marginal shapes can be described as entire, serrate, lobed (varying in depth and patterns) and dissected (also referred to as compound leaf). The molecular mechanism controlling the development of leaf marginal shape has been intensively studied in Arabidopsis thaliana, Cardamine hirsuta, Solanum lycopersicum, and some other plants. Many important regulatory factors such as transcription factors, small RNAs and plant hormones have been found involved in the development of leaf serration or dissection. Among those factors, the transcription factor NAM/CUC, miR164 and auxin in the auxin efflux module play a central role through a feedback loop, and this regulatory module appears to be conserved across the eudicots; the transcription factors TCPs, SPLs and some other miRNAs also take part in the auxin efflux pathway. Transcription factors of the KNOX family play roles in the development of leaf lobes as well although most of the researches about KNOX genes have focused on their regulation of the morphogenesis of compound leaves. In addition, studies in Arabidopsis, Cardamine and other taxa of the Brassicaceae have shown that the gene RCO promotes the development of leaf dissection by repressing growth at the flanks of protrusions generated by CUC-auxin patterning. The present paper reviews the recent progress and integrate the major results of researches about the molecular mechanisms that underlie leaf serration or dissection. We hope this may provide reference for unraveling the morphogenetic origin of the spectacular diversity of leaf marginal shapes.

Key words: leaf serration/dissection, morphogenesis, evolutionary development, regulatory network

Fig. 1

A model for the molecular regulation of the development of leaf marginal serration according to studies on Arabidopsis thaliana and Cardamine hirsute (Barkoulas et al, 2007; Runions & Tsiantis, 2017). At the heart of the model is a feedback loop between CUC2 and auxin activities. CUC2 is required for PIN1-mediated auxin polar transport (horrow arrows); in turn, auxin activity maxima at the tip of the developing serration activates miR164 which represses CUC2 posttranscriptionally and generates an interspersed pattern of auxin maxima and CUC2 expression at the leaf margin. MIR164 and CUC2 are expressed in partially overlapping regions at the sinus of the serrations. Auxin enhances outgrowth of the serrations. There are additional growth regulators modulating leaf growth to shape the form of protrusions, for instance, RCO inhibits growth in indentations, producing more dissected forms."

Fig. 2

The molecular regulating network underlining the development leaf serration/dissection. The solid lines indicate the relatively clear interactions between molecules, while the dotted lines suggest unsure interactions reported by a few studies. The orange arrows suggest promotion of leaf serration/dissection."

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