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February 6, 2026Plant Cell & Environment1 citations

Decoding MicroRNA Networks in Plant Vegetative and Reproductive Branching: Mechanisms and Applications for Crop Improvement

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WAWaseem AbbasShenzhen UniversityJHJianzhong HuShenzhen UniversityYZYixiu ZhuShenzhen University

Key Points

  • The aim is to understand how microrna networks control plant branching and their applications in crop improvement.
  • Review of recent advances in microrna research related to plant branching.
  • Analysis of microrna-target gene modules and their roles in branching regulation.
  • Evaluation of strategies for manipulating microrna networks in crops.
  • Specific microrna families form hierarchical networks influencing vegetative and reproductive branching.
  • Microrna manipulation shows potential to optimize branching architecture and enhance crop yield.
  • Discussion on future challenges and the integration of omics in improving crop designs.

Abstract

ABSTRACT Plant branching, encompassing both vegetative and reproductive forms, is a complex and crucial process that shapes overall architecture and determines crop yield and biomass. MicroRNAs (miRNAs) have emerged as master regulators in fine‐tuning the intricate genetic and hormonal networks that govern plant branching. This review systematically synthesises recent advances in understanding how miRNA‐target gene modules regulate essential pathways to orchestrate the branching patterns. We highlight a central insight that specific miRNA families form hierarchical, stage‐specific networks that facilitate the independent optimisation of vegetative and reproductive branching. Furthermore, we explore the potential applications of miRNA manipulation in optimising branching architecture to improve crop yield. By critically evaluating strategies such as artificial miRNAs, target mimics and CRISPR/Cas9 genome editing, we discuss how modulating miRNA networks can engineer ideal plant architecture. Finally, we provide a forward‐looking perspective on overcoming challenges in miRNA‐based crop improvement, emphasising the integration of single‐cell omics and epigenetic insights to achieve precise genetic modifications. This review underscores the transformative potential of miRNAs in designing future crops for enhanced productivity.

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Cite This Study

Abbas et al. (2026) studied this question.

synapsesocial.com/papers/698585758f7c464f23008da3https://doi.org/10.1111/pce.70429
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