The molecular control of tendril development in angiosperms.
@article{SousaBaena2018TheMC,
title={The molecular control of tendril development in angiosperms.},
author={Mariane S. Sousa-Baena and L{\'u}cia Garcez Lohmann and Jos{\'e} Hernandes-Lopes and Neelima R. Sinha},
journal={The New phytologist},
year={2018},
volume={218 3},
pages={
944-958
},
url={https://api.semanticscholar.org/CorpusID:4860319}
}Interestingly, all tendrils perform helical growth during contact-induced coiling, indicating that such ability is not correlated with their ontogenetic origin or phylogenetic history, which shows the molecular basis of tendril formation and ontogenesis is diverse.
35 Citations
Convergent Evolution and the Diverse Ontogenetic Origins of Tendrils in Angiosperms
- 2018
Biology, Environmental Science
A thorough survey of tendrils within angiosperms is performed, focusing on their origin and development, and points out research gaps that should help guide future research on the biology of tendrilled species.
Phylotranscriptomics in Cucurbitaceae Reveal Multiple Whole Genome Duplications and Key Morphological and Molecular Innovations.
- 2020
Biology, Environmental Science
Nuclear Phylogenomics of Angiosperms and Evolutionary Implications
- 2025
Biology, Environmental Science
This review presents recent insights into angiosperm phylogeny based on relatively large numbers of nuclear genes, encompassing the ordinal scale of early-divergent and backbone branches, eudicots and their major subclades, asterids and rosids, as well as monocots.
Toward understanding inflorescence development and architecture in Passiflora: insights from comparative anatomy and expression of APETALA1.
- 2019
Biology, Environmental Science
The ontogeny of the bud complex and the expression of APETALA1 (AP1) in Passiflora species was investigated and it was concluded that what is often understood as the first bract produced by a floral meristem actually is produced by the original axillary meristems.
Morphological and morphometric analysis of Nekemias arborea and Ampelopsis aconitifolia (Vitaceae)
- 2019
Biology, Environmental Science
Morphometric analysis was performed to establish relationships in leaf form between two species of within Vitaceae, which can help to reveal a better understanding of the development of the very important commercial species, Vitis vinifera (grape).
GRAS family member LATERAL SUPPRESSOR regulates the initiation and morphogenesis of watermelon lateral organs.
- 2023
Biology, Environmental Science
Knocking out the homologous gene of shoot branching regulator LATERAL SUPPRESSOR in watermelon (ClLs) repressed the initiation of branches, flowers, and tendrils and led to developing round leaves, indicating that ClLs undergoes functional expansion compared with its homologs in Arabidopsis, rice, and tomato.
Genetic regulation of shoot architecture in cucumber
- 2021
Biology, Agricultural and Food Sciences
This review focuses on recent progress on elucidating the genetic regulatory pathways underlying the determinant/indeterminant growth habit, leaf shape, branch outgrowth, tendril identity, and vine length determination in cucumber.
Reaching the top through a tortuous path: helical growth in climbing plants.
- 2021
Biology, Environmental Science
Interaction between plant-specific transcription factors TCP and YABBY expressed in the tendrils of the melon Cucumis melo
- 2024
Biology, Environmental Science
A novel function of the YABBY protein is suggested through its interaction with a TCP protein in the development of cucurbit tendrils, suggesting a novel function of the YABBY protein through its interaction with a TCP protein.
Toward understanding inflorescence development and architecture in <i>Passiflora</i>: insights from comparative anatomy and expression of <i>APETALA1</i>
- 2019
Biology, Environmental Science
Understanding inflorescence development and architecture in Passiflora: insights from comparative anatomy and expression of APETALA1 Toward understanding inflorescences with elongated peduncles.
93 References
Convergent Evolution and the Diverse Ontogenetic Origins of Tendrils in Angiosperms
- 2018
Biology, Environmental Science
A thorough survey of tendrils within angiosperms is performed, focusing on their origin and development, and points out research gaps that should help guide future research on the biology of tendrilled species.
The Regulation of Ontogenetic Diversity in Papaveraceae Compound Leaf Development
- 2013
Biology, Environmental Science
The roles of homologs of CINCINNATA -like TCP family genes, ARP genes, and Class I KNOX genes were investigated in two members of the Papaveraceae, a basal eudicot lineage positioned in between major angiosperm groups.
Expression patterns of AP1, FUL, FT and LEAFY orthologs in Vitaceae support the homology of tendrils and inflorescences throughout the grape family
- 2015
Biology, Environmental Science
Gene sequences of four key floral meristem genes, i.e., FUL, AP1, FT and LEAFY orthologs were obtained from transcriptome data of 14 Vitaceae species, the grapevine genome and the outgroup Leea guineensis, and the possible mechanisms on the evolution of tendrils are discussed.
Evolutionary, genetic, environmental and hormonal-induced plasticity in the fate of organs arising from axillary meristems in Passiflora spp.
- 2013
Biology, Environmental Science
Development of the axillary bud complex in Echinocystis lobata (Cucurbitaceae): interpreting the cucurbitaceous tendril.
- 2008
Biology
It is concluded that the tendril and other organs formed by the ABC are lateral branches of equal morphological value and the basis for continuing comparative and functional morphological studies.
Expression patterns of Passiflora edulis APETALA1/FRUITFULL homologues shed light onto tendril and corona identities
- 2017
Biology, Environmental Science
New evidence is brought that tendrils are part of the Passiflora inflorescence, which points to the convergence of similar developmental processes involving the recruitment of genes related to flower identity in the origin of tendrils in different plant families.
Acquisition and diversification of tendrilled leaves in Bignonieae (Bignoniaceae) involved changes in expression patterns of SHOOTMERISTEMLESS (STM), LEAFY/FLORICAULA (LFY/FLO), and PHANTASTICA (PHAN).
- 2014
Biology, Environmental Science
A detailed study of three representatives of Bignonieae, bearing multifid, trifid, and simple-tendrilled leaves, and the structure of their petioles, petiolules, leaflets, and tendrils is investigated through histological analyses.
Transcriptional Analysis of Tendril and Inflorescence Development in Grapevine (Vitis vinifera L.)
- 2014
Biology, Environmental Science
A role for genes related with reproductive development in other species were also recruited for grapevine tendril development, suggesting a role for those genes in the regulation of basic cellular mechanisms common to both developmental processes.
Tendril-less Regulates Tendril Formation in Pea Leaves[W][OA]
- 2009
Biology, Environmental Science
Phylogenetic analyses show that Tl is an unusual Class I HDZIP protein and that tendrils evolved either once or twice in Papilionoid legumes, and suggest that tendril arose in the Fabeae clade of Papilionoids legumes through acquisition of the Tl gene.



