Guidelines for naming and studying plasma membrane domains in plants

Jaillais, Yvon; Bayer, Emmanuelle; Bergmann, Dominique C.; Botella, Miguel A.; Boutté, Yohann; Bozkurt, Tolga O.; Caillaud, Marie-Cecile; Germain, Véronique; Grossmann, Guido; Heilmann, Ingo; Hemsley, Piers A.; Kirchhelle, Charlotte; Martinière, Alexandre; Miao, Yansong; Mongrand, Sebastien; Müller, Sabine; Noack, Lise C.; Oda, Yoshihisa; Ott, Thomas; Pan, Xue; Pleskot, Roman; Potocky, Martin; Robert, Stéphanie; Rodriguez, Clara Sanchez; Simon-Plas, Françoise; Russinova, Eugenia; Van Damme, Daniel; Van Norman, Jaimie M.; Weijers, Dolf; Yalovsky, Shaul; Yang, Zhenbiao; Zelazny, Enric; Gronnier, Julien

doi:10.1038/s41477-024-01742-8

Nat. Plants

2024

DOI: 10.1038/s41477-024-01742-8

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Guidelines for naming and studying plasma membrane domains in plants

Yvon Jaillais,

Emmanuelle Bayer,

Dominique C. Bergmann

et al.

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The role of interplay between the plant plasma membrane H+-ATPase and its lipid environment

Lapshin,

Trofimova

2025

Plant Science

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The role of interplay between the plant plasma membrane H+-ATPase and its lipid environment

Lapshin,

Trofimova

2025

Plant Science

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Anionic phospholipid‐mediated transmembrane transport and intracellular membrane trafficking in plant cells

Zhang,

Shen,

Lin

et al. 2024

New Phytologist

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SummaryCellular membranes primarily consist of proteins and lipids. These proteins perform cellular functions such as metabolic regulation, environmental and hormonal signal sensing, and nutrient transport. There is increasing experimental evidence that certain lipids, particularly anionic phospholipids, can act as signaling molecules. Specific examples of functional regulation by anionic phospholipids in plant cells have been reported for transporters, channels, and even receptors. By regulating the structure and activity of membrane‐integral proteins, these phospholipids mediate the transport of phytohormones and ions, and elicit physiological responses to developmental and environmental cues. Phospholipids also control membrane protein abundance and lipid composition and abundance by facilitating vesicular trafficking. In this review, we discuss recent research that elucidates the mechanisms by which membrane‐integral transporters and channels are controlled via phospholipid signaling, as well as the regulation of membrane protein accumulation by phospholipids through coordinated removal, recycling, and degradation processes.

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Membrane nanodomains to shape plant cellular functions and signaling

Hdedeh,

Mercier,

Poitout

et al. 2024

New Phytologist

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SummaryPlasma membrane (PM) nanodomains have emerged as pivotal elements in the regulation of plant cellular functions and signal transduction. These nanoscale membrane regions, enriched in specific lipids and proteins, behave as regulatory/signaling hubs spatially and temporally coordinating critical cellular functions. In this review, we first examine the mechanisms underlying the formation and maintenance of PM nanodomains in plant cells, highlighting the roles of PM lipid composition, protein oligomerization and interactions with cytoskeletal and cell wall components. Then, we discuss how nanodomains act as organizing centers by mediating protein–protein interactions that orchestrate essential processes such as symbiosis, defense against pathogens, ion transport or hormonal and reactive oxygen species (ROS) signaling. Finally, we introduce the concept of nanoenvironments, where localized physicochemical variations are generated in the very close proximity of PM nanodomains, in response to stimuli. After decoding by a dedicated machinery likely localized in the vicinity of nanodomains, this enrichment of secondary messengers, such as ROS or Ca2+, would allow specific downstream cellular responses. This review provides insights into the dynamic nature of nanodomains and proposes future research to better understand their contribution to the intricate signaling networks that govern plant development and stress responses.

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Guidelines for naming and studying plasma membrane domains in plants

Cited by 3 publications

References 113 publications

The role of interplay between the plant plasma membrane H+-ATPase and its lipid environment

The role of interplay between the plant plasma membrane H+-ATPase and its lipid environment

Anionic phospholipid‐mediated transmembrane transport and intracellular membrane trafficking in plant cells

Membrane nanodomains to shape plant cellular functions and signaling

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