Tetraspanins are evolutionary conserved transmembrane proteins present in all multicellular organisms. In animals, they are known to act as central organizers of membrane complexes and thought to facilitate diverse biological processes, such as cell proliferation, movement, adhesion, and fusion. The genome of Arabidopsis (Arabidopsis thaliana) encodes 17 members of the tetraspanin family; however, little is known about their functions in plant development. Here, we analyzed their phylogeny, protein topology, and domain structure and surveyed their expression and localization patterns in reproductive tissues. We show that, despite their low sequence identity with metazoan tetraspanins, plant tetraspanins display the typical structural topolo...
Arabinogalactan proteins (AGPs) are structurally complex plasma membrane and cell wall proteoglycans...
International audienceBackground: Tetraspanins are small membrane proteins that belong to a superfam...
Membrane proteins work in large complexes to perceive and transduce external signals and to trigger ...
TETRASPANIN (TET) genes encode conserved integral membrane proteins that are known in animals to fun...
Tetraspanins are small transmembrane proteins that laterally associate with each other and cluster w...
Species-specific gamete recognition is a key premise to ensure reproductive success and the maintena...
Arabinogalactan proteins (AGPs) are cell wall proteoglycans that have been shown to be important for...
Arabinogalactan proteins (AGPs) have long been considered to be implicated in several steps of the r...
SummarySexual reproduction of flowering plants is distinguished by double fertilization—the two sper...
SummaryThe development of multicellular organisms is controlled by differential gene expression wher...
Plant reproduction depends on the concerted activation of many genes to ensure correct communication...
The plant life cycle alternates the diploid sporophyte and the haploid gametophyte. The female gamet...
The embryo sac contains the haploid maternal cell types necessary for double fertilization and subse...
Sexual reproduction of flowering plants is distinguished by double fertilization—the two sperm cells...
The gynoecium, the female reproductive part of the flower, is key for plant sexual reproduction. Dur...
Arabinogalactan proteins (AGPs) are structurally complex plasma membrane and cell wall proteoglycans...
International audienceBackground: Tetraspanins are small membrane proteins that belong to a superfam...
Membrane proteins work in large complexes to perceive and transduce external signals and to trigger ...
TETRASPANIN (TET) genes encode conserved integral membrane proteins that are known in animals to fun...
Tetraspanins are small transmembrane proteins that laterally associate with each other and cluster w...
Species-specific gamete recognition is a key premise to ensure reproductive success and the maintena...
Arabinogalactan proteins (AGPs) are cell wall proteoglycans that have been shown to be important for...
Arabinogalactan proteins (AGPs) have long been considered to be implicated in several steps of the r...
SummarySexual reproduction of flowering plants is distinguished by double fertilization—the two sper...
SummaryThe development of multicellular organisms is controlled by differential gene expression wher...
Plant reproduction depends on the concerted activation of many genes to ensure correct communication...
The plant life cycle alternates the diploid sporophyte and the haploid gametophyte. The female gamet...
The embryo sac contains the haploid maternal cell types necessary for double fertilization and subse...
Sexual reproduction of flowering plants is distinguished by double fertilization—the two sperm cells...
The gynoecium, the female reproductive part of the flower, is key for plant sexual reproduction. Dur...
Arabinogalactan proteins (AGPs) are structurally complex plasma membrane and cell wall proteoglycans...
International audienceBackground: Tetraspanins are small membrane proteins that belong to a superfam...
Membrane proteins work in large complexes to perceive and transduce external signals and to trigger ...