KANADI promotes thallus differentiation and FR‐induced gametangiophore formation in the liverwort Marchantia

Summary In angiosperms, KANADI transcription factors have roles in the sporophyte generation regulating tissue polarity, organogenesis and shade avoidance responses, but are not required during the gametophyte generation. Whether these roles are conserved in the gametophyte‐dominant bryophyte lineag...

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Veröffentlicht in:The New phytologist 2022-05, Vol.234 (4), p.1377-1393
Hauptverfasser: Briginshaw, Liam N., Flores‐Sandoval, Eduardo, Dierschke, Tom, Alvarez, John P., Bowman, John L.
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container_issue 4
container_start_page 1377
container_title The New phytologist
container_volume 234
creator Briginshaw, Liam N.
Flores‐Sandoval, Eduardo
Dierschke, Tom
Alvarez, John P.
Bowman, John L.
description Summary In angiosperms, KANADI transcription factors have roles in the sporophyte generation regulating tissue polarity, organogenesis and shade avoidance responses, but are not required during the gametophyte generation. Whether these roles are conserved in the gametophyte‐dominant bryophyte lineages is unknown, which we examined by characterising the sole KANADI ortholog, MpKAN, in the liverwort Marchantia polymorpha. In contrast to angiosperm orthologs, MpKAN functions in the gametophyte generation in Marchantia, where it regulates apical branching and tissue differentiation, but does not influence tissue polarity in either generation. MpKAN can partially rescue the sporophyte polarity defects of kanadi mutants in Arabidopsis, indicating that MpKAN has conserved biochemical activity to its angiosperm counterparts. Mpkan loss‐of‐function plants display defects in far‐red (FR) light responses. Mpkan plants have reduced FR‐induced growth tropisms, have a delayed transition to sexual reproduction and fail to correctly form gametangiophores. Our results indicate that MpKAN is a modulator of FR responses, which may reflect a conserved role for KANADI across land plants. Under FR, MpKAN negatively regulates MpDELLA expression, suggesting that MpKAN and MpDELLA act in a pathway regulating FR responses, placing MpKAN in a gene regulatory network exhibiting similarities with those of angiosperms.
doi_str_mv 10.1111/nph.18046
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Whether these roles are conserved in the gametophyte‐dominant bryophyte lineages is unknown, which we examined by characterising the sole KANADI ortholog, MpKAN, in the liverwort Marchantia polymorpha. In contrast to angiosperm orthologs, MpKAN functions in the gametophyte generation in Marchantia, where it regulates apical branching and tissue differentiation, but does not influence tissue polarity in either generation. MpKAN can partially rescue the sporophyte polarity defects of kanadi mutants in Arabidopsis, indicating that MpKAN has conserved biochemical activity to its angiosperm counterparts. Mpkan loss‐of‐function plants display defects in far‐red (FR) light responses. Mpkan plants have reduced FR‐induced growth tropisms, have a delayed transition to sexual reproduction and fail to correctly form gametangiophores. Our results indicate that MpKAN is a modulator of FR responses, which may reflect a conserved role for KANADI across land plants. 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subjects Angiosperms
Aquatic plants
Arabidopsis - metabolism
Arabidopsis Proteins - metabolism
Defects
Differentiation (biology)
far‐red (FR) responses
Freshwater plants
gametangiophores
Gametophytes
Gene Expression Regulation, Plant
Germ Cells, Plant - metabolism
KANADI
land plant evolution
Magnoliopsida - metabolism
Marchantia
Marchantia - metabolism
Organogenesis
Polarity
Reproduction (biology)
Sexual reproduction
Sporophytes
Thallus
Tissue
Tissues
Transcription
transcription factor evolution
Transcription factors
Transcription Factors - metabolism
title KANADI promotes thallus differentiation and FR‐induced gametangiophore formation in the liverwort Marchantia
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