The initiation of leaf and flower primordia in plants occurs in the shoot apical meristem and results in visible large–scale regular patterns of organs. It has previously been proposed that the initiation of new primordia is triggered by the plant hormone auxin by a mechanism that is confined to the outermost epidermal layer of the meristem. Recent experiments suggest that the genes KANADI (KAN) and REVOLUTA (REV), involved in determining the polarity of leaves, might also be involved in the primordia initiation mechanism. Here we introduce and analyse in detail a model which aims to reproduce the distinct KAN and REV pattern as observed in confocal microscopy, along with the dynamics of leaf primordia initiation. In accordance with experim...
The periodic formation of plant organs such as leaves and flowers gives rise to intricate patterns t...
Megaphylls, present in the majority of vascular plants, show in many plant lineages an abaxial-adaxi...
An auxin maximum is positioned along the xylem axis of the Arabidopsis root tip. The pattern depends...
Stem cells are responsible for organogenesis, but it is largely unknown whether and how information ...
The development of outgrowths from plant shoots depends on formation of epidermal sites of cell pola...
International audienceThe shoot apical meristem (SAM) produces new aerial organs such as leaves and ...
The dynamic patterning of the plant hormone auxin and its efflux facilitator the PIN protein are the...
Plant development is exceptionally flexible as manifested by its potential for organogenesis and reg...
Polar auxin transport lies at the core of many self-organizing phenomena sustaining continuous plant...
SummaryBackground: Plants produce leaf and flower primordia from a specialized tissue called the sho...
An intriguing phenomenon in plant development is the timing and positioning of lateral organ initiat...
AbstractBackground: Asymmetric development of plant lateral organs initiates by partitioning of orga...
SummaryThe apical-basal axis of the early plant embryo determines the body plan of the adult organis...
Plant development is exceptionally flexible as manifested by its potential for organogenesis and rege...
Megaphylls, present in the majority of vascular plants, show in many plant lineages an abaxial-adaxi...
The periodic formation of plant organs such as leaves and flowers gives rise to intricate patterns t...
Megaphylls, present in the majority of vascular plants, show in many plant lineages an abaxial-adaxi...
An auxin maximum is positioned along the xylem axis of the Arabidopsis root tip. The pattern depends...
Stem cells are responsible for organogenesis, but it is largely unknown whether and how information ...
The development of outgrowths from plant shoots depends on formation of epidermal sites of cell pola...
International audienceThe shoot apical meristem (SAM) produces new aerial organs such as leaves and ...
The dynamic patterning of the plant hormone auxin and its efflux facilitator the PIN protein are the...
Plant development is exceptionally flexible as manifested by its potential for organogenesis and reg...
Polar auxin transport lies at the core of many self-organizing phenomena sustaining continuous plant...
SummaryBackground: Plants produce leaf and flower primordia from a specialized tissue called the sho...
An intriguing phenomenon in plant development is the timing and positioning of lateral organ initiat...
AbstractBackground: Asymmetric development of plant lateral organs initiates by partitioning of orga...
SummaryThe apical-basal axis of the early plant embryo determines the body plan of the adult organis...
Plant development is exceptionally flexible as manifested by its potential for organogenesis and rege...
Megaphylls, present in the majority of vascular plants, show in many plant lineages an abaxial-adaxi...
The periodic formation of plant organs such as leaves and flowers gives rise to intricate patterns t...
Megaphylls, present in the majority of vascular plants, show in many plant lineages an abaxial-adaxi...
An auxin maximum is positioned along the xylem axis of the Arabidopsis root tip. The pattern depends...