This special issue of Journal of Experimental Botany focuses on the developmental mechanisms required to generate plant vascular tissue. The focus is Arabidopsis, including the three models for initial patterning involving the interaction of auxin and cytokinin, and going on to look at expansion and differentiation into xylem and phloem. Bryophyte and tree models are also considered, as well as new techniques for analyzing the vasculature of mature plants
The plant vascular system provides transport and mechanical support functions that are essential for...
Pattern formation is typically controlled through the interaction between molecular signals within a...
In plants, cells do not migrate. Tissues are frequently arranged in concentric rings, thus expansion...
A significant proportion of terrestrial biomass is constituted of xylem cells that make up woody pla...
The development of secondary vascular tissue enhances the transport capacity and mechanical strength...
For centuries, humans have grown and used structures, based on vascular tissues in plants. One could...
Development of vascular tissue is a remarkable example of intercellular communication and coordinate...
Background: The control of vascular tissue development in plants is influenced by diverse hormonal ...
Development of vascular tissue is a remarkable example of intercellular communication and coordinate...
Vascular meristems generate the majority of biomass in higher plants. They constitute a bifacial ste...
Plants transport water and nutrients throughout their bodies using a specialised vascular system. Va...
Plant vasculature is required for the transport of water and solutes throughout the plant body. It i...
The epidermis is hypothesized to play a signalling role during plant development. One class of mutan...
Plant vascular development is a complex process culminating in the generation of xylem and phloem, t...
Development of vascular tissue is a remarkable example of intercellular communication and coordinate...
The plant vascular system provides transport and mechanical support functions that are essential for...
Pattern formation is typically controlled through the interaction between molecular signals within a...
In plants, cells do not migrate. Tissues are frequently arranged in concentric rings, thus expansion...
A significant proportion of terrestrial biomass is constituted of xylem cells that make up woody pla...
The development of secondary vascular tissue enhances the transport capacity and mechanical strength...
For centuries, humans have grown and used structures, based on vascular tissues in plants. One could...
Development of vascular tissue is a remarkable example of intercellular communication and coordinate...
Background: The control of vascular tissue development in plants is influenced by diverse hormonal ...
Development of vascular tissue is a remarkable example of intercellular communication and coordinate...
Vascular meristems generate the majority of biomass in higher plants. They constitute a bifacial ste...
Plants transport water and nutrients throughout their bodies using a specialised vascular system. Va...
Plant vasculature is required for the transport of water and solutes throughout the plant body. It i...
The epidermis is hypothesized to play a signalling role during plant development. One class of mutan...
Plant vascular development is a complex process culminating in the generation of xylem and phloem, t...
Development of vascular tissue is a remarkable example of intercellular communication and coordinate...
The plant vascular system provides transport and mechanical support functions that are essential for...
Pattern formation is typically controlled through the interaction between molecular signals within a...
In plants, cells do not migrate. Tissues are frequently arranged in concentric rings, thus expansion...