Shoot branching patterns result from the spatio-temporal regulation of axillary bud outgrowth. Numerous endogenous, developmental and environmental factors are integrated at the bud and plant levels to determine numbers of growing shoots. Multiple pathways that converge to common integrators are most probably involved. We propose several pathways involving not only the classical hormones auxin, cytokinins and strigolactones, but also other signals with a strong influence on shoot branching such as gibberellins, sugars or molecular actors of plant phase transition. We also deal with recent findings about the molecular mechanisms and the pathway involved in the response to shade as an example of an environmental signal controlling branching. ...
The control of axillary bud outgrowth involves a network of hormonal signals and feedback regulation...
Apical dominance, the process by which the growing apical zone of the shoot inhibits bud outgrowth, ...
Long distance cell-to-cell communication is critical for the development of multicellular organisms....
Shoot branching patterns result from the spatio-temporal regulation of axillary bud outgrowth. Numer...
Many new questions on the regulation of shoot branching have been raised in recent years, prompting ...
<p>The left panel shows the shoot branching model from what is known in other species, while the rig...
Shoot branching is the process by which axillary buds, located on the axil of a leaf, develop and fo...
International audienceShoot branching is a primary contributor to plant architecture, evolving indep...
Shoot branching is a primary contributor to plant architecture, evolving independently in flowering ...
Shoot branching patterns depend on a key developmental decision: whether axillary buds grow out to g...
This chapter provides a synopsis of physiological, genetic, and molecular studies and approaches for...
Abstract Shoot branching involves the coordinated regulation of the activity of meristems establishe...
<div><p>Plants continuously extend their root and shoot systems through the action of meristems at t...
The degree of shoot branching in Arabidopsis is determined by the activation of axillary buds. Bud a...
The degree of shoot branching in $\textit{Arabidopsis}$ is determined by the activation of axillary ...
The control of axillary bud outgrowth involves a network of hormonal signals and feedback regulation...
Apical dominance, the process by which the growing apical zone of the shoot inhibits bud outgrowth, ...
Long distance cell-to-cell communication is critical for the development of multicellular organisms....
Shoot branching patterns result from the spatio-temporal regulation of axillary bud outgrowth. Numer...
Many new questions on the regulation of shoot branching have been raised in recent years, prompting ...
<p>The left panel shows the shoot branching model from what is known in other species, while the rig...
Shoot branching is the process by which axillary buds, located on the axil of a leaf, develop and fo...
International audienceShoot branching is a primary contributor to plant architecture, evolving indep...
Shoot branching is a primary contributor to plant architecture, evolving independently in flowering ...
Shoot branching patterns depend on a key developmental decision: whether axillary buds grow out to g...
This chapter provides a synopsis of physiological, genetic, and molecular studies and approaches for...
Abstract Shoot branching involves the coordinated regulation of the activity of meristems establishe...
<div><p>Plants continuously extend their root and shoot systems through the action of meristems at t...
The degree of shoot branching in Arabidopsis is determined by the activation of axillary buds. Bud a...
The degree of shoot branching in $\textit{Arabidopsis}$ is determined by the activation of axillary ...
The control of axillary bud outgrowth involves a network of hormonal signals and feedback regulation...
Apical dominance, the process by which the growing apical zone of the shoot inhibits bud outgrowth, ...
Long distance cell-to-cell communication is critical for the development of multicellular organisms....