De novo shoot organogenesis (DNSO) is a procedure commonly used for the in vitro regeneration of shoots from a variety of plant tissues. Shoot regeneration occurs on nutrient media supplemented with the plant hormones cytokinin (CK) and auxin, which play essential roles in this process, and genes involved in their signaling cascades act as master regulators of the different phases of shoot regeneration. In the last 20 years, the genetic regulation of DNSO has been characterized in detail. However, as of today, the CK and auxin signaling events associated with shoot regeneration are often interpreted as a consequence of these hormones simply being present in the regeneration media, whereas the roles for their prior uptake and transport into ...
In the past decade tremendous advances have been made in understanding the biosynthesis, perception,...
The phytohormones auxin and cytokinin interact to regulate many plant growth and developmental proce...
In vitro regeneration of Arabidopsis from roots is generally achieved via indirect organogenesis. Fi...
Cell dedifferentiation is a cell fate regression process in which the cell fate memory of a differen...
In vitro shoot organogenesis and plant regeneration are crucial for both plant biotechnology and the...
The ratio of auxin to cytokinin determines de novo organogenesis in plants. Relatively little is kno...
Nitrogen is an essential, often limiting, factor in plant growth and development. To regulate growth...
Stem-cell homeostasis is mediated by multifaceted networks involving plant hormones and local cell-c...
Perhaps the most amazing feature of plants is their ability to grow and regenerate for years, someti...
The molecular mechanisms underlying de novo root organogenesis have been under intense study for the...
Phytohormones are important plant growth regulators that control many developmental processes, such ...
Many new questions on the regulation of shoot branching have been raised in recent years, prompting ...
Plant regeneration can be defined as the ability to repair tissues and reconstruct organs upon wound...
National audienceResearch focus. Branching is an important process for productivity (number of produ...
Auxins (IAA) and cytokinins (CKs) are the most influential phytohormones, having multifaceted roles ...
In the past decade tremendous advances have been made in understanding the biosynthesis, perception,...
The phytohormones auxin and cytokinin interact to regulate many plant growth and developmental proce...
In vitro regeneration of Arabidopsis from roots is generally achieved via indirect organogenesis. Fi...
Cell dedifferentiation is a cell fate regression process in which the cell fate memory of a differen...
In vitro shoot organogenesis and plant regeneration are crucial for both plant biotechnology and the...
The ratio of auxin to cytokinin determines de novo organogenesis in plants. Relatively little is kno...
Nitrogen is an essential, often limiting, factor in plant growth and development. To regulate growth...
Stem-cell homeostasis is mediated by multifaceted networks involving plant hormones and local cell-c...
Perhaps the most amazing feature of plants is their ability to grow and regenerate for years, someti...
The molecular mechanisms underlying de novo root organogenesis have been under intense study for the...
Phytohormones are important plant growth regulators that control many developmental processes, such ...
Many new questions on the regulation of shoot branching have been raised in recent years, prompting ...
Plant regeneration can be defined as the ability to repair tissues and reconstruct organs upon wound...
National audienceResearch focus. Branching is an important process for productivity (number of produ...
Auxins (IAA) and cytokinins (CKs) are the most influential phytohormones, having multifaceted roles ...
In the past decade tremendous advances have been made in understanding the biosynthesis, perception,...
The phytohormones auxin and cytokinin interact to regulate many plant growth and developmental proce...
In vitro regeneration of Arabidopsis from roots is generally achieved via indirect organogenesis. Fi...