The developmental plasticity of the root system represents a key adaptive trait enabling plants to cope with abiotic stresses such as drought and is therefore important in the current context of global changes. Root branching through lateral root formation is an important component of the adaptability of the root system to its environment. Our understanding of the mechanisms controlling lateral root development has progressed tremendously in recent years through research in the model plant Arabidopsis thaliana (Arabidopsis). These studies have revealed that the phytohormone auxin acts as a common integrator to many endogenous and environmental signals regulating lateral root formation. Here, we review what has been learnt about the myriad r...
Root systems can display variable architectures that contribute to survival strategies of plants. Th...
By forming lateral roots, plants expand their root systems to improve anchorage and absorb more wate...
International audienceRoot architecture plays an important role in water and nutrient acquisition an...
The developmental plasticity of the root system represents a key adaptive trait enabling plants to c...
The developmental plasticity of the root system represents a key adaptive trait enabling plants to c...
Lateral root formation is a major determinant of root systems architecture. The degree of root branc...
Lateral root formation is a major determinant of root systems architecture. The degree of root branc...
International audienceLateral root formation is a major determinant of root systems architecture. Th...
Root system architecture is an important determinant of below-ground resource capture and hence over...
The root system is a major determinant of a plant's access to water and nutrients. The architecture ...
Lateral roots (LRs) are crucial for increasing the surface area of root systems to explore heterogen...
Lateral roots (LRs) are crucial for increasing the surface area of root systems to explore heterogen...
Recent studies in the model plant Arabidopsis provide new insight into the regulation of root archit...
Plant roots are required to anchor the plant in the soil, acquire water and nutrients and respond to...
Root systems can display variable architectures that contribute to survival strategies of plants. Th...
By forming lateral roots, plants expand their root systems to improve anchorage and absorb more wate...
International audienceRoot architecture plays an important role in water and nutrient acquisition an...
The developmental plasticity of the root system represents a key adaptive trait enabling plants to c...
The developmental plasticity of the root system represents a key adaptive trait enabling plants to c...
Lateral root formation is a major determinant of root systems architecture. The degree of root branc...
Lateral root formation is a major determinant of root systems architecture. The degree of root branc...
International audienceLateral root formation is a major determinant of root systems architecture. Th...
Root system architecture is an important determinant of below-ground resource capture and hence over...
The root system is a major determinant of a plant's access to water and nutrients. The architecture ...
Lateral roots (LRs) are crucial for increasing the surface area of root systems to explore heterogen...
Lateral roots (LRs) are crucial for increasing the surface area of root systems to explore heterogen...
Recent studies in the model plant Arabidopsis provide new insight into the regulation of root archit...
Plant roots are required to anchor the plant in the soil, acquire water and nutrients and respond to...
Root systems can display variable architectures that contribute to survival strategies of plants. Th...
By forming lateral roots, plants expand their root systems to improve anchorage and absorb more wate...
International audienceRoot architecture plays an important role in water and nutrient acquisition an...