Root system architecture varies in ways that maximizes success in different environments. This project examines the mechanisms that dictate where lateral roots form and the implications for plant growth efficiency. I predicted that lateral roots would form closer together in roots that have higher concentrations of the plant hormone auxin. I then performed multivariate experiments to determine if lateral root patterning changes in mutants that affect the level of auxin. The result shows that the spacing of lateral roots can be controlled by factors that regulate auxin accumulation
Lateral roots are important to forage for nutrients due to their ability to increase the uptake area...
The developmental plasticity of the root system represents a key adaptive trait enabling plants to c...
Plant growth relies heavily on a root system that is hidden belowground, which develops post-embryon...
Lateral root formation is a major determinant of root systems architecture. The degree of root branc...
The locations in which lateral roots arise are determined by local peaks of auxin response driven by...
The plant hormone auxin is a key regulator of many of the processes that control root growth for the...
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...
The root system is a major determinant of a plant's access to water and nutrients. The architecture ...
Lateral organ position along roots and shoots largely determines plant architecture, and depends on ...
The spacing and distribution of lateral roots are critical determinants of plant root system archite...
Lateral root (LR) development allows the plant to explore the soil volume and capture water and mine...
Lateral roots (LRs) are an important part of plant root systems. In dicots, for example, after plant...
Root systems can display variable architectures that contribute to survival strategies of plants. Th...
The developmental plasticity of the root system represents a key adaptive trait enabling plants to c...
Lateral roots are important to forage for nutrients due to their ability to increase the uptake area...
The developmental plasticity of the root system represents a key adaptive trait enabling plants to c...
Plant growth relies heavily on a root system that is hidden belowground, which develops post-embryon...
Lateral root formation is a major determinant of root systems architecture. The degree of root branc...
The locations in which lateral roots arise are determined by local peaks of auxin response driven by...
The plant hormone auxin is a key regulator of many of the processes that control root growth for the...
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...
The root system is a major determinant of a plant's access to water and nutrients. The architecture ...
Lateral organ position along roots and shoots largely determines plant architecture, and depends on ...
The spacing and distribution of lateral roots are critical determinants of plant root system archite...
Lateral root (LR) development allows the plant to explore the soil volume and capture water and mine...
Lateral roots (LRs) are an important part of plant root systems. In dicots, for example, after plant...
Root systems can display variable architectures that contribute to survival strategies of plants. Th...
The developmental plasticity of the root system represents a key adaptive trait enabling plants to c...
Lateral roots are important to forage for nutrients due to their ability to increase the uptake area...
The developmental plasticity of the root system represents a key adaptive trait enabling plants to c...
Plant growth relies heavily on a root system that is hidden belowground, which develops post-embryon...