Root system architecture depends on nutrient availability, which shapes primary and lateral
root development in a nutrient-specific manner. To better understand how nutrient signals …

Nutrient distribution within the soil is generally heterogeneous. Plants, therefore, have
evolved sophisticated systemic processes enabling them to optimize their nutrient …

The hormone auxin is known to inhibit root elongation and to promote initiation of lateral
roots. Here we report complex effects of auxin on lateral root initiation in roots showing …

A stunted root system is a significant symptom of iron (Fe) toxicity, yet little is known about
the effects of excess Fe on lateral root (LR) development. In this work, we show that excess …

Iron (Fe) is an essential microelement but is highly toxic when in excess. To cope with Fe
excess, plants have evolved complex adaptive responses that include morphological and …

Iron (Fe) homeostasis is integrated with the production of reactive oxygen species (ROS),
and distribution at the root tip participates in the control of root growth. Excess Fe increases …

The Arabidopsis FERONIA (FER) receptor kinase is a key hub of cell signaling networks
mediating various hormone, stress, and immune responses. Previous studies have shown …

Iron (Fe) is an essential micronutrient for plant growth and development, and is frequently
limiting. By contrast, over-accumulation of Fe in plant tissues leads to toxicity. In soils, the …

Aluminium (Al) stress is a major limiting factor for worldwide crop production in acid soils. In
Arabidopsis thaliana, the TAA1‐dependent local auxin biosynthesis in the root‐apex …

A balanced supply of essential nutrients is an important factor influencing root architecture in
many plants, yet data related to the interactive effects of two nutrients on root growth are …