Phosphate (Pi) deficiency is a major factor limiting plant productivity worldwide. Land plants
have evolved different strategies to cope with Pi deficiency. For instance, plants activate the …

Phosphorus (P) deficiency stress in combination with biotic stress (es) severely impacts crop
yield. Plant responses to P deficiency overlapping with that of other stresses exhibit a high …

Phosphate (Pi) is indispensable for life on this planet. However, for sessile land plants it is
poorly accessible. Therefore, plants have developed a variety of strategies for enhanced …

Phosphorus (P) is one of the essential minerals for many biochemical and physiological
responses in all biota, especially in plants. P deficiency negatively affects plant performance …

Phosphorus is indispensable for plant growth and development, with its status crucial for
determining crop productivity. Plants have evolved various biochemical, morphological, and …

Plants assemble beneficial root-associated microbiomes to support growth, especially in
nutrient-poor conditions. To do so, however, plants have to suppress their immune system …

Phosphate starvation response (PSR) in nonmycorrhizal plants comprises transcriptional
reprogramming resulting in severe physiological changes to the roots and shoots and …

As an essential nutrient element, phosphorus (P) is primarily acquired and translocated as
inorganic phosphate (Pi) by plant roots. Pi is often sequestered in the soil and becomes …

Phosphorus (P) is the second most essential macronutrient in terms of limiting plant growth.
The genes involved in P acquisition, transport, storage, utilization and respective regulation …

Highlights•Pi stress restricts primary root growth through dual regulatory pathways.•Vacuolar
transporters regulate cytosolic Pi homeostasis.•InsP interacts with SPX domain to regulate Pi …