White lupin (Lupinus albus L.) develops proteoid (cluster) roots in response to phosphorus
deficiency. Proteoid roots are composed of tight clusters of rootlets that initiate from the …

Low concentrations of phosphate (Pi) in soil trigger alterations to the architecture of the root
system that increase a plant's capacity to absorb Pi. Many plants stimulate the uptake of this …

The molecular changes that allow plant roots to response to low phosphate levels are poorly
understood. A series of three papers investigate this phenomenon and reveal which …

White lupin (Lupinus albus L.) is highly adapted to phosphorus-diminished soils. P-deficient
white lupin plants modify their root architecture and physiology to acquire sparingly …

Release of large amounts of citric acid from specialized root clusters (proteoid roots) of
phosphorus (P)-deficient white lupin (Lupinus albus L.) is an efficient strategy for chemical …

The postembryonic developmental program of the plant root system is plastic and allows
changes in root architecture to adapt to environmental conditions such as water and nutrient …

Narrow-leafed lupin (Lupinus angustifolius L.) is widely planted in infertile acidic soils where
phosphorus (P) deficiency is one of the major limiting factors for plant growth. A hydroponic …

The development of proteoid roots under phosphorus deficiency by white lupin (Lupinus
albus) may result in increased arsenate uptake, as arsenate is a phosphate analogue. This …

Background and Aims White lupin is highly adapted to growth in a low-P environment. The
objective of the present study was to evaluate whether white lupin grown under P-stress has …