Banksia species (Proteaceae) occur on some of the most phosphorus (P)-impoverished soils in the world. We hypothesized that Banksia spp. maximize P-use efficiency through high photosynthetic P-use efficiency, long leaf lifespan (P residence time), effective P re-mobilization from senescing leaves, and maximizing seed P concentration. Field and glasshouse experiments were conducted to quantify P-use efficiency in nine Banksia species. Leaf P concentrations for all species were extremely low (0.14–0.32 mg P g−1 DM) compared with leaf P in other species reported and low relative to other plant nutrients in Banksia spp.; however, moderately high rates of photosynthesis (13.8–21.7 µmol CO2 m−2 s−1), were measured. Some of the Banksia spp. had gr...
Aims: Non-mycorrhizal species such as Banksia (Proteaceae) that depend on root exudates to acquire p...
Phosphorus (P) is a vital nutrient for plant growth. P availability is generally low in soils, and p...
Phosphorus (P) reacts with soil minerals, which makes it less available to plants. Considering that ...
Plants allocate nutrients to specific leaf cell types, with commelinoid monocots preferentially allo...
Published online: 22 March 2021Background and aims: Plant species richness increases with declining ...
Phosphorus (P) is not only a constituent of key cell molecules such as ATP, nucleic acids, and phosp...
Proteaceae species in south-western Australia occur on phosphorus- (P) impoverished soils. Their lea...
The phosphorus (P) uptake capacities and tolerance to high P of three Proteaceae species from acid (...
Background: Agricultural production is often limited by low phosphorus (P) availability. In developi...
Banksia species (Proteaceae) occur on some of the most phosphorus (P)-impoverished soils in the worl...
Due to the low P nature of soils within the fynbos biome of the Cape Floristic Region, plants have d...
Soil nutrient restrictions are the main environmental conditions limiting plant growth, development,...
Virgilia divaricata is a tree legume that grows in the Cape Floristic Region (CFA) in poor nutrient ...
The family Proteaceae dominates the nutrient-poor, Mediterranean-climate floristic regions of southw...
<p>Plants from the Proteaceae family can thrive in old, impoverished soil with extremely low phospho...
Aims: Non-mycorrhizal species such as Banksia (Proteaceae) that depend on root exudates to acquire p...
Phosphorus (P) is a vital nutrient for plant growth. P availability is generally low in soils, and p...
Phosphorus (P) reacts with soil minerals, which makes it less available to plants. Considering that ...
Plants allocate nutrients to specific leaf cell types, with commelinoid monocots preferentially allo...
Published online: 22 March 2021Background and aims: Plant species richness increases with declining ...
Phosphorus (P) is not only a constituent of key cell molecules such as ATP, nucleic acids, and phosp...
Proteaceae species in south-western Australia occur on phosphorus- (P) impoverished soils. Their lea...
The phosphorus (P) uptake capacities and tolerance to high P of three Proteaceae species from acid (...
Background: Agricultural production is often limited by low phosphorus (P) availability. In developi...
Banksia species (Proteaceae) occur on some of the most phosphorus (P)-impoverished soils in the worl...
Due to the low P nature of soils within the fynbos biome of the Cape Floristic Region, plants have d...
Soil nutrient restrictions are the main environmental conditions limiting plant growth, development,...
Virgilia divaricata is a tree legume that grows in the Cape Floristic Region (CFA) in poor nutrient ...
The family Proteaceae dominates the nutrient-poor, Mediterranean-climate floristic regions of southw...
<p>Plants from the Proteaceae family can thrive in old, impoverished soil with extremely low phospho...
Aims: Non-mycorrhizal species such as Banksia (Proteaceae) that depend on root exudates to acquire p...
Phosphorus (P) is a vital nutrient for plant growth. P availability is generally low in soils, and p...
Phosphorus (P) reacts with soil minerals, which makes it less available to plants. Considering that ...