Species that inhabit phosphorus- (P) and micronutrient-impoverished soils typically have adaptations to enhance the acquisition of these nutrients, for example cluster roots in Proteaceae. However, there are several species co-occurring in the same environment that do not produce similar specialised roots. This study aims to investigate whether one of these species (Scholtzia involucrata) can benefit from the mobilisation of P or micronutrients by the cluster roots of co-occurring Banksia attenuata, and also to examine the response of B. attenuata to the presence of S. involucrata. We conducted a greenhouse experiment, using a replacement series design, where B. attenuata and S. involucrata shared a pot at proportions of 2:0, 1:2 and 0:4. S...
Plants growing on soils poor in phosphorus (P) develop P-acquisition strategies such as symbiotic as...
Soilborne pathogens can contribute to the maintenance of local plant diversity by reducing differenc...
Two key plant adaptations for phosphorus (P) acquisition are carboxylate exudation into the rhizosph...
Greater understanding of positive interspecific interactions in nutrient-poor soils is a priority, p...
The vast majority of terrestrial plants form root symbioses with arbuscular mycorrhizal (AM) fungi t...
Highly diverse plant communities growing on nutrient-impoverished soils are test beds for theories o...
1. Greater understanding of positive interspecific interactions in nutrient-poor soils is a priority...
Resource complementarity can contribute to enhanced ecosystem functioning in diverse plant communiti...
Soils in the south-west of Western Australia and South Africa are among the most phosphorusimpoveris...
Highly diverse plant communities growing on nutrient-impoverished soils are test beds for theories o...
Background: Mycorrhizal strategies are very effective in enhancing plant acquisition of poorly-mobil...
Mycorrhizas play a pivotal role in phosphorus (P) acquisition of plant roots, by enhancing the soil ...
Although phosphorus availability and plant density independently have been demonstrated to alter pla...
1. The vast majority of terrestrial plants form root symbioses with arbuscular mycorrhizal (AM) fung...
Background and aims:Root-released carboxylates enhance the availability of manganese (Mn), which ent...
Plants growing on soils poor in phosphorus (P) develop P-acquisition strategies such as symbiotic as...
Soilborne pathogens can contribute to the maintenance of local plant diversity by reducing differenc...
Two key plant adaptations for phosphorus (P) acquisition are carboxylate exudation into the rhizosph...
Greater understanding of positive interspecific interactions in nutrient-poor soils is a priority, p...
The vast majority of terrestrial plants form root symbioses with arbuscular mycorrhizal (AM) fungi t...
Highly diverse plant communities growing on nutrient-impoverished soils are test beds for theories o...
1. Greater understanding of positive interspecific interactions in nutrient-poor soils is a priority...
Resource complementarity can contribute to enhanced ecosystem functioning in diverse plant communiti...
Soils in the south-west of Western Australia and South Africa are among the most phosphorusimpoveris...
Highly diverse plant communities growing on nutrient-impoverished soils are test beds for theories o...
Background: Mycorrhizal strategies are very effective in enhancing plant acquisition of poorly-mobil...
Mycorrhizas play a pivotal role in phosphorus (P) acquisition of plant roots, by enhancing the soil ...
Although phosphorus availability and plant density independently have been demonstrated to alter pla...
1. The vast majority of terrestrial plants form root symbioses with arbuscular mycorrhizal (AM) fung...
Background and aims:Root-released carboxylates enhance the availability of manganese (Mn), which ent...
Plants growing on soils poor in phosphorus (P) develop P-acquisition strategies such as symbiotic as...
Soilborne pathogens can contribute to the maintenance of local plant diversity by reducing differenc...
Two key plant adaptations for phosphorus (P) acquisition are carboxylate exudation into the rhizosph...