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Fate and bioavailability of phosphorus loaded to iron oxyhydroxide nanoparticles added to weathered soils

  • Jessica Bollyn
  • Lore Castelein
  • Erik SmoldersEmail author
Regular Article
  • 129 Downloads

Abstract

Aims

The low phosphorus (P) fertilizer use efficiency in weathered, P deficient soils calls for better fertilizer formulations. We previously formulated nanoparticles containing P (NP-P) that were a successful fertilizer in nutrient solution. This study was set up to test the fate and the bioavailability of nanofertilizer-P and of that of native (colloid) P naturally present in soil.

Methods

The NP-P consisted of nano-ferrihydrite (~ 10 nm) loaded with phosphate (P-nFh) and stabilized with either natural organic matter (NOM) or hexametaphosphate (HMP). Natural colloid concentrations were increased with KOH addition, as deflocculating agent, to soil; all tests used samples from P deficient, highly weathered soils.

Results

Pot trials with rice seedlings did not reveal larger P uptake in the NP-P amended soils compared to equal doses of soluble PO4 or soluble HMP. Total Fe concentrations in soil solutions were unaffected by NP-P addition, whereas natural colloidal Fe and P markedly increased by KOH addition. The bioavailability of native colloidal P, mobilized by KOH addition, could not be assessed due to lack of growth, likely related to collapse of the soil structure.

Conclusions

This study showed that P-loaded iron oxyhydroxide NPs insufficiently enhanced soluble P in soil to offer benefits over soluble fertilizers, likely because of a combined effect of lower diffusivity of NPs compared to Pi and lower bioavailability of NP-P than Pi. Smaller particles or small labile organic colloids might offer an improvement in both aspects.

Keywords

Nanofertilizer Colloidal phosphorus Phosphorus bioavailability 

Abbreviations

AlOx

Aluminum oxides

EDL

Electric double layer

FeOx

Iron (oxyhydr)oxides

HMEP

Humic-metal-phosphorus

HMP

Hexametaphosphate

ICP-MS

Inductively coupled plasma – mass spectrometry

LSC

Liquid scintillation counting

nFh

Nano-ferrihydrite

NOM

Natural organic matter

NPs

Nanoparticles

OM

Organic matter

PO4

Phosphate

Pp

Polyphosphate

TOC

Total organic carbon.

Notes

Acknowledgements

Thanks to K. Coorevits and J. Plevoets for technical assistance in the pot trials, Daniela Montalvo and E. Shimamura for help on the second pot trial. J.B. acknowledges the FWO-Research Foundation Flanders for a PhD fellowship.

Supplementary material

11104_2019_4008_MOESM1_ESM.docx (66 kb)
ESM 1 (DOCX 65 kb)

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Copyright information

© Springer Nature Switzerland AG 2019

Authors and Affiliations

  1. 1.Department of Earth and Environmental SciencesKU LeuvenLeuvenBelgium

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