About the Project:
Project Aim
InnoSoilPhos intents to optimize the soil-P-fertility in order to lower the dependency on phosphate rock-derived P-fertilizers. The P use efficiency in the soil-plant-water-system will be improved by developing new technologies and products. Furthermore, the socio-economic and political/legal framework will be developed.
Motivation
Phosphorus (P) is essential for all life on earth and soils are central in providing P to microorganisms and agricultural crops. While todays agriculture depends on external inputs of non-renewable mineral P fertilizers, a long-term bioeconomy strategy requires to lower the dependency on finite, rock-phosphate derived P fertilizers. A more efficient use of P in crop production is also essential for conserving or improving the freshwater quality. The research is directed to a better understanding of the P transformations across all scales from the atomic and molecular through plot/field/catchment up to the societal scale. The investigations utilize the great potential of novel physical (e.g. quantum-chemical modelling, synchrotron-based spectroscopy), chemical and micro- & molecular-biological methods.
Expected Results
New evidence in all aspects of P-speciation and P–transformations in the system soil-crops-environment will result in improved P-fertilizer recommendations, approaches to mobilize unavailable P-stocks in subsoils, application guidelines for innovative P-recycling products, novel concepts for „smart “ P-fertilizers with by-effects as well as recommendations for policy makers. InnoSoilPhos will provide the BonaRes-center with all P-specific soil data, pedotransfer functions and concepts for web-based soil-function-models.
Contact
News
- BonaRes/Rhizo4Bio Status Seminar on 14/15 March 2022
- Sustainable Phosphorus Management in European Agricultural and Environmental Law. Review of European, Comparative and International Law 2020
- Sustainability. Transformation, Governance, Ethics, Law
- Data Workshop in Rostock
- Glyphosate binding in soil as revealed by sorption experiments and quantum-chemical modeling
Publications
- Deciphering competitive interactions: Phosphate and organic matter binding on goethite through experimental and theoretical insights
- Soil structure and solute transport pathways in biogas digestate-amended soils
- Phosphorus removal from water using La-based absorbents: Insights into the impacts of crystal structure, surface area, and crystallinity on the removal efficiency and mechanisms
- Using bone char as phosphate recycling fertiliser: an analysis of the new EU Fertilising Products Regulation
- Earthworm activities change phosphorus mobilization and uptake strategies in deep soil layers
Deinen Boden besser verstehen - Prof. Dr. Christel Baum, Universität Rostock
