Background and activities
I am Head of Department of chemical engineering. Our department brings chemistry from the lab to industrial scale. We study chemical reactions and how we can affect their rate in order to improve the process design. This involves the understanding of chemistry and materials on nano level, interfaces between solid, liquid and gas phases, and how this affects the exchange of heat and mass in a processing plant. With this knowledge we formulate mathematical models and simulate different processes in large scale, which we can validate by experimental studies in our laboratories and pilot plant equipment. We have made a strategic decision to invest our efforts in sustainable solutions for the future. This implies that we increase our research in how to apply biological raw materials and biochemistry to develop energy, new materials and chemicals.
When I am not HoD I am professor at the department, specializing in industrial crystallization. In the crystallization group, we study precipitation and growth of solid particulate materials related to industrial production, for instance pharmaceutical products or mineral precipitates. The size and shape of the crystals are important for separation and quality of the final product and we focus our studies on the fundamental size enlargement process. We cooperate with industrial companies, but also perform fundamental studies of mineralization in biological systems, as for instance how bone formation happens in the human body.
Scientific, academic and artistic work
A selection of recent journal publications, artistic productions, books, including book and report excerpts. See all publications in the database
- (2017) Transformation of brushite to hydroxyapatite and effects of alginate additives. Journal of Crystal Growth. vol. 468.
- (2016) Controlled mineralisation and recrystallisation of brushite within alginate hydrogels. Biomedical Materials. vol. 11 (1).
- (2016) A correlative spatiotemporal microscale study of calcium phosphate formation and transformation within an alginate hydrogel matrix. Acta Biomaterialia. vol. 44.
- (2016) Gelling kinetics and in situ mineralization of alginate hydrogels: A correlative spatiotemporal characterization toolbox. Acta Biomaterialia. vol. 44.
- (2015) Impact of monoethylene glycol and Fe2+ on crystal growth of CaCO3. International Corrosion Conference Series. vol. 2015-January.
- (2015) Nucleation and Growth of Brushite in the Presence of Alginate. Crystal Growth & Design. vol. 15 (11).
- (2014) Scaling of Calcium Carbonate on the Exterior of Heated Surfaces in a Flow-Through Setup. Chemical Engineering & Technology. vol. 37 (8).
- (2014) Synthesis of Au nanowires with controlled morphological and structural characteristics. Applied Surface Science. vol. 311.
- (2014) Spherulitic Growth of Gold Particles Precipitated from Aqueous Solution. Chemical Engineering & Technology. vol. 37 (8).
- (2013) The constant composition method for crystallization of calcium carbonate at constant supersaturation. Journal of Crystal Growth. vol. 380.
- (2013) The scaling and regeneration of the ceramic filter medium used in the dewatering of a magnetite concentrate. International Journal of Mineral Processing. vol. 119.
- (2012) Biomimetic type morphologies of calcium carbonate grown in absence of additives. Faraday discussions (Online). vol. 159.
- (2012) Influence of Crystallization Conditions on Crystal Morphology and Size of CaCO3 and Their Effect on Pressure Filtration. AIChE Journal. vol. 58 (1).
- (2012) The influence of crystallization conditions on the onset of dendritic growth of calcium carbonate. Crystal research and technology (1981). vol. 47 (4).
- (2012) Study of the solid-liquid solubility in the piperazine-H2O-CO2 system using FBRM and PVM. Energy Procedia. vol. 23.
- (2012) Precipitaton of Piperazine in Aqueous Piperazine Solutions with and without CO2 Loadings. Industrial & Engineering Chemistry Research. vol. 51 (37).
- (2012) Properties and cell compatibility of mineralized alginate hydrogel beads. European Cells and Materials. vol. 23.
- (2012) Investigation of mineralized alginate gels as a scaffold material for stem cell based bone tissue engineering. Journal of Tissue Engineering and Regenerative Medicine. vol. 6.
- (2012) Viscoelastic properties of mineralized alginate hydrogel beads. Journal of materials science. Materials in medicine. vol. 23 (7).
- (2012) Biocomposites prepared by alkaline phosphatase mediated mineralization of alginate microbeads. RSC Advances. vol. 2 (4).