Bas van Ravensteijn

Dr. Bas van Ravensteijn is an Assistant Professor in the Department of Pharmaceutics at Utrecht University's Faculty of Science. His research bridges polymer and physical chemistry with pharmaceutical sciences to develop advanced nano-pharmaceutics. He has established himself as a leading researcher in colloidal synthesis, self-assembly, and nanomedicine development.

Van Ravensteijn earned his Chemical Engineering degree with a Master in Organic and Polymer Chemistry from Eindhoven University of Technology (2006-2011). He completed his Ph.D. at Utrecht University (2011-2015) under Prof. Willem Kegel, focusing on colloidal particle synthesis and self-assembly. His postdoctoral work included research at UC Santa Barbara with Profs. Craig Hawker and Matthew Helgeson, followed by positions at TNO and TU/e with a Marie Sklodowska-Curie fellowship.

His research interests span colloid science, polymer chemistry, and pharmaceutical applications. He specializes in designing nano-pharmaceuticals through controlled colloidal synthesis, with particular expertise in bio- and geopolymers, nanoparticle self-assembly, and stimuli-responsive materials. His work has significant implications for drug delivery systems, tissue engineering, and thermochemical energy storage.

Analysis of his recent publications reveals a strong focus on hydrogel technologies for biomedical applications, with increasing emphasis on 3D/4D printing, tissue engineering scaffolds, and responsive biomaterials. His earlier work featured prominently in colloid science, particularly in patchy particles, colloidal self-assembly, and polymer architecture effects.

Van Ravensteijn has built a robust research program at Utrecht University since joining in 2021, with extensive collaborations across materials science and pharmaceutical disciplines. His laboratory focuses on translating fundamental colloidal chemistry into practical pharmaceutical applications, particularly in nanomedicine development.

His research group actively explores multiple fronts including drug delivery systems, tissue engineering hydrogels, and energy storage materials. Current projects emphasize the development of thermoshrinkable hydrogels, electrostatically templated polymerization techniques, and polymeric stabilization of salt hydrates for energy applications.