Jasper Michels

Dr. Jasper Michels serves as Group Leader and Researcher in the Department of Molecular Electronics at the Max Planck Institute for Polymer Research, a position he assumed in September 2014 after roles at TNO Science and Industry and Holst Center. His career bridges fundamental supramolecular chemistry and applied thin-film electronics development.

His academic foundation includes:

• Chemistry degree specializing in Organic Chemistry from the University of Amsterdam (1995)
• PhD in Supramolecular Chemistry from the University of Twente (2001) with thesis: "Cyclodextrin Assemblies based on Multiple Non-Covalent Interactions"

Michels' research centers on soft matter dynamics within functional systems, particularly thin-film organic electronics. His group investigates polymeric semiconductors for devices like LEDs and solar cells, focusing on phase transitions during solution processing and their impact on film morphology. Recent work extends these methodologies to cellular phase separation phenomena in life science, demonstrating interdisciplinary innovation.

Analysis of his 2021-2022 publications reveals consistent emphasis on meniscus-guided coating techniques, phase behavior modeling, and structure-property relationships in organic semiconductors. These works span polymer science, materials engineering, and biophysics, reflecting convergence of fundamental dynamics with device optimization.

Key recognition includes:

• Marie Curie Fellowship (EU)

His funding history demonstrates competitive success, notably EPSRC support during Oxford post-doctoral work and sustained institutional backing at Max Planck. Professional service includes advisory board membership (2006-2016) for IOP Self Healing Materials in the Netherlands. Current research leverages advanced processing techniques to control crystallization and morphology in next-generation electronic materials.

As Group Leader, Michels directs a multidisciplinary team utilizing experimental and theoretical approaches to solve challenges in out-of-equilibrium phase behavior, with facilities for materials synthesis, device fabrication, and nanoscale characterization.