News and events
Jan 2016: Magnus is appointed docent in Organic Electronics.
Dec 2015: We welcome Mina Shiran as PhD student in the group.
Sep 2015: Paper in ACS Nano (Belkin et al.) on DNA sequencing with plasmonic nanopores.
Sep 2015: Paper in Nano Letters (Pud and Verschueren et al.) on self-aligned controlled dielectric breakdown of plasmonic nanopores.
Sep 2015: We welcome Dr. Daniel Tordera as new member and postdoc in the group.
Jun 2015: We thank ÅForsk for 1.5MSEK funding for a postdoc and equipment for an exciting project.
May 2015: Magnus elected member of the Young Academy of Sweden.
Mar 2015: Magnus recieves an Ingvar Carlsson award from SSF.
Mar 2015: Daniel Verschueren et al. publish study on temperature-dependence of DNA nanopore translocations in the journal Nanotechnology.
We explore nanooptical and organic photonic phenomena and their use in novel applications, such as new types of energy harvesting and biosensing concepts. We have a specific interest in metal nanostructures that interact strongly with light through plasmonic charge oscillations. Other research interests include nanofabrication, nanofluidics and surface chemistry for sensing applications.
Dr. Magnus Jonsson's research group at Linköping University is part of the Laboratory of Organic Electronics, headed by Prof. Magnus Berggren. Before Linköping University, Magnus was a Wenner-Gren Fellow postdoc in Prof. Cees Dekker´s group at Delft University of Technology in the Netherlands. His PhD studies were performed in Prof. Fredrik Höök's group at Chalmers University of Technology in Gothenburg, Sweden. Since 2015, he is an elected member of the Young Academy of Sweden.
Join our lab!
We currently have openings for one postdoc and PhD student to join our research. Please see the full announcement at Nature Jobs.
Laboratory of Organic Electronics
Dep. of Science and Technology (ITN)
SE-601 74 Norrköping
updated 13/11 2015
Keywords: Nanoplasmonics, Nanoplasmonic Sensing, Localized Surface Plasmon Resonance, Nanofabrication, Nanoholes, Nanopores, Bioanalytical sensing, Artificial Cell Membranes, Surface-enhanced Raman scatterin, Structural changes, nanoplasmonic structural sensing