Multiscale analysisHierarchical soft materialsBioapplicationsMultifunctional properties
We are a rheology, field–matter interaction group.
Latest News
View allOur research featured on the MAX IV website
MAX IV features our Nature Physics study on how nanoparticles move in swirling flows. Experiments at the ForMAX beamline combine time-resolved X-ray scattering and polarized light imaging to connect nanoscale particle motion with macroscopic flow patterns.
Rheo-PLI-SAXS supports research on self-healing battery materials
A MAX IV feature on self-healing battery electrolytes draws on our group's Rheo-PLI-SAXS setup and analysis. Our contribution was the multiscale rheo-optical/scattering method; the study was led by collaborators.
RheoMAXESS theme boosts rheometry applications at MAX IV
The LINXS RheoMAXESS theme, led by Roland Kádár, supports users and grows rheometry applications at MAX IV, building on techniques developed within the artSI initiative.
Research Highlights
A selection of overarching topics currently in focus.
Novel synchrotron based experiments
We push the boundary on multiscale, multimodal and advanced environmental control experiments on soft matter systems.
Multiscale alignment
We developed a new method for nanostructure control using compact magnet arrays.
Mechano-bactericidal surfaces
We develop cutting edge (pun intended) antibacterial surfaces.
Augmented reality in the classroom
Live AR demonstrations for mechanical, materials, and synchrotron-science teaching.
