Projekt | Name | Titel |
A1 | Donald Guu | Melting liquid and crystalline droplets in rod-sphere dispersions by shear flow |
A2 | Jörg Stellbrink | Relating flow and structure of soft colloids |
A4 | Roland Winkler | Structure, dynamics, and rheology of ultrasoft colloids under shear flow |
A5 | Pinaki Chaudhuri | Micro- and macro-rheology of glass-forming systems |
A6 | Christian Amman, Kevin Mutch | Stress overshoots and rheology of concentrated hard sphere suspensions |
A7 | Christian Harrer | Active and nonlinear microrheology |
B1 | Thomas Palberg | Self organized motion in intrinsic electric fields |
B2 | Gerhard Nägele | A unifying mode-coupling theory for transport properties of charge-stabilized colloids and electrolyte solutions |
B4 | Vitaly Starchenko | Electrokinetics of a single colloidal sphere - the dynamic mean field approach |
B7 | Periklis Papadopoulos | Electrokinetics on superhydrophobic surfaces |
B8 | Arnout Imhof | Structure and dynamics of rod suspensions in electric fields and confinement |
B9 | Jiajia Zhou | Computer simulations of nonometer-size colloids in alternating electric fields |
C1 | Christian Kreuter | Colloidal particles in confined geometry: transport in lanes and over barriers |
C2 | Peter Keim | Phase transition in 2d far from equilibrium |
C3 | Tobias Kruppa | Random pinning disorder in a 2d colloidal system |
| Urs Zimmermann | Transport of interacting colloids in microchannels with obstacles |
C4 | Ullrich Siems | Simulation of colloidal particles in channel geometry |
C7 | Florian Evers | Particle dynamics in potential energy optically-generated landscapes |
D1 | H.-J. Schöpe | Highly charged colloidal crystals in confinement |
D3 | Andreas Kaiser | Trapping rod-like microswimmers |
| Borge ten Hagen | Modeling and realization of asymmetric microswimmers in two dimensions |
D5 | Kurt Binder | Percolation versus phase separation in mixtures of anisotropic and spherical colloids |
D6 | Anke Leferink op Reinink | Engineering Lyotropic Crystal Phases |
N1 | Johannes Bleibel | Capillarity-driven colloidal dynamics at fluid interfaces |
| | |
| Prof. Dr. David J.Norris (ETH Zürich) | How does colloidal convective assembly work? |
| Prof. Dr. Kristiaan Neyts (University of Gent) | Charged inverse micelles and particles in non-polar liquids |
| Prof. Dr. Eric Furst (University of Delaware) | Directing the path of colloidal assembly for functional nanomaterials |
| Prof. Dr. Sabine Klapp (TU Berlin) | Self-assembly and self-organization of dipolar colloids |
| Prof. Dr. Klaus Mecke (Universität Erlangen) | Density functional theory for non-spherical hard particles |