How cells find the right partners

During the growth and development of living organisms, different types of cells must come into contact with each other in order to form tissues and organs together. A small team working with Prof. Dr. Anne Classen of the ...

Quantum dots form ordered material

Quantum dots are clusters of some 1,000 atoms which act as one large "super-atom." It is possible to accurately design the electronic properties of these dots just by changing their size. However, to create functional devices, ...

Researchers create flow-driven rotors at the nanoscale

Researchers from TU Delft have constructed the smallest flow-driven motors in the world. Inspired by iconic Dutch windmills and biological motor proteins, they created a self-configuring, flow-driven rotor from DNA that converts ...

Revealing physical mechanisms behind the movement of microswimmers

Bacteria and other unicellular organisms developed sophisticated ways to actively navigate their way, despite being comparably simple structures. To reveal these mechanisms, researchers from the Max Planck Institute for Dynamics ...

Evolutionary model predicts partitioning of molecules within cells

,Researchers from the Max Planck Institute for Dynamics and Self-Organization (MPI-DS) in Göttingen, Germany, and Delft University of Technology, the Netherlands, have developed a new theoretical method to study mixtures ...

Topological synchronization of chaotic systems

Can we find order in chaos? Physicists have shown, for the first time that chaotic systems can synchronize due to stable structures that emerge from chaotic activity. These structures are known as fractals, shapes with patterns ...

Simulating the attraction of zwitterionic 'Janus Particles'

Researchers from The Research Center for Advanced Science and Technology and The Institute of Industrial Science at The University of Tokyo used a new computer simulation to model the electrostatic self-organization of zwitterionic ...

With a little help, new optical material assembles itself

A research team led by Lawrence Berkeley National Laboratory (Berkeley Lab) has demonstrated tiny concentric nanocircles that self-assemble into an optical material with precision and efficiency.

Self-organization of complex structures

Ludwig Maximilian University of Munich researchers have developed a new strategy for manufacturing nanoscale structures in a time- and resource-efficient manner.

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