Self-organization is a growing interdisciplinary field of research about a phenomenon that can be observed in the Universe, in nature and in social contexts. Researchers seek explanations by using both experimental, often computer-based approaches and empirical, observational approaches. Mechanisms of self-organization are beginning to be identified and the theoretical foundation is under development. Research on self-organization tries to describe and explain forms, complex patterns and behaviours that arise without an outside organizer. They arise under complex conditions away from equilibrium, on the edge of chaos. One common characteristic of the mechanisms that trigger and create self-organization are the use of simple rules for the emergence of complex processes.
A large part of the discussion during the symposium dealt with theories and methods in research on self-organization. Both experiments and empirical research are needed, but perhaps above all the development of a platform of knowledge from which it is possible to deal with the complexity that is also the precondition for self-organization. Reductionist approaches were deemed insufficient and a closer association between physics and biology was identified as a future strategy, since both these disciplines study relationships and characteristics in dynamic systems.
This is a summary of the June issue of Philosophical Transactions A. The 18 papers in this issue can be found on FirstCite, the Societys rapid online publication service at
Tim Watson | alfa
Cherned up to the maximum
10.07.2020 | Max-Planck-Institut für Chemische Physik fester Stoffe
Porous graphene ribbons doped with nitrogen for electronics and quantum computing
09.07.2020 | University of Basel
New insight into the spin behavior in an exotic state of matter puts us closer to next-generation spintronic devices
Aside from the deep understanding of the natural world that quantum physics theory offers, scientists worldwide are working tirelessly to bring forth a...
Kiel physics team observed extremely fast electronic changes in real time in a special material class
In physics, they are currently the subject of intensive research; in electronics, they could enable completely new functions. So-called topological materials...
Solar cells based on perovskite compounds could soon make electricity generation from sunlight even more efficient and cheaper. The laboratory efficiency of these perovskite solar cells already exceeds that of the well-known silicon solar cells. An international team led by Stefan Weber from the Max Planck Institute for Polymer Research (MPI-P) in Mainz has found microscopic structures in perovskite crystals that can guide the charge transport in the solar cell. Clever alignment of these "electron highways" could make perovskite solar cells even more powerful.
Solar cells convert sunlight into electricity. During this process, the electrons of the material inside the cell absorb the energy of the light....
Empa researchers have succeeded in applying aerogels to microelectronics: Aerogels based on cellulose nanofibers can effectively shield electromagnetic radiation over a wide frequency range – and they are unrivalled in terms of weight.
Electric motors and electronic devices generate electromagnetic fields that sometimes have to be shielded in order not to affect neighboring electronic...
A promising operating mode for the plasma of a future power plant has been developed at the ASDEX Upgrade fusion device at Max Planck Institute for Plasma...
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