The JEDI Billion Molecules against Covid-19 Grand Challenge was launched at the beginning May. The call for submissions is open until June 6.
Using supercomputing and AI, participating teams will screen enormous molecular libraries against the virus's protein targets. Results will be cross-correlated to determine a “high potential” list of unprecedented quality, allowing a fast track to clinical testing.
Congratulations to the Rationality Enhancement Group on two abstracts being accepted for the first round of submissions for the ClearerThinking.org micro grants!
Scientists at the Max Planck Institute for Intelligent Systems in Stuttgart aim to understand the underlying process of self-assembly. Their findings not only provide valuable insights into fundamental physics, but could enable the design of functional materials or self-assembled miniature robots.
An interdisciplinary team of scientists from Stuttgart, Heidelberg, and London developed miniature magnetic nanopropellers that can deliver genetic material to cells. They used a magnetic material that outperforms the strongest known micromagnets, yet is chemically stable, non-toxic and biologically compatible. Such new nanopropellers hold great potential for biomedical applications and minimally invasive surgeries of the future.
Sebastian Weichwald is part of the winning team of a competition that tried to tackle the climate change challenges from a data and causal structure learning perspective
Researchers at the Max Planck Institute for Intelligent Systems have discovered a new mechanism of self-organization of active matter. When photochemically active nanoparticles are enclosed at high density within a drop and are exposed to UV light, a self-organized flow pattern emerges by spontaneous symmetry breaking. Furthermore, each drop communicates with neighbouring drops by exchanging chemicals, and coordination of their internal flows occurs – even when far apart.
For the first time, an international team of researchers succeeded in demonstrating the previously unknown structure of magnetic skyrmion tubes in 3D. This knowledge makes it possible to better understand the formation and destruction of skyrmions and to use the magnetic structures in so-called spintronic storage devices.