Summary: Researchers unveiled a novel approach to combat Alzheimerâs disease by activating microglia, the brainâs immune cells, to devour amyloid beta plaques, a hallmark of the condition. This study highlights the potential of using immunotherapy to not only tackle Alzheimerâs but also other neurodegenerative diseases characterized by harmful protein accumulations.
The teamâs method involves using an antibody to stimulate microglia into clearing these plaques, offering a promising alternative to current treatments that directly target amyloid beta and might cause side effects like ARIA. This breakthrough paves the way for new therapeutic strategies that harness the immune system to fight the devastating effects of Alzheimerâs and possibly other diseases like Parkinsonâs and ALS.
This post is also available in: 
ŚąŚŚšŚŚȘ (Hebrew)
Analyzing and storing large amounts of data requires a lot of energy, so the future of technology might hold a different approach to data storage. At least, that is what Professor SĂžren Brunak from the University of Copenhagen thinks.
Brunak states that while Denmark is one of the best in the world at health data, analyzing and storing huge amounts of health data comes at a climate cost. âWe have begun to consider the carbon footprint of bioinformatics and CO2 emissions resulting from data analysis,â he adds.
One of the most fundamental interactions in physics is that of electrons and light. In an experiment at Goethe University Frankfurt, scientists have now managed to observe what is known as the Kapitza-Dirac effect for the first time in full temporal resolution. This effect was first postulated more than 90 years ago, but only now are its finest details coming to light.
By Harvard John A. Paulson School of Engineering and Applied Sciences
Researchers from the Harvard John A. Paulson School of Engineering and Applied Sciences (SEAS) have developed a programmable metafluid with tunable springiness, optical properties, viscosity and even the ability to transition between a Newtonian and non-Newtonian fluid.
Self-assembled semiconductor quantum dots (QDs) represent a three-dimensional confined nanostructure with discrete energy levels, which are similar to atoms. They are capable of producing highly efficient and indistinguishable single photons on demand and are important for exploring fundamental quantum physics and various applications in quantum information technologies. Leveraging traditional semiconductor processes, this material system also offers a natural integration-compatible and scalable platform.