The publication provides an overview of advances in acoustic waves in solids, with a focus on their potential to manipulate physical processes in solid-state systems. Key findings include the increasing application of SAWs in quantum technologies, optomechanics, and advanced signal processing.
Scientists have successfully controlled heat transport in molecules by replacing a single atom with heavier halogen atoms, significantly reducing thermal conductance. This breakthrough opens up the possibility of independent control over thermal and electric current in molecular materials.
A Japanese-German research consortium is developing invisible magnets that can manipulate antiferromagnets ultrafast using intense light pulses. This approach has the potential to increase processing speed by a factor of 1,000, revolutionizing optical communication and information technology.
Augsburg researchers identify reticulated platelets as key players in blood clot formation, providing promising therapeutic approaches. The study's findings could lead to personalized platelet inhibition and tailored therapies.
A meta-analysis of over 1.5 million patients reveals associations between autoimmune diseases like coeliac disease and increased risks of stomach, bowel, pancreatic, oesophageal, and rectal cancers.
Exotic waves with tangible effects, known as Rayleigh–Bloch waves, have been found to transform into phantom-like entities above a certain cut-off frequency. At lower frequencies, these waves exhibit characteristic behavior around stainless steel struts, making them ideal for antenna design and potential communication purposes.
Scientists at the University of Augsburg have found that macrophages, also known as scavenger cells, form in the vitreous body of the mouse eye during embryonic development. This new understanding could lead to therapies for diseases like diabetic retinopathy and prenatal vessel defects.