Just as an antenna interacts with radio waves, light interacts with metallic nanostructures. Therefore, understanding how a structure influences field oscillations provides valuable insights into the structure’s physical properties. An international research team, including scientists from the Max Planck Institute for the Science of Light (MPL), is investigating the changes in field oscillations that occur when light interacts with indium tin oxide (ITO) nanocrystals. This will deepen our understanding of how the interaction between light and these nanocrystals depends on time.

Prof. Long Zhang’s group successfully developed a rapid annealing strategy for synthesizing metal–organic framework (MOF) derivatives, which offers significant advantages in terms of time efficiency and energy consumption compared to conventional pyrolysis methods.

Graphene, as a typical two-dimensional material, has demonstrated transformative application potential in fields such as electronic devices, energy storage, and catalysis due to its outstanding carrier mobility, mechanical strength, and excellent thermal conductivity.

MXenes are gaining attention in nanomedicine, with Nb₂CT_x standing out as a particularly promising, non-toxic, and biocompatible candidate. Despite its potential for clinical applications, Nb₂CT_x requires surface stabilization to prevent oxidation and improve stability.

The carbonation of K₂CO₃ to KHCO₃ is an interesting CO₂ capture process due to its low material cost, high selectivity, and substantial CO₂ capacity. In this study, KHCO₃ particles were packed in a dielectric barrier discharge reactor and exposed to plasma. It was found that the decomposition of KHCO₃ is mainly driven by a thermal mechanism. The energy consumption is more than one order of magnitude higher compared to the thermal approach. However, production of CO and H₂ was achieved, with the best CO₂ conversion of 9.0% ± 0.2% and energy efficiency of 3.0% ± 0.1% at a syngas ratio of 0.35 ± 0.01.

Researchers at the University of Missouri have discovered certain proteins may be the key to saving plants’ lives when multiple stressors hit at the same time. This knowledge may one day lead to crops that are more resistant to harsh conditions brought on by multiple stressors during the same growing seasons.

In a recent study, Mizzou scientists found that Arabidopsis thaliana, a plant that serves as a popular model organism for biology research, needs a specific protein to protect itself when exposed to simultaneous stress from excessive heat, sunlight and salty soil. The findings pave the way for scientists to better understand the underlying cellular biology that allows plants to survive even when hit by multiple stressors.