Chemical reactions drive life. They ensure that cells obtain energy, proteins perform their functions, and DNA changes under certain conditions. However, many of these processes occur on extremely small scales—so small and so fast that they are difficult to observe directly through experiments.

Researchers have identified a promising new strategy to treat autoimmune diseases by targeting a specific molecular interaction within immune cells.

A new electrochemical method can turn strained rings into versatile platforms for carrying out multiple precise transformations in a single sequence. Chemists have long prized strained rings as spring-loaded starting points for building complexity.

Simulating how atoms and molecules move over time is a central challenge in computational chemistry and materials science. Classical machine learning approaches to molecular dynamics (MD) encode fundamental physical principles directly into their model architectures,

According to reports from April 21, 2026, the findings stem from a complex wet chemistry experiment conducted in the Glen Torridon region of