Capturing Molecular Motion with Relativistic Electrons
The world’s fastest images of nitrogen molecules rotating in a gas were captured using electron diffraction.
The world’s fastest images of nitrogen molecules rotating in a gas were captured using electron diffraction.
Newly discovered particles behave as powerful magnets that, one day, could change data storage.
A new approach to investigating green fluorescent protein provides a vital tool for unraveling molecular-level details of processes important in biology and light harvesting for energy use.
Molecular movements triggered by light redirect the flow of energy through photosynthetic cells to protect them from sun damage.
Reactions with this extremely rare element could reveal previously unknown trends, benefiting studies of new nuclear reactor fuels.
A novel technique allows new insight into the barriers to fuel evolution.
Elucidating Cerium Solution Chemistry
Study changes perception on how acids behave in water.
Researchers computationally design a cheap, efficient catalyst that captures carbon dioxide and creates a chemical building block.
First-of-its-kind measurements provide insights on reactions that could one day turn sunlight and water into fuels.
Direct measurement of an elusive but critical combustion molecule leads to more accurate models of ignition chemistry.
Surface plasmons move at nearly the speed of light and travel farther than expected, possibly leading to faster electronic circuits.