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Scientists have used a scanning tunnelling microscope (STM) to control the behavior of atoms in chemical reactions.

Researchers have built custom-designed and programmable nanostructures using DNA origami technology, which folds DNA into precise shapes.

A simple device that could store medical and other data

'Flash Joule’ technique efficiently turns would-be pollution into valuable nanomaterials

Cambridge researchers power insulating nanoparticles with molecular antennas, creating ultra‑pure near‑infrared LEDs for deep‑tissue imaging, communications and advanced sensors.

Scientists have developed a fast, room-temperature method to rearrange thousands of atoms deep within crystals, opening the way for custom quantum materials that work outside the lab.

Flexible printed devices produce realistic signals that activate real neurons and point toward efficient brain-inspired computing.

This new approach uses tiny particles to train the body's defenses against tumors, achieving high survival rates and blocking cancer spread in animal tests.

This innovation combines atomic force microscopy and microlens technology to provide precise control and visual guidance at tiny scales, improving accuracy and efficiency for applications in science and manufacturing.