Light provides freedom to control each layer and improves precision and speed.

Light provides freedom to control each layer and improves precision and speed.
An intelligent material that learns by physically changing itself, similar to how the human brain works, could be the foundation of a completely new generation of computers.
Thanks to ultra-thin sensors and artificial muscles, future flexible microelectronics will be able to take on complex shapes to better interface with delicate biological tissues without causing damage.
Building inclusive education systems will be key to ensuring no one is left behind and that advances in AI and robotics benefit everyone in society.
A new machine learning strategy searches for desirable materials properties rather than building blocks, which researchers hope will lead to better materials to help spark a green economy.
Study shows improvements to chemical sensing chip that aims to quickly and accurately identify drugs and other trace chemicals.
The Achilles heel of supercapacitors as energy storage devices, is gradually being overcome.
A new model helped researchers create a “nanotube color atlas”, which they use to predict the specific colors of 466 different single‐wall carbon nanotubes, revealing a broad spectrum of potentially achievable colors.
Bacteria controlled by magnets could one day deliver medicine directly to the cells that need it.
The process of detecting gamma rays causes serious damage to those detectors. Researchers have developed a large, self-healing crystal that might help to solve this problem.