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

Light provides freedom to control each layer and improves precision and speed.
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.
From Trojan horses that help sneak therapeutics past the blood–brain barrier to advanced brain models built on microchips, we celebrate innovative science in breathtaking images.
Bacteria controlled by magnets could one day deliver medicine directly to the cells that need it.
AI and robotics meet fluidics to accelerate materials development, allowing researchers to create quantum dots in under an hour.
The global COVID-19 pandemic has changed the way in which we teach, but it doesn’t have to be all bad.
Scientists develop a simple method that mimics plant motion to get paper to fold itself after printing.
Multimodal thin-film transistors, or MMTs, could be pivotal in designing the next-generation of wearables and eco-disposable sensors.
Hybridizing biofabrication processes will lead us to superior “living” tissue and organ substitutes that can be used to treat patients in lieu of donor grafts and metal and plastic devices.
A simple alteration in the functionality of our clothing could surprisingly help lower energy consumption in buildings and homes.