NEWSROOM

The new device involves a tiny silicon beam that vibrates at 5 gigahertz and couples to a microwave resonator—essentially a nanoscale box in which photons bounce around, also at 5 GHz. Using a technique called electrostatic actuation, developed previously by the Mirhosseini lab for quantum applications, a microwave photon gets converted within that box to a mechanical vibration of the beam, and that mechanical oscillation, with the help of laser light, gets converted by the r

"We've demonstrated that not only can we create 3D structures from DNA, but integrate them into microchips as part of the workflow of how...

Plasmonic modulators are tiny components that convert electrical signals into optical signals in order to transport them through optical...

In a demonstration that unlocks exciting possibilities for solar cells and light-emitting diodes (LEDs) based on materials known as perovski

An alloy of several metals has been developed that shows practically no thermal expansion over an extremely large temperature interval.

Researchers unveil a groundbreaking device that integrates light emission and color control using clay compounds