Physicists harness quantum “time reversal” to measure vibrating atoms
A new technique could improve the precision of atomic clocks and of quantum sensors for detecting dark matter or gravitational waves.
A new technique could improve the precision of atomic clocks and of quantum sensors for detecting dark matter or gravitational waves.
Inspired by fireflies, researchers create insect-scale robots that can emit light when they fly, which enables motion tracking and communication.
The new design is stackable and reconfigurable, for swapping out and building on existing sensors and neural network processors.
The image reveals a glowing, donut-shaped ring at the Milky Way’s heart.
The system is orbited by third stellar companion and may have originated near the center of the Milky Way.
The discovery could help researchers engineer exotic electrical states such as unconventional superconductivity.
Improvements in the material that converts X-rays into light, for medical or industrial images, could allow a tenfold signal enhancement.
With many devices depending on the motion of ions, light could be used as a switch to turn ion motion on and off.
The discovery could offer a route to smaller, faster electronic devices.
The new observations record a key crossover from classical to quantum behavior.
A new study confirms that as atoms are chilled and squeezed to extremes, their ability to scatter light is suppressed.
SMART researchers demonstrate a practical way to make indium gallium nitride LEDs with considerably higher indium concentration.
Professor Nicholas Fang’s startup Boston Micro Fabrication uses a novel light-focusing method to make ultraprecise printers.
SMART findings allow a new way to control light emitting from materials.
Design of miniature optical systems could lead to future cell phones that can detect viruses and more.