Its technologies and fonts have been widely deployed across, and embedded in, a range of consumer electronic, CE devices, including laser printers, digital copiers, mobile phones, e-book readers, tablets, automotive displays, digital cameras, navigation devices, digital televisions, set-top boxes and consumer appliances, as well as in numerous software applications and operating systems.
Yu studies the interaction between light and structured active materials at the nanometer scale and builds novel devices including lasers, detectors, and active components for controlling light.
Such devices include laser microscopes, which are used to capture high-resolution images of cells, or optical data storage, where a more accurate and smaller lens could help squeeze more information into ever less space.
Such devices include laser microscopes, which are used to capture high-resolution images of cells, and optical data-storage systems, where a more accurate and smaller lens could help squeeze more information into less space.
The complete automation of the device including laser focusing allows the greatest resolution possible from experiment to experiment and reduces error due to user interactions.
Many devices, including motors, laser printers and incandescent bulbs, draw a large amount of power when they turn on, but less once they are running, explains Shaw.
Recently, a variety of novel devices including nanoscale lasers, electrochemical gated quantum dot transistors have been investigated.
These devices could include laser printers, inkjet printers, and electrostatic copiers.
A variety of different technological solutions have been introduced, including laser printer sized benchtop devices like 454 GS Junior (Roche, Basel, Switzerland), MiSeq (Illumina, San Diego, CA, USA), and Ion Torrent PGM (Life Technologies, Grand Island, NY, USA).
Furthermore, designs utilized diverse materials and technologies including laser cut acrylic, sewn fabrics, repurposed toy parts, sensors, speaker devices, and other electronic components.
Our demonstration suggests a powerful design for the electrically pumped III-N MC with excitonic gain which could be applied to low threshold MC laser devices including VCSELs and polariton lasers.
