But are these optics free range? And what about added sugar? Spotted at
Photonics West 2015, at the OPCO Laboratory booth.
Botober 2024
Sep 30, 2024
Janelle Shane
Total 838 Posts
But are these optics free range? And what about added sugar? Spotted at
Photonics West 2015, at the OPCO Laboratory booth.
This is the nanolaser equivalent of being smacked in the face with a slab of
corrugated roofing during a tornado. There’s one step in making microscopic
lasers where you have to peel away metal from much of the substrate, leaving
behind pillar-shaped lasers surrounded by small metallic patches. These
This is the nanolaser equivalent of being smacked in the face with a slab of
corrugated roofing during a tornado. There’s one step in making microscopic
lasers where you have to peel away metal from much of the substrate, leaving
behind pillar-shaped lasers surrounded by small metallic patches. These
I finished my PhD! (!!!) Thanks so much to all of you for following so far, and
giving me a use for the interesting images that wouldn’t necessarily make it to
publication. I’m glad I’m not the only one amused by strange-looking dust
[http://lewisandquark.tumblr.com/post/
I finished my PhD! (!!!) Thanks so much to all of you for following so far, and
giving me a use for the interesting images that wouldn’t necessarily make it to
publication. I’m glad I’m not the only one amused by strange-looking dust
[http://lewisandquark.tumblr.com/post/
On the right: a photonic nanostructure, used in researching new light-based ways
to make computers communicate faster.
On the left: a single human hair (oops).
Fortunately, according to Dr. Felipe Vallini of UCSD (who made and imaged this
structure): “A hair hit my device, but he is still fine!”
On the right: a photonic nanostructure, used in researching new light-based ways
to make computers communicate faster.
On the left: a single human hair (oops).
Fortunately, according to Dr. Felipe Vallini of UCSD (who made and imaged this
structure): “A hair hit my device, but he is still fine!”
This fractal pattern is actually a guide to shaping laser pulses.
Each pixel in this image represents one possible laser pulse shape (the arrival
time of the frequencies in a broadband laser pulse). The pixel’s color indicates
how good that particular pulse shape should be at controlling a particular
This fractal pattern is actually a guide to shaping laser pulses.
Each pixel in this image represents one possible laser pulse shape (the arrival
time of the frequencies in a broadband laser pulse). The pixel’s color
indicates how good that particular pulse shape should be at controlling a
particular
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