Imagine a world where robots creep up on you: Electric motors just a gentle whir, hard shells changing color to blend in with their surroundings. Well, there’s no need to imagine—it’s happened.
Human wetware is astonishingly good at pattern recognition and interpreting complex, noisy data, but it’s also painfully buggy. Mars is the red planet, except it really isn’t.
If you need a little more color in your luggage selection, one of the Pantone bags from Redland London could be just the trick. Don’t worry: they come in more than just the primary colors.
Good low-light photography is one of the toughest nuts to crack: to get good pictures in the dark normally requires some combination of fast lenses and big, expensive sensors. But tweaking one filter that lives inside the camera could help big time.
When Lego first burst on to the toy scene, its bricks came in a very limited selection of colors; now, there’s an overwhelming range of choice. This chart shows how the available palette has changed over the years.
Your computer knows more colors than you do. In fact, representing them in 24-bit RGB, it knows an amazing 16,777,216 different hues — and this video shows each one exactly once.
Now you see it, now you don’t. But the disappearing act performed by this small sea sapphire isn’t magic: it manage to flex its body to reflect frequencies of light that the human eye simply can’t see.
Do not adjust your monitor. This seaweed is deep red—but happens to appear a bright shimmering blue on a sunny day because of a quirk in its surface properties.
The world around you is a rainbow, if only you stop and notice it. This video is a charming celebration of color in our everyday lives—and a bewilderingly pleasant way to spend two minutes. [Vimeo]
What color are the thousands of USPS mailboxes in your city? What about the millions of stop signs in the US? They’re all the same, but not by chance. In fact, figuring out those colors has been a 70-year process.
It’s hard to imagine what the world was like during World War II. Of course, we’ve read it all in history books and and we’ve seen movies and TV shows showing what life was like, but it’s just far enough back in time and just painful and shocking enough that it’s hard to fully understand how life worked back then.
Man of Steel was mostly fine but one huge problem with the movie was that it was just too dark. It embarrassingly cribbed its visual style off of Nolan’s Batman trilogy and that dark tone just doesn’t match up well with Superman. Visual Lab decided to restore the color in the film and it looks so much better.
It’s well-known that our body responds to light and dark to help set its circadian rhythms. But new research suggests that our bodies may also respond to color in order to keep internal time.
Tim Bavington—an artist based in Las Vegas, Nevada—is not the first artist who tries to paint music but he might be the most precise at it. He came up with a color-coded chord wheel that helps him translate notes into colors so he can make paintings that are exact visualizations of his favorite songs.
Next week is St. Patrick's Day, which means the celebrations will be in full swing by the weekend. For this week's Shooting Challenge, let's embrace the most iconic part of the holiday: the green.
The changing color of a chameleon's body is an impressive sight—but how it happens has long been a significant scientific question without a compelling answer. Now, researchers have identified a thin layer of deformable nanocyrstals in their skin which gives rise to the phenomenon.
Never before in human history has it been so easy to share, like, pin, reblog, images. That's, like, totally awesome for teenage girls showing off their prom dresses but also a pretty huge boon for scientists studying what makes images shareable. And it could be something as simple as color.
What do a butterfly's shimmering wings, a fish's opalescent scales, and a peacock's brilliant feathers have in common? Yes, their colors are beautifully iridescent. But they are also produced by the physical interaction of light with sophisticated nanoscale architecture that we are only just beginning to understand.
When you look at pictures of individual snowflakes, the snowflakes are clear. So why is snow white and not clear?