Many a link-baiting slideshow and BuzzFeed post have been using animated GIFS, the moving images assembled from videos, sequences of photos or original animations.
But how did the initially cheesy, early computer and Internet age animation trick using a file format become the au courant method for obsessing over celebrities and being web-ready shorthand for expressing emotions? SXSW has the answer: According to the GIF artists and writers in “The Economy of the GIF,” you can blame your phone and microblogging platform Tumblr.
The GIF lineage goes something like this: they were first used in website banners and as quickie animations in those quaint AOL disc days of the Internet — and then Flash animation came along. Remember when websites resembled the futuristic, highly-interactive interfaces of science fiction films? With those slick drop-down menus and fancy moving ads? That was Flash.
Flash still exists, but with Apple and its iPhone (which famously does not support Flash-based animations or videos), web designers and animators and branding gurus had to rethink their media strategies. Suddenly, entire websites were rendered unreadable on phones and other mobile screens.
So as Flash fell out of fashion, simpler web designs prevailed and led to a GIF renaissance of sorts — because GIFs will still display on phones and tablets and other magic, mini computer devices. And it helps that social networking sites and phone web browsers have made using the Internet much more photo-centric (hence, Tumblr).
Plus, GIFs, says writer Lindsey Weber (who’s done some GIF work for BuzzFeed and New York magazine) are better representations of how we consume the Internet in 2013.
“[GIFs] span this space between photos and videos,” Weber says. “The GIF takes the best parts of a photo and the best parts of a video and puts them together. It’s just a better way to ingest that.”
And they’ve become so wildly popular, argues artist Jimmy Repeat (who’s GIFed for MTV in the past), they’ve become a new art form all in themselves.
“GIF is the new medium because it’s more of a challenge than a static image,” he says.
Perhaps their greatest claim to legitimacy is their looming legal precedent: Weber says GIF-related lawsuits and copyright cases are just around the bend — she’s come up against all kinds of rights issues with the GIFs she worked with.
But for now, there’s still plenty of GIF fun to be had. Just go on Tumblr and get lost for days.
From Thin Air
UT Austin engineers invent jacket that pulls drinkable water from air

Engineers at the University of Texas at Austin have developed a prototype jacket that harvests clean drinking water directly from the atmosphere, and it works even in the driest desert conditions.
The research, published in Science Advances, marks the latest milestone in nearly a decade of work by materials scientist and chair professor Guihua Yu and his team at the Cockrell School of Engineering's Walker Department of Mechanical Engineering and Texas Materials Institute. The wearable technology marks a significant leap: instead of a bulky, stationary machine, this jacket does the work.
"We have been working on atmospheric water harvesting technology for a number of years," Yu says. "This current version is even more wearable. We're transitioning from conventional, more stationary water harvesting to something truly portable and personal."
Yu's lab first published work on hydrogel-based water harvesting around 2019, and the jacket is the latest evolution of that platform, now called AirGel. Last year, the broader AirGel invention won the top prize in the graduate category of the National Collegiate Inventors Competition.
The jacket is woven with specially engineered hydrogel fibers; ultra-porous materials that attract and absorb moisture from the surrounding air much like a household desiccant (like silica gel) does. Unlike a desiccant, the material doesn't require intense heat to release that water. The hydrogel is thermally responsive, meaning a modest rise in temperature — even from mild solar heating — is enough to release the water it has captured.

So, somebody would be wearing the jacket, or perhaps carrying this gel-like textile as a blanket, as it passively absorbs moisture from the air. Then they would detach the textile panels and place them into a small, portable collector unit; essentially a compact heater. The water evaporates out of the textile, condenses inside the collector, and drips out as clean, drinkable water.
"It immediately becomes drinkable because it already goes through the distillation process," Yu explains.
In trials the jacket produced between 400 and 900 milliliters of water per day depending on humidity, or roughly 14-30 ounces, nearly a quart, depending on the air's humidity. With one kilogram of the textile, the researchers found they could generate approximately 3.7-4 liters of water in arid conditions, and potentially double that in humid ones. So far, the team has tried the jacket out in very dry, semi-dry, and humid areas, and the jacket was able to pull water from each climate.
Lead researcher Chuxin Lei, a postdoctoral researcher on Yu's team and co-author on the paper, says the goal was to rethink who this technology could serve.

"Many current [atmospheric water harvesting] systems are still built as rigid or stationary platforms, making them less suitable for people who are moving, working outdoors, or operating in some remote environment. This lead us to ask whether we could build a water harvesting system that could become more like clothing — light, wearable, flexible, and naturally suited for personal use," Lei says.
The potential applications are wide-ranging. Yu's team has previously worked with the Department of Defense on water solutions for soldiers, where water logistics can be dangerous and costly. The technology could also serve hikers, emergency responders, disaster relief workers, and agricultural and field workers. Anyone who needs clean water on the go and far from infrastructure.
The team also sees a potential future where the technology complements large-scale centralized water systems rather than replacing them.
"Our solution cannot be a universal solution for all," Yu acknowledges. "But I think it's an extremely important alternative."
For now, the jacket is still a laboratory prototype, but Yu and Lei are optimistic. With the right industry partnerships, they say, the technology could realistically reach commercial scale within three to five years.