10 Human Functions We’ve Already Handed Over To The Machines

One idea behind a “cyborg life” is that we look to machines to take on critical, physical roles. These 10 machines illustrate how we have already begun passing the torch on tasks we are getting to lazy to do ourselves.

Remember handwriting? We have all but abandoned it, but the torch is being taken up by robots like Kuka, who has been put to work writing out copies of the Martin Luther bible. [BotJunkie]
Developed by Aberystwyth University and the University of Cambridge, Adam the robot was the first machine to independently discover new knowledge.

Using artificial intelligence, Adam hypothesized that certain genes in baker’s yeast code for specific enzymes which catalyse biochemical reactions in yeast. The robot then devised experiments to test these predictions, ran the experiments using laboratory robotics, interpreted the results and repeated the cycle.

The results of the experiment were later replicated and confirmed by a team of human scientists. So, it appears that computers are not only doing our calculations, but they have begun thinking for us as well. [Scientific Blogging and Link]
Are you lactose intolerant? Do you have frequent heartburn or constipation? Perhaps one day your defective digestion system could be replaced with a more advanced version of the Cloaca machine. This thing simulates actual human digestion and, in the end, produces a turd you would be proud of. [Cloaca via Link]
Dishwashers have been around for decades, but we still have to physically put the dishes into the machine. This is completely unacceptable. Panasonic’s robot takes care of the entire cleaning process from start to finish. [Link]
Seriously, what don’t smartphones do for us these days? At the most basic level, these phones are how we communicate, how we entertain ourselves and how we gather information. Thanks to apps, smartphones are taking on even greater roles—like helping us keep our girlfriends happy without actually having to do any work. Girlfriend Keeper sends automatic texts and emails to your significant other depending on the intensity of your relationship. [Girlfriend Keeper]
If you are tired of your co-workers being promoted over you, just wait until a robot becomes your new boss. JAST or the “Teamworkbot” has the ability to observe and mimic human behavior. As you will see in this video, JAST already knows how to complete the task, so it observes the human’s actions, anticipates his next move and dresses him down when he gets it wrong. [Link]
I’m pretty sure that allowing robots to take a critical role in surgery qualifies as crossing a Rubicon with respect to our level of trust in machines. The Da VInci robot enables a surgeon sitting at a console to control movements and equiptment with greater precision—resulting in a procedure that is minimally invasive. [Wikipedia]
It’s only a matter of time before technology becomes advanced enough to allow lazy parents to turn over the duties of child-rearing to robots. In fact, it’s already happening in Japan where robots like Tmsuk babysit kids in shopping malls thanks to RFID badges. They even have robot teachers like Saya that terrify elementary schoolchildren into doing their work.
The Affective Intelligent Driving Agent (AIDA) was developed by MIT to help drivers navigate, bitch about their driving when necessary, and keep them company on long trips.

“When it merges knowledge about the city with an understanding of the driver’s priorities and needs, AIDA can make important inferences,” explains Assaf Biderman, associate director of the SENSEable City Lab. “Within a week AIDA will have figured out your home and work location. Soon afterwards the system will be able to direct you to your preferred grocery store, suggesting a route that avoids a street fair-induced traffic jam. On the way AIDA might recommend a stop to fill up your tank, upon noticing that you are getting low on gas,” says Biderman. “AIDA can also give you feedback on your driving, helping you achieve more energy efficiency and safer behavior.”

[MIT via Link]
While the AIDA robot helps you navigate, there are plenty of engineers working on cars that do all of the driving for you. Chevy’s “Boss” Tahoe is one of the higher profile projects that have come out in recent years, winning the DARPA Urban Challenge in 2007 after successfully navigating a 60-mile course littered with obstacles. [Link]

Me and My Exoskeleton: The Trick to Super Strength

When I first see the Human Universal Load Carrier (HULC), it is hanging limply from the ceiling by a strap attached to its neck, dangling over a treadmill. I can’t wait to try it on.

It has got two spindly black legs attached to a backpack with long rectangular batteries on the shoulder blades and an armored computer in the small of its back. Amusingly, it has radiator fins instead of buttocks. The whole machine looks sort of like a human skeleton, because the legs and hips have joints that mimic the movement of human limbs.

In fact, when you strap your legs into its legs, you can walk, run, kneel, squat, dance, or whatever—the exoskeleton has a range of motion equal to that of a human being. You move, and it moves with you. But once on, it allows a regular geek to haul a 200-lb. backpack as if it weighed as much as a couple of physics textbooks.

Now we’re talking.

Let me explain how I got here. In late 2007, a production company called me and asked if I’d like to host The Works, a show for the History Channel. My job, they said, would be to “explain, uh, how things work.” During my cable TV stint, I raced lawn mowers in Florida, was shot at with a rifle while inside an armored car in Texas, and—best of all—I piloted an honest-to-God lower-body exoskeleton with the researchers at Berkeley Bionics in California.

And so, on an otherwise perfectly normal summer day, I dropped by a nondescript brick building where a group of former graduate students from the University of California at Berkeley were busy making last-minute tweaks to a dead-black titanium exoskeleton, and they invite me to try it on.

My first impression: The straps are too big. The HULC was built with military money and it is designed to fit army guys. And soldiers have big thighs, apparently. I yank the Velcro straps as tight as possible, then strap my shoes into its open-toed boots. I shrug on the backpack and clasp the chest strap. I am now wearing an exoskeleton. Turned off, the device is heavy; it’s like wearing a scuba tank on dry land. But once the researchers switch it on, HULC stands up on its own—with me inside.

At this point, I’m still hanging from the ceiling, so I can’t fall down. I can’t feel any extra weight because the exoskeleton frame supports itself (about 30 lbs), as well as any attached backpacks. We turn on the treadmill and I cautiously bend my knee. Nothing happens. A half-second later, force sensors detect my leg pushing against the exoskeleton and the machine jerkily bends its knee. The delay is disconcerting; I can barely walk.

A couple minutes later, the treadmill is rolling and I’m humping along like Forrest Gump in his special shoes. Like a video game that breaks the human face down into just a few polygons, my new exo-walk consists of just a few gross movements. Knee lift, foot out, foot down. Repeat. It lacks the fluidity of my normal walk, but I don’t fall. And oh yeah, every movement is accompanied by the loud whine of electric motors. Each step sounds like reeee (that’s the motor) followed by ker-thump, as my foot touches down.

Reeee-ker-thump. Reeee-ker-thump. “Drop the gun,” I say. “You are under arrest.” (Yes, that’s a Robocop joke, and it is hilariously funny.)

After the practice run, it’s time to hit the hallway. I immediately notice that my gait is becoming more fluid. I can even balance on one leg. This is because the machine is learning to anticipate my every move. The HULC is no dumb brute. It is constantly sensing the force of my movements and forming a model of how I walk. It’s getting to know me, exoskeleton-style.

The HULC is a finished product, along with a slew of other exoskeletons, such as the full-body Sarcos and the medically oriented Hal-5. But make no mistake, scientists have been trying to build robotically augmented limbs since well before Sigourney Weaver used a power lifter to kick alien butt.

Designs for wearable mechanical skeletons have been evolving since the 1960s, when General Electric foresaw using the Hardiman for heavy loading in factories. Sadly, the original designs were infeasibly power-hungry, requiring heavy batteries that pulverized the payload-to-system weight ratio. Even worse, the old designs didn’t degrade gracefully, which is a nice way of saying that when the power failed, they would fall to the ground and rip your limbs off. Ouch.

But today, exoskeletons have become a reality and, according to the researchers, they don’t suffer from the limb-ripping drawbacks of yesteryear.

Once my gait cycles a few times, HULC has formed a complete model. A researcher informs me that from this point onward, the exoskeleton can cycle through my walk all by itself. Yes, by itself. This means that I could fall asleep and it would keep walking, dragging my legs through the motions. Suddenly, I imagine a platoon of snoozing soldiers fast marching non-stop through dark jungles at an average speed of 7 mph, a fast jog.

That’s creepy. Plus, I’m sweaty and exhausted; it’s time to take off the exoskeleton.

A couple yanks on the Velcro straps and I’m out. But my legs feel dead, like I just spent an hour jumping on a trampoline. My helpful researcher lets me know that the goal of the exoskeleton is to minimize metabolic cost. Using your muscles costs oxygen, and the brain is stingy—it uses just enough oxygen to get the job done. Once your brain figures out that it needs less oxygen to move (thanks to the exoskeleton), it sends less oxygen. Without the exoskeleton, my brain isn’t giving me enough juice to use my limbs normally, hence the weak legs. Luckily, it only takes a few minutes to go back to normal. Thank you, brain.

Despite the amazingness of it all, I have to say it felt clumsy and weird to lock my limbs into the machine’s cold, robotic embrace. You won’t catch me walking down any staircases in an exoskeleton. At least, not without a lot more practice.

Daniel H. Wilson is the author of several books, including How to Survive a Robot Uprising, Where’s My Jetpack?, and Bro-Jitsu: The Martial Art of Sibling Smackdown. Wilson earned his PhD in Robotics from Carnegie Mellon University in Pittsburgh. His first novel, Robopocalypse, is forthcoming from Doubleday.

Video from The Works courtesy of The History Channel

This week, Gizmodo is exploring the enhanced human future in a segment we call This Cyborg Life. It’s about what happens when we treat our body less as a sacred object and more as what it is: Nature’s ultimate machine.

This Cyborg Life

This week, we’re celebrating the human body: the ultimate machine, 4 billion years in refinement.

Your heart can beat 3 billion times in your lifetime without maintenance—that’s a performance spec that no motor can match. Tens of trillions of cells inside you undergo constant death and regeneration. And your brain juggles countless autonomic and cognitive processes without so much as a status bar. But it was just eight years ago that we decoded our genome, seizing the blueprints for ourselves. We’re just starting to understand this machine enough to tinker with it. And Man being Man, we need to tinker.

Techie people like new toys. In the future that will mean everything from artificial limbs that perform better than the originals to benevolent viruses that recode the software of the human body. And as the gadget obsessed, we’d be the ones most likely to sign up first. And to go high end, cutting edge.

Last year I got lasik, and sprung for all the upgrades. Like the cornea mapping system to correct sector by sector aberrations on my eye, the same tech used to remap the flaws in Hubble telescope’s glass. And the laser cut instead of the scalpel, which reduces night halos. Everyone else attending the mandatory pre-surgery briefing went budget. But when it comes to our bodies and minds, the gadget-minded think of our flesh and soul as extensible and upgradable with only with the best.

For a far more interesting story, we are lucky to have an amazing guest editor with us this week named Aimee Mulllins—Aimee was born without fibulae in both legs and her doctors decided to amputate her legs below the knees to give her a chance to walk with artificial legs. Eventually, she became the first woman with a disability to compete in the NCAA using carbon fiber equipment modeled after the hind legs of a cheetah. She’s also been voted as people magazine’s 50 most beautiful people in the world and, at 17, was the youngest person to hold top secret Pentagon security clearance. Some might classify Aimee as handicapped, but I’d call her enhanced. I hope she can share with us what its like to depend on her gear and have it change the way we live and the conditions we’re born with.

Through the week, we’ll hear from other experts too:

• Daniel H. Wilson, author of How To Survive a Robot Uprising, will be writing about his experiences searching for super-powered strength.

• Sexologist Debby Herbenick will discuss some of the upgrades going on below the belt.

• Our own Mark Wilson, who spent a week hearing about the outer edges and most pressing needs of health science at the TEDMED conference in San Diego, will share his encounters with the stars of organ growing, genome mapping, human body imaging and more.

• In a Q&A with The New Yorker’s Michael Specter, we’ll see why it’s more dangerous to not embark on the paths of genetic and viral manipulation than to follow them to their most unnerving ends.

This week, Gizmodo will be exploring the enhanced human future. We’re calling it This Cyborg Life. And its all about what happens when we treat our body less as a holy object and more as what it is: Nature’s ultimate machine. Even if we can’t replicate it—yet—we can make it better.

Readers and writers and editors for other periodicals and books: if you’ve got old or new stories that would fit into our theme week, please let me know! We’d love to link you.

iRobot creates new business unit for healthcare robotics

Well, it doesn’t have a Roomba that will check up on your vitals just yet, but it looks like iRobot is betting on healthcare robotics in a fairly big way, with it taking advantage of the recent TEDMED conference to announce that it’s forming a new business unit focused solely on the still burgeoning industry. That unit will be headed up by Tod Loofbourrow, who says that he believes the business “has the potential to make a significant difference in the field of healthcare,” and adds that he thinks “the long-term potential of robotics to extend independent living is profound.” While he’s just as light on specifics, iRobot CEO Colin Angle is no less ambitious about the company’s goals, saying that iRobot’s “healthcare mission is add a million years of independent living to our customers.” And in case you’re wondering, the image at right isn’t an iRobot robot, but it is all too real.

[Via So, Where’s My Robot?]

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iRobot creates new business unit for healthcare robotics originally appeared on Engadget on Thu, 05 Nov 2009 21:12:00 EST. Please see our terms for use of feeds.

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Robovie rescue bot hunts high and low for lost princesses (video)

If you’ve been feeling blue because you haven’t got enough green to keep the old bank account in the black, we’ve got just the tonic for you, dear friend. There’s nothing that gets us all perked up and cheerful quite like an adorable humanoid robot negotiating an obstacle course in the performance of a rescue mission. In fact, if you layer on your own “save the princess” narrative atop the on-screen events, the pep in your step should be back in no time. The smile-inducing video can be found after the break.

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Robovie rescue bot hunts high and low for lost princesses (video) originally appeared on Engadget on Tue, 03 Nov 2009 09:04:00 EST. Please see our terms for use of feeds.

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Fuji Heavy Industries outs friendless, autonomous farming robot

Fuji Heavy Industries in Japan has announced what it’s calling ‘the first’ autonomous farming robot. This bot, which is about six and a half feet long and runs on gas, sends and receives laser signals to orient itself by way of reflective plates placed every 30 feet, using them to judge distances. This bad boy can grow fruits and veggies all by its lonesome, and can even operate in a greenhouse. The farming robot — which is expected early next year — will run about $100,000, but we’d suggest you buy two so he can have a buddy.

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Fuji Heavy Industries outs friendless, autonomous farming robot originally appeared on Engadget on Thu, 29 Oct 2009 13:17:00 EST. Please see our terms for use of feeds.

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Pleo Escapes Fossil Status

pleoatdinner.jpg

Like the dinosaurs in Jurassic Park, The Pleo robotic camosaur has reemerged, though without the help of dino-DNA. In a lengthy interview on Robotsrule, Ugobe founder and now COO of Innvo Labs Derek Dotson said Pleo is for sale again at Innvo’s web site. What’s more surprising is that Innvo’s Pleo is not simply an inventory clear-out item. Dotson told Robotsrule that there are actually a number of improvements, including better paint, more durable skin, biodegradable packaging and better battery chargers. Innvo is also planning on improving future Pleos, making better use of its camera and opening up a processing bottleneck so the robot companion can do more with its existing sensors.

One thing that hasn’t change, yet, is the pricing. The adorable bot is still $349. Innvo will want to get to work on lowering that price if they don’t want to Pleo to fade into extinction.

Prosthetic, robotic ‘Smart Hand’ has feelings, too

Researchers in Italy and Sweden have spent the last ten years developing what they call the “Smart Hand,” a prosthetic hand which enables feeling in its fingertips. The hand — which was recently wired up to a test patient through a surgical procedure — has four motors and forty sensors which are linked directly to the brain. In the surgery, the nerve endings of the patient were linked up to receptors in the hand, which allows for feeling in the fingertips of the hand, even though the hand is not really a part of his body. In the video after the break, you can see the greater precision and dexterity this hand allows for. Though the research still needs to be refined before practical use, it looks pretty far along — and pretty awesome — to us.

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Prosthetic, robotic ‘Smart Hand’ has feelings, too originally appeared on Engadget on Sat, 24 Oct 2009 12:42:00 EST. Please see our terms for use of feeds.

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Cheetah, Gecko and Spiders Inspire Robotic Designs

cheetah

A cheetah can run faster than any other animal. A gecko’s feet can stick to almost any surface without using liquids or surface tension. And some roaches scurry at nearly 50 times their body length in one second, which, scaled up to human levels, can be around 200 miles an hour.


The wonders of the animal kingdom are not just for fans of National Geographic. Robotic designer Sangbae Kim, a professor at the Massachusetts Institute of Technology, is trying to understand how he can take some of the mechanisms animals use and replicate them in robots.

The animal kingdom provides the best ideas for creating mobile robots, says Kim. Locomotion and movement are the core parts of an animal’s life. “Animals have to find food, shelter; move towards water or away from a predator,” he says.

“Moving is one of their biggest functions, and they do it very well. That’s why ideas from nature are very important for a robotic designer like me.”

Mechanical design derived from biological models is something Kim has been working on for years, first at Stanford University and now at MIT. The simplification and adaptation of the fundamental design principles seen in animals has led to the creation of his bio-inspired robots.

Among the robots Kim and his team have designed are the Stickybot, a robot that has foot pads based on a gecko’s feet, and iSprawl, a robot whose motion is inspired from cockroaches.

Kim’s latest project is a robot inspired by the cheetah. The idea is build a prototype robot from a lightweight carbon-fiber-foam composite that can run at the cheetah’s speed of 70 miles per hour.

It’s an ambitious project. Current wheeled robots are efficient, but can be slow in rough terrains. For instance, iRobot’s PackBot, which is used by the U.S. military, can only travel at speeds of up to 5.8 miles per hour.

“Most wheeled robots today can do very well on flat surfaces, but they are slow,” says Kim. That’s why he’s looking to the cheetah for ideas. The cheetah has an extremely flexible backbone that gives extra speed or force to its running motion.

Over the next 18 months, Kim and four MIT graduate students will start building and testing prototypes. The first step will be to create a computer model to calculate the optimal limb length, weight, gait and torque of the hip and knee joints.

The biggest challenge in this project won’t be the structure, but getting enough power from a motor to get to the desired speed quickly, says Kim.

sangbae-kim-with-stickybot

Before the robotic cheetah came Stickybot, a mechanical lizard-like robot that takes its inspiration from the gecko. Geckos can climb walls at almost the same speed — of about 1 meter per second — at which they run on the ground. This remarkable ability makes it the perfect animal to draw upon to create a climbing robot, says Kim.

The secret to the gecko’s agility is that it uses a phenomenon called directional adhesion, or stickiness in just one direction, to adhere to walls.

“The gecko’s feet can detach very easily as it moves forward,” says Kim. “If you take normal sticky tape and press it to the wall, you will find it is tough to detach it quickly. Directional adhesion solves that problem.”

The pads of a gecko’s feet are covered with tiny hairs called setae and spatulae that can be up to one-thousandth the width of a human hair. The hairs cling to surfaces using molecular interactions known as the Van der Waals force. The force helps support the gecko’s weight as it scrambles up vertical surfaces.

Kim has tried to recreate that idea for the Stickybot. The Stickybot’s feet is covered with hairs made of rubber silicone. The rubber is thicker than those on a gecko’s paw, however, which limits the robot’s abilities. It can only climb extremely smooth surfaces such as glass, acrylic or a whiteboard.

Kim says his team is working on refining the Stickybot so that it can adapt to climbing on walls with uneven textures.

If the Stickybot can be improved, there are plenty of applications for it, such as repairing of underwater oil pipelines or even window washing.


MIT takes the wrappers off autonomous, robotic helicopter with intelligent navigation

Advances in autonomous helicopters have been many over the years, but as far as we can tell, there’s essentially no limit to how awesome they can get. MIT’s recently developed an autonomous, robotic helicopter which is also able to navigate itself intelligently through a changing environment. The helicopter, which is equipped with a dual-camera array and a laser scanner, maps its terrain in real time, identifying changes along the way. An integrated autonomous exploration module allows the heli to interact with the changing, unknown environment it is mapping. The helicopter was shown off at the AUVSI 2009 International Aerial Robotics Competition, completing five missions — a feat not before seen in the 19-year history of the show. Check out the very educational video after the break.

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MIT takes the wrappers off autonomous, robotic helicopter with intelligent navigation originally appeared on Engadget on Fri, 16 Oct 2009 13:01:00 EST. Please see our terms for use of feeds.

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