What is in this article?:
- The Enhanced Manufacturing Worker
- Lightening the Load for Future Workers
The transformation of factories doesn’t involve only new machine tools and IoT. Soon, workers themselves will be fitted with advanced technologies from head to foot.
A suitX exoskeleton, one of numerous new technologies that could ultimately help paraplegics walk and, in the industrial space, help workers accomplish more with less physical strain.
Thirty years ago, exoskeletons seemed to be popping up around every corner. Police officer Alex Murphy suited up in one to serve and protect Detroit. Ellen Ripley donned another to lift heavy materials aboard her ship, among other uses. And billionaire Tony Stark was already decades into his own development and use of the technology to help save the world.
Wait. Wait just one second. RoboCop isn’t real. Neither is the Caterpillar P-5000 Work Loader from Alien. Iron Man, despite the best efforts of Elon Musk, is still a fictional character. Exoskeletons really were everywhere back in the 1980s because reality had not yet gained on imagination. We were free to dream anything and suffer no real consequences.
Times have changed, though. Exoskeletons and other power-assist devices are in development all over the world, and for all sorts of purposes — industrial use among them.
“Those movies are great, don’t get me wrong, and they’re entertaining, but we’re not inspired by them,” said Dr. Homayoon Kazerooni, a professor of mechanical engineering at California Berkeley and the father of modern exoskeletons. “No science-fiction movie gives an accurate definition of what scientists are trying to do. They get strong, they run fast, they jump over buildings. It’s difficult to entertain by showing workers who just work a little more efficiently, a little quicker.
“Knowing a worker will move a two-pound drill all day without any shoulder pain, that’s inspiring. That’s huge. Knowing people can fly or drive in an exoskeleton, that’s inspiring. Iron Man, Alien, they’re fun, I’ve seen them all. But they’re just entertainment.”
The wearable robotics industry is projected to develop into a $2 billion global market within the next decade. What can you expect between then and now? And how can you apply this tech to your floor and see real ROI?
A High-Tech Safety Solution
In the Alien films, the aforementioned Power Loader towered above humans, its oversized frame equal parts inspiring and, in the wrong moments or hands, terrifying. Exoskeletons that look like it still garner plenty of attention. Which is why Hiromicho Fujimoto developed his Power Effector.
Fujimoto is the president of ActiveLink, a Panasonic spinoff headquartered beneath a thatched roof in the idyllic Japanese city of Nara, about five hours west of Tokyo. He grew up reading and watching science-fiction, his mind filled with the fantastic. “I wanted to see the world I was reading about come true,” he said. To do that, he joined Panasonic and worked for more than a decade, mostly in motor research. In 2003, he presented to corporate leadership his spinoff idea to develop, produce and sell power-assist suits.
The Power Effector receives more attention than anything else he and his ActiveLink team develop. It represents a front door, of sorts, to the other power-assist devices — PowerLoader Light Ninja leg frames, backpack weight belts, power arm prototypes — that can ease the physical burden endured by workers. That is where all the attention will turn before much longer, Fujimoto said.
According to various research, reports and industry estimates, worker overexertion works out to about $15 billion annually for employers in terms of lost time and workers’ compensation. Who wouldn’t want to turn to tech to curb that figure?
Even lifting a 10- or 15-pound item can be taxing if done repetitively, noted Ed Potoczak, director of industry relations at IQMS. “Doing that over and over again with those kinds of loads tends to create long-term stresses on the body.” He said an exoskeleton may allow a worker to lift more, not to mention more often and more safely.
“When you reduce your injury incidences, your rates tend to go down,” Potoczak said. “So between time away, recuperation and recovery, all that would represent hard savings to an employer.”
Fujimoto, for one, recognized the need to enhance workers on the floor — and to suit them with the tech necessary to work harder and smarter — well before the turn of the century. The leg frames he created are designed more for disaster areas, allowing first responders an easier path through rubble or up steep inclines. But the backpack weight belts alleviate stress from the waist and hips while lifting heavy objects. They’re designed not to make workers stronger, but to ease the burden of tedious or monotonous work. And they seem perfect for factories.
There are drawbacks, of course. ActiveLink and other exoskeleton companies tend to rely heavily on motors, which DARPA reportedly told Fujimoto is not practical. The learning curve for radically new machines can be far longer than most manufacturers are used to, too. And there’s the fact that, like many Japanese companies, ActiveLink plans to roll out everything in Japan first before turning its eyes to the international market. So what’s available a little closer to home?