Titan Arm
To ensure a slimmer frame than other exoskeletons and make Titan Arm easier for patients to use, the team situated its actuator in a backpack instead of in the limb itself. They also milled load-bearing parts out of aluminum to limit weight and power consumption. McGill, the electronics lead, created a software-and-sensor package to track arm movements and wirelessly relay the data. This would allow a patient to use a Titan Arm at home and a therapist to remotely monitor the exercises.
Potential beneficiaries, including stroke victims and an injured snowboarder, have already reached out to the team with encouraging comments. The positive response to their $2,000 prototype has made Titan Arm’s makers eager to push their invention toward a finished product and, to that end, they are now designing a more refined version. “We’ve been looking at 3-D printing to fully customize components, like tailoring a suit,” says Parrotta.
1) POWER:
Lithium-polymer battery packs provide a day’s worth of power.2) MUSCLE:
An electric motor in the backpack winds steel cables to rotate pulleys and induce arm movement. Beattie (left) designed a support system to safely distribute weight across a hip belt, elbow straps, and back plate.3) BRAINS:
Software reads the positions of magnetic sensors in the steel joints to instruct movement, which the operator controls from a handheld device.Inventors: Elizabeth Beattie, Nicholas McGill, Nick Parrotta, Nikolay Vladimirov
Development cost to date: $2, 000
Company: N/A
Market Maturity: ••
No comments:
Post a Comment