Begun in 2006, DARPA's Revolutionizing Prosthetics program set out to expand prosthetic arm options for today's wounded warriors. The program funded two teams to create advanced anthropomorphic mechanical arms and control systems: DEKA Research and Development Corporation to get an arm control system to market quickly, and the other—with APL as the system integrator and lead—to produce a fully neurally integrated upper-extremity prosthesis with appropriate documentation for clinical trials, Food and Drug Administration (FDA) approvals, and manufacturing transition. APL is creating a modular architecture and extensible platform that provides a framework for future developments by us or others.
A prosthesis requires the following characteristics in order to reflect the properties of a biological limb:
- sensors for touch, temperature, vibration, and proprioception (the ability to sense the position of the arm and hand relative to other parts of the body)
- power that will allow extended use
- mechanical components that will provide strength and environmental tolerance (to heat, cold, water, humidity, dust, etc.)
With this new prosthetic, an upper-extremity amputee would be able to feel and manipulate objects just like a person with a native hand.
|December 2012||“Breakthrough: Robotic limbs moved by the mind” is featured on CBS’ 60 Minutes.|
|December 2012||Clinical trial results are published in The Lancet.|
|September 2011||The MPL is controlled by a patient using ECoG during a UPMC and University of Pittsburgh experiment.|
|December 2010||MPL v2.0 is completed.|
|September 2010||Phase 3 Kickoff meeting for APL Revolutionizing Prosthetics team.|
|December 2009||Version 1 of the Modular Prosthetic Limb (MPL v1.0) was completed with 17 degrees of freedom.|
|April 2008||Phase 2 Kickoff meeting for APL Revolutionizing Prosthetics team.|
|August 2007||Two versions of Proto 2 were completed with 22 degrees of freedom. The extrinsically actuated hand employed a cobot in the forearm driving the hand, wrist, and radial rotator. The intrinsically actuated hand was motor driven.|
|January 2007||Prototype 1 (Proto 1), with 8 degrees of freedom, began preclinical evaluations using surface myoelectric control. The Virtual Integration Environment (VIE) was used for clinician interface and patient training.|
|January 2006||Phase 1 Kickoff meeting for APL Revolutionizing Prosthetics team.|