Abstract
| Language | English |
|---|---|
| Pages | 838-846 |
| Journal | IEEE Transactions on Robotics |
| Volume | 29 |
| Issue number | 4 |
| DOIs | |
| Publication status | Published - Aug 2013 |
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Rehabilitation Exoskeleton Design: Exploring the Effect of the Anterior Lunge Degree of Freedom. / Stegall, Paul; Winfree, Kyle; Zanotto, Damiano; Agrawal, Sunil Kumar.
In: IEEE Transactions on Robotics, Vol. 29, No. 4, 08.2013, p. 838-846.Research output: Contribution to journal › Article
TY - JOUR
T1 - Rehabilitation Exoskeleton Design: Exploring the Effect of the Anterior Lunge Degree of Freedom
AU - Stegall, Paul
AU - Winfree, Kyle
AU - Zanotto, Damiano
AU - Agrawal, Sunil Kumar
PY - 2013/8
Y1 - 2013/8
N2 - As our robotics community advances its understandingtoward the optimal design of robotic exoskeletons for humangait training, the question we ask in this paper is how the anteriorlunge degree of freedom in the robotic exoskeleton affects humangait training. Answering this question requires both novel roboticdesign and novel protocols for human gait training to characterizethis effect. To the best of the authors’ knowledge, this is the firststudy to characterize the effect of an exoskeleton’s degrees of freedomon human gait adaptation.We explored this question using theActive Leg EXoskeleton (ALEX) II. The study presented was performedusing ALEX II under the following two configurations: 1)locking the anterior/posterior translation in the exoskeleton, whileallowing other degrees-of-freedom (labeled as locked mode) and2) keeping the anterior/posterior degree of freedom unlocked (labeledas unlocked mode). Healthy subjects walked at self-selectedspeeds on a treadmill and were trained to walk with a new gait template,scaled down from their normal template. While both groupsshowed adaptation and retention over a 26-min period followingtraining, the unlocked group showed better performance in termsof adaptation and retention compared with the locked group.
AB - As our robotics community advances its understandingtoward the optimal design of robotic exoskeletons for humangait training, the question we ask in this paper is how the anteriorlunge degree of freedom in the robotic exoskeleton affects humangait training. Answering this question requires both novel roboticdesign and novel protocols for human gait training to characterizethis effect. To the best of the authors’ knowledge, this is the firststudy to characterize the effect of an exoskeleton’s degrees of freedomon human gait adaptation.We explored this question using theActive Leg EXoskeleton (ALEX) II. The study presented was performedusing ALEX II under the following two configurations: 1)locking the anterior/posterior translation in the exoskeleton, whileallowing other degrees-of-freedom (labeled as locked mode) and2) keeping the anterior/posterior degree of freedom unlocked (labeledas unlocked mode). Healthy subjects walked at self-selectedspeeds on a treadmill and were trained to walk with a new gait template,scaled down from their normal template. While both groupsshowed adaptation and retention over a 26-min period followingtraining, the unlocked group showed better performance in termsof adaptation and retention compared with the locked group.
U2 - 10.1109/TRO.2013.2256309
DO - 10.1109/TRO.2013.2256309
M3 - Article
VL - 29
SP - 838
EP - 846
JO - IEEE Transactions on Robotics
T2 - IEEE Transactions on Robotics
JF - IEEE Transactions on Robotics
SN - 1552-3098
IS - 4
ER -