TY - JOUR
T1 - Home-Based Versus Laboratory-Based Robotic Ankle Training for Children With Cerebral Palsy
T2 - A Pilot Randomized Comparative Trial
AU - Chen, Kai
AU - Wu, Yi Ning
AU - Ren, Yupeng
AU - Liu, Lin
AU - Gaebler-Spira, Deborah
AU - Tankard, Kelly
AU - Lee, Julia
AU - Song, Weiqun
AU - Wang, Maobin
AU - Zhang, Li Qun
N1 - Funding Information:
Disclosures: L.-Q.Z. and Y.R. hold equity positions in Rehabtek LLC, which received funding from the National Institutes of Health (grant no. R42HD043664) and National Science Foundation (grant no. IIP-0750515) for developing the rehabilitation robot used in this study. The other authors have nothing to disclose.
Funding Information:
Supported by the National Institute on Disability and Rehabilitation Research (grant no. H133E100007 ), the National Institutes of Health (grant nos. R42HD043664 and UL1TR00150 ), and the National Science Foundation (grant no. IIP-0750515 ).
Publisher Copyright:
© 2016 American Congress of Rehabilitation Medicine
PY - 2016
Y1 - 2016
N2 - Objective To examine the outcomes of home-based robot-guided therapy and compare it to laboratory-based robot-guided therapy for the treatment of impaired ankles in children with cerebral palsy. Design A randomized comparative trial design comparing a home-based training group and a laboratory-based training group. Setting Home versus laboratory within a research hospital. Participants Children (N=41) with cerebral palsy who were at Gross Motor Function Classification System level I, II, or III were randomly assigned to 2 groups. Children in home-based and laboratory-based groups were 8.7±2.8 (n=23) and 10.7±6.0 (n=18) years old, respectively. Interventions Six-week combined passive stretching and active movement intervention of impaired ankle in a laboratory or home environment using a portable rehabilitation robot. Main Outcome Measures Active dorsiflexion range of motion (as the primary outcome), mobility (6-minute walk test and timed Up and Go test), balance (Pediatric Balance Scale), Selective Motor Control Assessment of the Lower Extremity, Modified Ashworth Scale (MAS) for spasticity, passive range of motion (PROM), strength, and joint stiffness. Results Significant improvements were found for the home-based group in all biomechanical outcome measures except for PROM and all clinical outcome measures except the MAS. The laboratory-based group also showed significant improvements in all the biomechanical outcome measures and all clinical outcome measures except the MAS. There were no significant differences in the outcome measures between the 2 groups. Conclusions These findings suggest that the translation of repetitive, goal-directed, biofeedback training through motivating games from the laboratory to the home environment is feasible. The benefits of home-based robot-guided therapy were similar to those of laboratory-based robot-guided therapy.
AB - Objective To examine the outcomes of home-based robot-guided therapy and compare it to laboratory-based robot-guided therapy for the treatment of impaired ankles in children with cerebral palsy. Design A randomized comparative trial design comparing a home-based training group and a laboratory-based training group. Setting Home versus laboratory within a research hospital. Participants Children (N=41) with cerebral palsy who were at Gross Motor Function Classification System level I, II, or III were randomly assigned to 2 groups. Children in home-based and laboratory-based groups were 8.7±2.8 (n=23) and 10.7±6.0 (n=18) years old, respectively. Interventions Six-week combined passive stretching and active movement intervention of impaired ankle in a laboratory or home environment using a portable rehabilitation robot. Main Outcome Measures Active dorsiflexion range of motion (as the primary outcome), mobility (6-minute walk test and timed Up and Go test), balance (Pediatric Balance Scale), Selective Motor Control Assessment of the Lower Extremity, Modified Ashworth Scale (MAS) for spasticity, passive range of motion (PROM), strength, and joint stiffness. Results Significant improvements were found for the home-based group in all biomechanical outcome measures except for PROM and all clinical outcome measures except the MAS. The laboratory-based group also showed significant improvements in all the biomechanical outcome measures and all clinical outcome measures except the MAS. There were no significant differences in the outcome measures between the 2 groups. Conclusions These findings suggest that the translation of repetitive, goal-directed, biofeedback training through motivating games from the laboratory to the home environment is feasible. The benefits of home-based robot-guided therapy were similar to those of laboratory-based robot-guided therapy.
KW - Ankle
KW - Cerebral palsy
KW - Movement
KW - Muscle hypertonia
KW - Rehabilitation
KW - Robotics
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U2 - 10.1016/j.apmr.2016.01.029
DO - 10.1016/j.apmr.2016.01.029
M3 - Article
C2 - 26903143
AN - SCOPUS:84962496042
SN - 0003-9993
VL - 97
SP - 1237
EP - 1243
JO - Archives of Physical Medicine and Rehabilitation
JF - Archives of Physical Medicine and Rehabilitation
IS - 8
ER -