Training the Brain with a Robotic Device for Balance Recovery
NCT02765425 · Status: WITHDRAWN · Phase: NA · Type: INTERVENTIONAL
Last updated 2024-09-03
Summary
The research objective of this study is to determine whether an intervention and associated robotic device called "Assisted Movement with Enhanced Sensation (AMES) can be used to enhance balance recovery following an unexpected loss of balance by conditioning areas of the brain involved in lower-limb (LL) motor control. It is hypothesized that AMES can improve balance recovery, gait, and reduce falls in near-frail elderly people by improving LL strength, speed, and coordination.
AMES, is a medical intervention and robotic device originally developed to aid patients' recovery from injuries to the central nervous system that limit movement. Earlier published studies demonstrated a unique property of AMES, namely that it is capable of reducing sensorimotor impairment in the severely impaired, an underserved population of patients with brain and spinal cord injuries. AMES applies assisted movement, biofeedback, and sensory stimulation simultaneously and non-invasively to the upper or lower limb, the initial intent being to address impairments such as weakness, spasticity, sensory loss, and dyssynergia (i.e., co-contraction). These reductions in impairment are achieved through cortical plasticity. In the present study, the same methodology will be applied to the lower limbs of the near-frail elderly to reduce falls by training faster reaction times, stronger reactions, and more coordinated recoveries from slips and trips
Conditions
- Fall Risk
- Healthy Elderly
Interventions
- DEVICE
-
AMES
Subjects will be trained while seated on the AMES device. As the footplate of the device rotates the ankle ±15 deg in dorsiflexion and plantarflexion, the participant will assist that motion. Vibration (2-3 mm at 60 pulses/s) will be applied to the tibialis anterior tendon during plantarflexion and to the Achilles tendon during dorsiflexion. To assist participants in the assisted movement task, the AMES biofeedback screen will provide real-time visual feedback of the volitional ankle torque that the participants actively apply to the AMES device. Each training session will include 15 min of training of each ankle; training sessions will be conducted 3 times/week over a 12-week period, for a total of 9 hours of training on each ankle.
Sponsors & Collaborators
-
AMES Technology
collaborator INDUSTRY -
University of Arkansas
lead OTHER
Principal Investigators
-
John R Jefferson, PhD, PT · University of Arkansas
Study Design
- Allocation
- RANDOMIZED
- Purpose
- PREVENTION
- Masking
- NONE
- Model
- PARALLEL
Eligibility
- Min Age
- 65 Years
- Max Age
- 90 Years
- Sex
- ALL
- Healthy Volunteers
- Yes
Timeline & Regulatory
- Start
- 2017-08-30
- Primary Completion
- 2020-09-09
- Completion
- 2020-09-09
- FDA Device
- Yes
Countries
- United States
Study Locations
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