Powered Hip Exoskeleton Assistance Study
NCT03924752 · Status: COMPLETED · Phase: NA · Type: INTERVENTIONAL · Enrollment: 10
Last updated 2022-02-08
Summary
The increased metabolic and biomechanical demands of ambulation limit community mobility in persons with lower limb disability due to neurological damage. There is a critical need for improving the locomotion capabilities of individuals who have walking impairments due to disease to increase their community mobility, independence, and health. Robotic exoskeletons have the potential to assist these individuals by increasing community mobility to improve quality of life. While these devices have incredible potential, current technology does not support dynamic movements common with locomotion such as transitioning between different gaits and supporting a wide variety of walking speeds. One significant challenge in achieving community ambulation with exoskeletons is providing an adaptive control system to accomplish a wide variety of locomotor tasks. Many exoskeletons today are developed without a detailed understanding of the effect of the device on the human musculoskeletal system. This research is interested in studying the question of how the control system affects human biomechanics including kinematic, kinetics and muscle activation patterns. By optimizing exoskeleton controllers based on human biomechanics and adapting control based on task, the biggest benefit to patient populations will be achieved to help advance the state-of-the-art with assistive hip exoskeletons.
Conditions
- Lower Limb Injury
Interventions
- DEVICE
-
Powered hip exoskeleton
The study team will test a powered hip exoskeleton and its capability to improve locomotion.
Sponsors & Collaborators
-
Georgia Institute of Technology
lead OTHER
Principal Investigators
-
Aaron Young, Ph.D. · Georgia Tech
Study Design
- Allocation
- NA
- Purpose
- BASIC_SCIENCE
- Masking
- NONE
- Model
- SINGLE_GROUP
Eligibility
- Min Age
- 18 Years
- Max Age
- 85 Years
- Sex
- ALL
- Healthy Volunteers
- Yes
Timeline & Regulatory
- Start
- 2021-02-13
- Primary Completion
- 2021-03-15
- Completion
- 2021-03-15
- FDA Device
- Yes
Countries
- United States
Study Locations
More Related Trials
-
ACTive Exoskeleton for Unilaterally-Assisted Locomotion (ACTUAL)
NCT06061601 ·Status: COMPLETED ·Phase: NA
-
Effects of Atalante Exoskeleton on Gait Recovery in Non- or Poorly Ambulatory Patients With Hemiparesis in the Acute/Subacute Phase (Month 1 to 4)
NCT06107010 ·Status: RECRUITING ·Phase: NA
-
Stroke Rehabilitation With Exoskeleton-assisted Gait.
NCT03395717 ·Status: COMPLETED ·Phase: NA
-
Effects of Exoskeleton-Assisted Gait Training on Functional Rehabilitation Outcomes in Patients With Stroke
NCT03980457 ·Status: RECRUITING ·Phase: NA
-
Neuromechanical Mechanisms of Exosuit-assisted Gait Rehabilitation After Stroke
NCT07218094 ·Status: ENROLLING_BY_INVITATION ·Phase: EARLY_PHASE1
-
Interactive Exoskeleton Robot for Walking - Ankle Joint
NCT02471248 ·Status: COMPLETED ·Phase: NA
-
Clinical Efficacy of Exoskeleton Robot-Assisted Rehabilitation on Lower Limb Functional Recovery in Elderly Patients With Hip Fracture
NCT07323147 ·Status: ENROLLING_BY_INVITATION ·Phase: NA
-
Effects of Backward Gait Training With Exoskeleton on Motor Functions
NCT05133362 ·Status: TERMINATED ·Phase: NA
-
Upper Limb Task-Oriented Rehabilitation With Robotic Exoskeleton for Hemiparetic Stroke Patients
NCT03319992 ·Status: COMPLETED ·Phase: PHASE2
-
Walking Therapy In Hemiparetic Stroke Patients Using Robotic-Assisted Treadmill Training
NCT00075283 ·Status: UNKNOWN ·Phase: PHASE1
-
Exoskeleton-assisted Training to Accelerate Walking Recovery Early After Stroke: the TARGET Phase II Study
NCT03727919 ·Status: COMPLETED ·Phase: NA
-
Proof-of-concept of a Robotic Knee Exoskeleton in Healthy Subjects and Hemiparetic Patients During Gait.
NCT05138185 ·Status: COMPLETED ·Phase: NA
-
Evaluating and Improving Assistive Robotic Devices Continuously and in Real-time
NCT03632252 ·Status: WITHDRAWN ·Phase: NA
-
Robot-assisted Walking Treatment in Hereditary Spastic Paraplegia (HSP)
NCT06728787 ·Status: RECRUITING
-
Post Stroke Walking Kinematics Using the Honda Walking Assist Robotic Exoskeleton
NCT03828214 ·Status: COMPLETED ·Phase: NA
-
Evaluating the Indego Exoskeleton for Persons With Hemiplegia Due to CVA
NCT03054064 ·Status: COMPLETED ·Phase: NA
-
Energy Consumption and Cardiorespiratory Load During Overground Gait Training With a Wearable Exoskeleton After Stroke
NCT03367091 ·Status: TERMINATED ·Phase: NA
-
Impact of Hip Flexors Isokinetic Strengthening on Gait Capacities in Subacute Stroke Patients
NCT02917850 ·Status: WITHDRAWN ·Phase: NA
-
Interactive Exoskeleton Robot for Walking
NCT03184259 ·Status: UNKNOWN ·Phase: NA
-
A Powered Ankle Foot Rehabilitation Orthosis
NCT01942772 ·Status: UNKNOWN ·Phase: NA
-
Achieving Meaningful Clinical Benchmarks With Ekso Gait Training During Acute Stroke Inpatient Rehabilitation.
NCT05241457 ·Status: COMPLETED
-
Stimulation Combined With Powered Motorized Orthoses for Walking After Stroke
NCT04116671 ·Status: ACTIVE_NOT_RECRUITING ·Phase: NA
-
Robotic Exoskeleton Assisted Gait Post Stroke
NCT04309305 ·Status: ENROLLING_BY_INVITATION ·Phase: PHASE1
-
The Effectiveness of Exoskeleton Type Robotic Gait Training Using CIMT for Lower Extremity: in the Aspect of Gait Independence and Balance
NCT04649684 ·Status: UNKNOWN ·Phase: NA
-
Effectiveness of an Exoskeleton Gait Training Versus Manual Therapy in Subacute Post Stroke Patients.
NCT02095795 ·Status: UNKNOWN ·Phase: NA