Complete Spinal Cord Injury, Incomplete Spinal Cord Injury, Spinal Cord Injuries
Conditions
Keywords
spinal cord injury, complete spinal cord injury, incomplete spinal cord injury, exoskeleton robot, gait training, security testing, functional testing
Brief summary
In Taiwan, there are more than 23,000 individuals with spinal cord injuries (SCI, mean age: 27 years), with an increment of new 1,200 SCI individuals each year. Recovery of ambulatory function is among the most important therapeutic goals because 92% of the individuals with SCI have to use the wheelchair for the rest of their lives. The lower limb powered exoskeleton robot, FREE Walk, used for training in this research was developed by FREE Bionics Inc. The main purpose of this research is to test the safety and feasibility of FREE Walk exoskeleton robot. In addition, the research will further investigate the range of injury levels for the intended SCI users and the learning time needed for the users to independently operate the exoskeleton robot.
Detailed description
Individuals with SCI who meet the inclusion criteria will be referred to the investigators. Participants will be given consent forms and explained the research before participating. The participants must pass the initial evaluation described below in order to go through robot training: (1) medical history, (2) bone density, (3) joint range of motion, ROM (4) strength (manual muscle test, MMT), (5) muscle tone (modified Ashworth scale, MAS). The training program consists of 5-min preparation, 50-min of functional activities training including weight shifting, sit-down, stand-up, stepping and walking, and 5-min training feedback. Every participant will receive at least 20 training sessions (1 hour per session, 2-5 sessions per week) and an post-training evaluation after completion of training. The post-training evaluation includes the following tests: timed up-and-go test, 10-meter walk test, and 6-minute walk test.
Interventions
DEVICEexoskeleton robot training
subjects will learn to independently use the exoskeleton robot to perform functional activities (including stand-up, sit-down, stepping forward, and walking).
Sponsors
The Industrial Technology Research Institute
Taipei Veterans General Hospital, Taiwan
Study design
Allocation
NA
Intervention model
SINGLE_GROUP
Primary purpose
TREATMENT
Masking
NONE
Intervention model description
AIS A-D SCI patients with injury level C7-L5
Eligibility
Sex/Gender
ALL
Age
18 Years to 70 Years
Healthy volunteers
No
Inclusion criteria
1. Spinal cord injury patients whose injury levels range from C7 to L5, ASIA impairment scale A to D, can use forearm crutch and can't walk without an assistive device. 2. In a stable condition, for example, at least 3 months after first injury/onset, or with stable spine, or had been corrected (internal fixation). 3. Age between 18-70. 4. height between 150-190cm; weight less than 100kg; thigh length between 32-47cm; leg length (from lateral epicondyle of femur to sole) between 23-59cm. 5. Normal joint range of motion(ROM) of both lower extremities and upper extremities or ROM limitation will not affect ambulation. 6. Can maintain trunk stability with or without hand support in sitting position for 60s.
Exclusion criteria
1. Combine other neurological diseases, for example, stroke, cerebral palsy, Parkinson's disease,... etc. 2. Femoral T-score \<-2.5. (Doctor's approval must be obtained for those who with femoral t-score between -2.5 and -3). 3. Other medical conditions which will affect weight bearing or ambulation. 4. Medical history including fracture(due to osteoporosis in the past 2 years), heart failure, myocardial infarction. 5. Skin conditions including allergy, pressure sore, infection, ...etc. 6. Impaired mental or cognitive conditions that will affect training or evaluation. 7. Severe contracture or limited joint range of motion of lower extremities. 8. Severe spasticity which will impede the movement of exoskeleton robot. 9. Heterotopic ossification. 10. non-union fracture or open wound. 11. pregnancy. 12. other conditions that is not applicable for use the exoskeleton robot.
Design outcomes
Primary
| Measure | Time frame | Description |
|---|---|---|
| 10 meters walking test | Test will be held before starting the first training session and after completing 20 training sessions.(1 hour per session) | Subjects walk with exoskeleton for 10 metres, with the time measured for the intermediate 6 metres to allow for acceleration and deceleration. |
Secondary
| Measure | Time frame | Description |
|---|---|---|
| timed up-and-go test | Test will be held before starting the first training session and after completing 20 training sessions.(1 hour per session) | Record the time needed to perform timed up-and-go test wearing exoskeleton robot |
| 6-minutes walking test | Test will be held before starting the first training session and after completing 20 training sessions.(1 hour per session) | Record the distance covered to perform 6-min walk test wearing exoskeleton robot. Rate of Perceived Exertion will be recorded at the end of the 6-min walk test to evaluate users' endurance. |
Countries
Taiwan
Outcome results
None listed