Paraplegia

Spinal cord injuries resulting in paraplegia affect patients' mobility and, consequently, their ability to participate in activities of daily living. In France, according to available sources, the number of people with a symptomatic spinal cord injury is estimated to be between 97,000 and 132,000, with an average age of 55. The incidence is estimated at 1,300 new cases per year. Following initial treatment, patients' aim is to resume their daily activities. Engaging in these activities is associated with a better quality of life and is recognised as having a positive effect on health. Limitations in their ability to move around directly affect their participation in activities of daily living and, consequently, their quality of life. To this end, mobility can be supported by a manual wheelchair (MW) or an electric wheelchair (EW); however, these aids do not enable patients to regain the ability to stand, which remains one of the main goals for people with spinal cord injuries. Robotic exoskeletons can assist with standing and locomotion. To date, robotic exoskeletons have been used in rehabilitation centres. During the rehabilitation phase, these devices have proven to be usable and safe for a wide range of patients with spinal cord injuries. Motorised exoskeletons thus enable patients to perform tasks such as walking, standing upright, rotating, and carrying out dynamic balance exercises. In the longer term, personal exoskeletons, used at home, could facilitate the performance of productive, domestic, social or recreational activities, such as those carried out on a daily basis by every individual. Personal powered exoskeletons (PPEs) also appear to generate physiological and psychosocial benefits. Studies describe potential improvements in cardiovascular health, bladder and sphincter function, and a reduced risk of osteoporosis. After a few weeks of training with a motorised exoskeleton, patients report improvements in social functioning, mental health and sub-domains of general health perception on the SF36 Walk Wheel. It should be noted that the ability to interact socially whilst standing is an important aspect of quality of life for patients with spinal cord injuries. Patients describe the pleasure of eye contact, of being able to walk with assistance, and an improvement in mood. The PPE would complement the wheelchair by enabling ambulation and participation in activities whilst standing. Preserving upper limb function is a prerequisite for the widespread use of walking exoskeletons in everyday life. A self-supporting PPE, such as the EVE® device, which does not require the use of crutches, aims to enable users to stand up and walk whilst retaining the use of their upper limbs. This active balance control is a crucial function for achieving many functional skills in a domestic environment. One of the technological advantages of the self-balancing exoskeleton lies in the use of dynamics to eliminate the need for crutches, whilst ensuring walking safety. The next step towards the development of personal exoskeletons for people with spinal cord injuries is to investigate the performance of activities of daily living whilst wearing an exoskeleton. To our knowledge, no such study has been carried out, and our work addresses a gap in the scientific literature by analysing the impact of using a self-propelled PPE on satisfaction and performance when carrying out activities of daily living. The investigators hypothesise that the personal exoskeleton leads to greater satisfaction when carrying out the four tasks of daily living, compared with that achieved using a manual wheelchair. In this context, the KER-EXHOME clinical trial, proposed by Dr Stéphanie LEPLAIDEUR (coordinator of this study), and led by the Kerpape Centre (sponsor), aims to compare, in participants with paraplegia, satisfaction and performance when carrying out activities of daily living and physical activities, using the EVE® device compared with a manual wheelchair.

The purpose of this study is to evaluate a surgically implanted functional electrical stimulation (FES) system to facilitate exercise, standing, stepping and/or balance in people with various degrees of paralysis.

Spinal cord injury (SCI)-related paraplegia is a complex neurological condition characterized by motor impairment, increased spasticity, and significant functional limitations in daily activities. Spasticity is one of the most common secondary complications after upper motor neuron lesions and can negatively affect rehabilitation outcomes, gait ability, and functional independence. This randomized controlled study aims to investigate the effects of Functional Electrical Stimulation (FES) applied to the quadriceps muscle in individuals with paraplegia. Participants will be randomly assigned to either a control group receiving conventional neurorehabilitation or an intervention group receiving additional FES treatment. The primary outcomes include changes in spasticity level, quadriceps muscle strength, and functional mobility. Spasticity will be assessed using the Modified Ashworth Scale (MAS), muscle strength will be evaluated with Manual Muscle Testing (MMT), and functional mobility will be measured using the Spinal Cord Independence Measure (SCIM), Timed Up and Go Test (TUG), and 6-Minute Walk Test (6MWT). The intervention period will last 8 weeks, with standardized rehabilitation programs applied to both groups. The FES group will additionally receive quadriceps stimulation with specific neuromuscular electrical stimulation parameters. The findings of this study are expected to provide evidence regarding the effectiveness of FES as an adjunct to conventional rehabilitation in improving motor function and functional independence in individuals with paraplegia.

The objective of this study is to determine the effectiveness of remote manual wheelchair skills training program. First, peer coaches will be enrolled and trained. Then, trainees will be enrolled into one of three interventions: intervention with remote feedback (Group 1), and a wait list control group (Group 2).

The purpose of this study is to evaluate a surgically implanted functional electrical stimulation (FES) system to facilitate stability of the trunk and hips. FES involves applying small electric currents to the nerves, which cause the muscles to contract. This study evaluates how stabilizing and stiffening the trunk with FES can change the way spinal cord injured volunteers sit, breathe, reach, push a wheelchair, or roll in bed.