Active clinical trials for "Paraplegia"

The study seeks to improve the scientific understanding of how two electrical stimulation techniques, one which delivers electricity to the skin surface over the spine (transcutaneous electrical spinal stimulation [TESS]) and another which is implanted onto the dura mater of the spinal cord (epidural electrical stimulation [EES]), facilitate spinal circuitry to enable function after SCI.

During typical daily activity, people with established spinal cord injury perform significantly fewer pressure-relief maneuvers than the recommended frequency while overestimating their adherence on recall surveys of pressure relief activity. The rate of pressure ulcer recurrence in individuals with a prior ulcer is 44% in those with surgical repair and as high as 75% in those with non-surgical healing indicating that increased attention to pressure relief is critical for these individuals.This study will evaluate the efficacy of a wheelchair sensor and app-based biofeedback for establishing healthy self-management behaviors (pressure relief maneuvers and daily physical activity). Investigators will enroll 50 participants with paraplegia from spinal cord injury who use a manual wheelchair for mobility and have a history of pressure ulcer that has healed or is six months post-surgical repair. Participants will be randomized into one of two groups: an intervention group that will receive an education intervention and the proposed technology to be used for one year, and a control group that will receive only the education intervention. The primary outcome will be pressure ulcer occurrence over one year. Investigators hypothesize that participants receiving the intervention of biofeedback on their pressure relief activity will have a lower recurrence of pressure ulcer than the education only control group. Secondary outcomes include depressive symptoms, self-efficacy, participation and satisfaction with life. Investigators hypothesize that increasing physical activity will reduce depressive symptoms and improve participation and satisfaction with life.

Comparing the cognitive levels of patients with SPG4 mutations to healthy controls.

The purpose of this study is to learn about rates of patient-reported disease progression in patients with motor neuron diseases (amyotrophic lateral sclerosis, progressive muscular atrophy, primary lateral sclerosis, hereditary spastic paraplegia) outside the clinical setting, and the patient-reported clinical characteristics that influence this rate of progression. All patients enrolled in CReATe Connect, a Rare Diseases Clinical Research Network (RDCRN) Contact Registry, will be invited via email to participate in this study.

This is a research study aiming to identify imaging biomarkers in patients diagnosed with spastic paraplegia type 5 (SPG5)

A study comparing short-term delivery of epidural spinal stimulation versus transcutaneous spinal stimulation.

Hereditary spastic paraparesis type 11 (SPG11) is caused by mutations in the SPG11 gene that produces spatacsin, a protein involved in lysosomal function.

The study is a follow-up study on children with acute flaccid paresis associated with enterovirus D68 infection. Only children living in Europe are eligible. The study aim is to clarify the outcome of the disease and investigate possible clinical correlation with outcome, including initial severity, demographic characteristics, treatment and MRI findings.

Both conditions hypogonadism and immobilisation (paraplegia) may contribute or lead to decreased bone mineral density resp osteoporosis. In this study bone mineral density is assessed in hypogonadal paraplegic patients, who are on standard prophylactic therapy for osteoporosis and and on a standard physiotherapy exercise program one group receiving Nebido for testosterone replacement (TRT). The additional effect of TRT on bone mineral density / osteoporosis is assessed (CT scan lumbar spine).

The central objective of this study is to validate new algorithms that coordinate between functional electrical stimulation (FES) and the exoskeleton during sitting-to-standing, walking, and standing-to-sitting movements. The secondary objective is to optimize the algorithms as well as assess their ability to reduce FES-induced muscle fatigue by using ultrasound imaging as a sensing modality. This study will include persons with no disabilities and persons with Spinal Cord Injury (SCI). A research set-up comprising of a lower-limb exoskeleton and FES system will be used to achieve sitting-to-standing, walking, and standing-to-sitting movements. Ultrasound Imaging probes may be used to record muscle activity of the stimulated muscles. The signals derived from ultrasound will be used to optimize FES in order to reduce muscle fatigue as well as assess muscle fatigue.