Spinal Cord Injury

This study will investigate potential therapeutic approaches for sleep-disordered breathing (SDB) in patients with chronic cervical spine injury (\>6 months post-injury).

This pilot study aims to evaluate the feasibility and preliminary efficacy of a wearable rhythmic auditory stimulation system, MedRhythms, for improving gait parameters in patients with motor incomplete SCI. Up to 15 participants aged 18 years or older with non-progressive SCI will be enrolled. Participants will complete supervised gait training using the MedRhythms device twice weekly during regularly scheduled physical therapy sessions over a six-week period. The device uses shoe-mounted sensors and headphones to deliver real-time individualized rhythmic auditory cues based on the user's gait pattern. Primary outcome measures include change in walking speed assessed with the 10-Meter Walk Test. Secondary outcomes include walking endurance measured by the 6-Minute Walk Test, gait parameters obtained through GAITRite analysis, and participant-reported outcomes including the Walking Index for Spinal Cord Injury II (WISCI II) and the SCI Quality of Life Satisfaction with Social Roles and Activities measure. Outcomes will be assessed at baseline, post-intervention (6 weeks), and follow-up (12 weeks). Findings from this study will provide preliminary data on the feasibility and potential clinical impact of rhythmic auditory stimulation as an adjunctive gait rehabilitation strategy for individuals with incomplete SCI.

Just-In-Time Adaptive Interventions (JITAIs) offer a framework for delivering personalized behavioral support using time-varying data to optimize the timing and type of intervention content. This project will develop the foundational components of a JITAI tailored to adults with chronic pain and either MS or SCI by drawing on symptom self-management content from existing programs (PainGuide, MyMSToolkit, and MySCIToolkit). Intervention content and delivery parameters will be refined through stakeholder engagement via structured interviews to ensure relevance, acceptability, and feasibility.

The main objective of the proposed research study is to determine in men and women with spinal cord injury/disease and neurogenic bladder whether the dose of coupled gentamicin \& Lactobacillus rhamnosus GG affects the recolonization of the bladder, and whether the rate of success differs by sex. Secondary objectives include determining whether that recolonization lasts 7, 14, or 28 days; and safety of the coupled gentamicin \& Lactobacillus instillations.

The goal of this clinical trial is to demonstrate control of digital devices through a brain implant in people with spinal cord injury. The main question it aims to answer is efficient, independent, BCI-based control over digital devices in settings of daily living of an individual with SCI. In this project an advanced generation fully implantable BCI system will be used, the Brain InterChange (BIC) from CorTec. Participants will be implanted with an electrode grid on the surface of the brain and an amplifier/transmitter on the skull, under the skin. Participation includes visits of researchers for recording and training at home, 1-3 times per week for one year. Extension of participation after one year is possible. If successful, the participant will be able to use the BCI at home independently, without the presence of a researcher.

The goal of this clinical trial is to learn whether consuming a high fermented food diet improves bowel function and gut health in adults with chronic spinal cord injury (SCI). The study will also evaluate the feasibility and tolerability of consuming fermented foods daily for 10 weeks. The main questions it aims to answer are: 1. Does a high fermented food diet improve neurogenic bowel dysfunction symptoms and colonic transit in adults with SCI? 2. Does fermented food intake change gut microbiome composition, short-chain fatty acid production, and intestinal inflammation? Researchers will compare a high fermented food diet to a control diet to evaluate effects on bowel health and gut microbiome outcomes. Participants will: * Consume study foods daily for 10 weeks * Attend 2 in-person study visits * Collect stool samples at home and ship them overnight to the research team using provided collection kits and prepaid shipping materials * Complete bowel health questionnaires and dietary recalls * Undergo Sitz marker testing with abdominal X-rays to assess colonic transit * Participate in biweekly monitoring contacts throughout the study period

The goal of this clinical trial is to to confirm the safety and performance of the ABLE Daily to perform ambulatory functions in home and community settings for people with spinal cord injury. The experimental period will cover the training period with the ABLE Daily exoskeleton (3 weeks of use at the investigational site with a total of 9 sessions) and the home period (12 weeks of personal use at home and community environments).

To achieve our specific aims and hypotheses we will conduct a parallel group mixed methods randomized control trial comparing participation in the TEEMS program with exercise via asynchronous video library equivalent (control). The use of mixed methods will allow for the integration of quantitative findings with the qualitative, lived perspective of participants to provide a comprehensive analysis of the tele-exercise program outcomes. All aspects of the study from recruitment, screening, data collection, tele-exercise delivery and team meetings will be virtual to promote access and inclusion by removing barriers and promoting engagement. This study will compare our live group TEEMS program with individual pre-recorded exercise videos. We created TEEMS with the intention of maximizing exercise independence for participants, which decreases need for caregivers during physical activity. The design and participation in TEEMS is meant to increase personal factors that facilitate participation in exercise. These personal factors include confidence and positive associations with exercise. When these personal factors are targeted, individuals with SCI are more likely to participate in physical activity, which supports overall health and QoL.

The purpose of this research study is to measure the tolerability and preliminary efficacy of a drug, galantamine, to treat metabolic syndrome (MetS) by reducing circulating inflammation in people with spinal cord injury (SCI). Galantamine is FDA-approved for the treatment of Alzheimer's disease. Here, the drug is considered experimental for the purposes of this study.

COSCINUS is a standardized framework for evaluating temporal trends in SCI causes, SCI characteristics, and demographic patterns. It allows a precise estimation of medical complications' incidence, their evolution over time, as well risk factors influencing these complications, including management modalities. Moreover, COSCINUS provides a high-quality research platform, including clinical, epidemiological, biostatistical, and IT expertise, thereby promoting fundamental research in spinal cord injury and related autonomic dysfunctions. As a national epidemiological tool, COSCINUS offers unique analytical perspectives, promising significant contributions to the understanding and management of spinal cord injuries.

Spinal cord injuries are anatomically mostly incomplete, showing tissue bridges of the spinal cord at the injury site. Of the 60% functionally incomplete patients, about half face a life in the wheelchair. Besides conventional rehabilitation, no prominsing further treatment options exist. One of the most plastic systems involved in locomotion is the pontomedullary reticulospinal tract, which is the oldest locomotor command system existing in most vertebrates, including primates. Muscle activation patterns for limb movements are programmed in the spinal cord and have to be activated and coordinated through commands from the so called mesencephalic locomotor region (MLR). The MLR consists of nerve cells in the lower mesencephalic tegmentum sending uni- and bilateral signals through the medullary reticulospinal tracts. Classical physiological studies showed that electrical stimulation of the MLR induce locomotion. For the first time this approach was transferred and recently published in a model of induced incomplete spinal cord injury by the Schwab group. Rats severly impaired in motor hindlimb control with only 10-20% spared white matter, recovered with fully functional weight bearing locomotion under MLR deep brain stimulation (DBS). Even rats with only 2-10% spared white matter regained weight supporting stepping. DBS is a clinical standard treatment option in patients with movement disorders but does not relieve all symptoms. Therefore, small studies of MLR stimulations have been safely used in Parkinsonian patients showing freezing of gait and frequent falls with variable results. In a translational approach, we aim at performing a multidisciplinary phase one clinical trial with 5 patients and incomplete spinal cord injury. With the means of our established universitary setup for DBS treatments the operations will be performed unilaterally under local anaesthesia in the Division of Neurosurgery, USZ, with perioperative electrophysiological recordings, clinical assessments and gait analysis under test stimulation in the Spinal Cord Injury Center Balgrist.

The goal of this prospective, open-label cohort study is to assess functional outcomes in individuals with cervical spinal cord injury who have undergone nerve transfer surgery to restore upper limb function. The main questions it aims to answer are: * Does nerve transfer improve hand function in individuals with cervical spinal cord injury? * What factors are associated with functional improvement following nerve transfer? Researchers will compare functional outcomes at 24 months post-surgery to 1) baseline outcomes and 2) individuals with cervical spinal cord injury who did not undergo nerve transfer. Participants who have received nerve transfer surgery as part of their regular medical care will complete functional hand tests, electrodiagnostic assessments, and questionnaires on independence and mood every 3 months for 24 months after surgery.

The purpose of this study is to evaluate the mechanical properties of the Achilles tendon (stiffness, length, volume) and the force production capacities of the gastrocnemius medialis muscle in patients with spastic paresis (post-stroke or incomplete spinal cord injury) compared to healthy subjects, during gait.

The purpose of this research study is to demonstrate the safety and efficacy of using two CRS Arrays (microelectrodes) for long-term recording of brain motor cortex activity and microstimulation of brain sensory cortex.

This is a prospective, open-label, multi-center, single-arm study to evaluate the efficacy and safety of an implantable wireless brain-machine interface (BMI) system in patients with spinal cord injury. Eligible participants will undergo screening after signing informed consent, followed by BMI system implantation. Follow-up visits will be conducted postoperatively to assess brain-control performance and safety.

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.

This is a randomised, blinded and controlled Phase I trial to measure the safety, feasibility and efficacy of a combined cell transplantation and intensive rehabilitation intervention to treat spinal cord injury. The trial aims to examine whether transplantation of olfactory cell nerve bridges combined with intensive rehabilitation is safe and feasible for people living with chronic spinal cord injury in Australia, and whether the intervention improves structural integrity of the spinal cord, functional recovery, overall health, and social wellbeing. For the olfactory cell nerve bridge transplant, cells from inside the patient's own nose will be purified and engrafted as 3D cellular nerve bridges. Participants will receive a dose that is dependent on the size of the accessible space within the injury site of the spinal cord with up to 60 million cells being engrafted. The surgery for the transplantation will be performed by a neurosurgeon in which the spinal cord will be exposed to enable the nerve bridges to be placed into the injury site. The duration of the procedure will be 3-4 hours. Surgical notes will be used to monitor adherence to the protocol. For intensive exercise rehabilitation, the intervention will be supervised and provided by physiotherapists and exercise physiologists at a for-purpose neurorehabilitation facility. The mode of administration will be one-on-one sessions. The 12- and 32-week rehabilitation programs will consist of up to 3 hours per day at the rehabilitation service providers, for 5 days per week. Participants will attend the provider that is within their geographical area. Over each week, sessions will involve a range and mix of activities which could include, but are not limited to, standing, gait training, upper limb strength, trunk stability/core strength, and aerobic training. Throughout the trial, logs of exercise activities will be completed by the participants and staff at the neurorehabilitation gyms. Rehabilitation will start from day 1 of the priming rehabilitation (PR) program and go for 12 weeks, then surgery and cell transplantation will occur at week 1 of the cell transplantation surgery and recover program which is 2 weeks post conclusion of Priming Rehabilitation (PR), followed by 5 weeks of recovery. Rehabilitation is for 32 weeks starting 6 weeks post transplant surgery. Regenerative rehabilitation program is from weeks 1-32 of the regenerative rehabilitation (RR) program. If nerve bridge production fails for whatever reason in the weeks prior to surgery, this will start an extension/contingency/alternative timeline, where a new nasal biopsy will need to be taken from the participant (along with accompanying tests). The cells will be grown up over the next 4 weeks with an additional week of nerve bridge production, while the participant engages in a further five weeks of priming rehabilitation.

This prospective randomized double blinded study will be conducted to evaluate the effect of early pharmacologic intervention with calcitonin on the incidence or the severity of neuropathic pain after spinal cord injury

Cardiometabolic Disease (CMD) is the silent killer within the spinal cord injury/disease (SCI/D) population. Many SCI/D patients' initial CMD presentation is with a heart attack, stroke, or sudden cardiac death, highlighting the need for interventions to reduce CMD risk. CMD contributes to 46% of deaths, with 30-50% of the SCI/D population living with undiagnosed CMD. Treating CMD risk is more challenging in the SCI/D population due to prolonged inactivity, inability to exercise, and excessive caloric intake to expenditure ratio. Identifying accessible and inclusive strategies to combat CMD risk in the SCI/D population is a compelling and urgent health priority. Blood flow restriction (BFR) exercise involves applying inflatable cuffs to the proximal end of an individual's limbs. Changes to the amount of blood flowing into and out of the limb lead to a low oxygen environment within the limb, shifting the way the muscles can produce the energy required to function, increasing the benefits of low- and moderate-intensity exercise. Coupling BFR with Functional electrical stimulation cycling (FES-cycling), a commonly used rehabilitation tool within the SCI population, could improve FES-cycling's short- and long-term benefits without reducing the accessibility and inclusiveness of long-term exercise prescription. Although preliminary BFR research in the SCI/D has identified positive muscular improvements, whether FES-cycling coupled with BFR can be safely prescribed or feasibly implemented long-term within the SCI/D population is unknown. The proposed project aims to determine the safety and feasibility of FES-cycling coupled with BFR for 20 minutes of moderate-intensity exercise among adults with chronic spinal cord injury/disease (SCI/D). The research team aims to implement pre-test, eight exercise sessions, and post-test across 6-weeks. Criteria for success include no adverse or severe adverse events not alleviated by ceasing exercise (safety), a 1 to 8 ratio of participants screened to participants eligible (recruitment success), and participants successfully completing all exercise sessions (participant retention).

This pilot randomized, double-blind, sham-controlled clinical investigation will evaluate the feasibility and safety of a 30-day home-based transcutaneous auricular vagus nerve stimulation (taVNS) intervention in adults with spinal cord injury (SCI) and neuropathic pain. Participants will be randomized to receive either active taVNS targeting the auricular branch of the vagus nerve or sham taVNS delivered to the earlobe. Primary outcomes include feasibility, safety, adherence, acceptability, and blinding success. Exploratory outcomes include changes in neuropathic pain, systemic inflammatory biomarkers, vagal tone assessed via heart rate variability, and quality of life.

After spinal cord injury (SCI), many people lose their ability to walk and do not have access to equipment and assistance that could help them regain functional abilities. Furthermore, many who have the potential to regain function are further hindered by a loss of function in their upper body that limits their ability to use a walker or crutches, thus eliminating options for mobility. This study seeks to determine the safety and feasibility of the XoMotion-R, a self-balancing exoskeleton that allows people with American Spinal Injury Association Impairment Scale (AIS) rating of B-D SCI to walk hands-free in inpatient and outpatient settings. This study will examine how use of the XoMotion-R affects functional outcomes and identify setting-specific barriers and facilitators to clinical adoption. This single-arm feasibility study will recruit 8 SCI inpatients and 8 SCI outpatients whose goal is to improve their walking and incorporate the XoMotion-R into their rehabilitation sessions. Participants will work on a variety of gait tasks tailored to their functional level. The goal is to determine whether early robotic gait training can improve functional outcomes and decrease length of stay, secondary complications, and long-term disability burden.

This study aims to better understand how occupational therapists provide rehabilitation for adults recovering from stroke or spinal cord injury (SCI), with a focus on improving arm and hand function. Using video recordings of real outpatient therapy sessions, researchers will identify the key elements of treatment, such as the types of activities, the therapist's techniques, and how patients respond. The study will use the Rehabilitation Treatment Specification System (RTSS), a framework designed to clearly describe rehabilitation methods. By analyzing these sessions, the research team will develop a practical toolkit to help therapists and researchers deliver and study more effective rehabilitation treatments in the future.

To determine the accuracy of serum NF-L and GFAP levels (ie the biomarkers) at different time points postinjury for predicting the severity of neurologic impairment at 6 months postinjury as either motor complete (AIS grade A/B) or motor incomplete (AIS grade C/D) a group of patients who suffer traumatic spinal fracture and/or dislocation of the spinal column but without neurologic injury will be enrolled as non-SCI spine trauma control participants.

The goal of this trial is to learn about the feasibility and benefits of delivering a pelvic floor muscle training program to people with motor-incomplete spinal cord injury. The main questions it aims to answer are: 1. To evaluate the feasibility of delivering a pelvic floor muscle training program to people with spinal cord injury. The investigators will examine recruitment rate, compliance and adherence to the intervention and other study protocols, adverse events, and participant perspectives of the study protocols. 2. To explore the potential effectiveness of pelvic floor muscle training on pelvic floor, bladder, bowel, and sexual function. Participants will be asked to complete a pelvic floor muscle training program for 3 months. At the beginning, middle, and end of the program, researchers will conduct a series of tests to determine the feasibility and potential effectiveness of this program.

Many individuals with severe motor impairments rely on Assistive Technologies (ATs) or Brain-Computer Interfaces (BCIs) to interact with digital devices such as their computers. Clinicians and researchers currently lack a common framework to objectively quantify how much a given AT or BCI improves real-world function or to compare across tools. This project seeks to address this gap by developing a standardized method to objectively assess or compare the functional benefit of these tools on digital independence, i.e., the ability to independently operate computers, phones, and other digital systems, by creating a unique Digital Assessment Interface (DAI). This assessment will be a simulation of online and digital activities that prior work has determined is important to functional daily living in the digital domain. Participants will complete this assessment with various ATs and BCIs, and these scores will be used to create an index, which will be comprised of performance outcomes, clinician-reported outcomes, and patient-reported outcomes. The tool aims to quantify and compare digital task performance across devices and user populations. The primary objective of this study is to develop an index. The index will quantify functional performance of individuals using various ATs and BCIs. The secondary objectives are to extensively evaluate the psychometric properties of the index, such as the validity, responsiveness, reliability, and floor/ceiling effects both globally and across different devices and impairment levels, ensuring that it can reliably measure the impact of an AT or BCI on a user's ability to independently operate digital systems; and to characterize the familiarization and use of specific BCI and AT systems with reference to a normative healthy control population.