Spinal Cord Injuries

The purpose of this study is to evaluate the efficacy of a 6-week app-guided MM intervention compared to a 6-week app-guided health education AC condition on pain intensity, pain interference, depression, and anxiety.

Chronic neuropathic pain affects 69% of adults with spinal cord injury (SCI). Current treatment options are limited (primarily pain medications) with insufficient benefits and significant risks for addiction and adverse effects. Of the available mind and body approaches, Qigong is the most accessible for adults with SCI with evidence for effectiveness in reducing pain, but there is insufficient evidence to make recommendations for adults with SCI. Thus, the feasibility of Qigong in SCI needs to be established. To support our feasibility study, we investigated a 12-week remote Qigong program in adults with SCI and neuropathic pain. We recruited 23 adults with SCI, 18 completed the study, and 12 completed the 1-year follow-up. They practiced Qigong 138% of the required intensity (which was, at least 3x/week with Qigong video through the internet). Their pain was reduced by 44% after 12 weeks of Qigong practice and was still reduced at the 6-week and 1-year follow-up. However, three key elements need to be addressed before performing a larger effectiveness study: (1) feasibility/acceptability of Qigong from adults with SCI of diverse backgrounds; (2) feasibility of the study design with control group); and (3) objective outcome measures. This R34 feasibility study, the HAPPINESS trial (cHAnging the Perceived Pain INtensity in divErSe populations with Spinal cord injury), will expand on our prior study to consolidate feasibility with a rigorous protocol. We will address the following aims: AIM 1. Identify the facilitators/barriers to participating in a Qigong study through focus groups/interviews with stakeholders from diverse backgrounds, defined as Hispanics, veterans, and adults living in rural, underserved areas. AIM 2. Establish the feasibility of study design/methods of the HAPPINESS trial in adults with SCI (at least 50% of diverse backgrounds) through pre-specified targets for recruitment/enrollment, feasibility, and acceptability of design and outcomes. Using a Phase I randomized controlled trial design, 40 adults with SCI-related neuropathic pain will be randomized to 12-week remote Qigong intervention OR a short daily pain management survey that can be completed on phone/iPad/computer + 6-month follow-up. The study results will facilitate a rigorous structure to design larger effectiveness studies and facilitate a clear pathway for researchers to investigate Qigong and other mind-body approaches for whole-person health in diverse groups of adults with chronic/neurological disorders.

The purpose of this study is to assess the efficacy of non-invasive (transcutaneous) closed-loop electrical spinal cord stimulation for recovery of upper limb function (Aim 1) and spasticity (Aim 2) following spinal cord injury.

The purpose of this research is to test the effectiveness of a new therapy, called Brain-Computer Interface (BCI)-Transcutaneous Spinal Cord Stimulation (TSCS), for improving walking in people with an incomplete spinal cord injury (SCI).

The prevalence of autonomic dysfunction and sleep disordered breathing (SDB) is increased in individuals with spinal cord injury (SCI). The loss of autonomic control results in autonomic dysreflexia (AD) and orthostatic hypotension (OH) which explains the increase in cardiovascular related mortality in these Veterans. There is no effective prophylaxis for autonomic dysfunction. The lack of prophylactic treatment for autonomic dysfunction, and no best clinical practices for SDB in SCI, are significant health concerns for Veterans with SCI. Therefore, the investigators will investigate the effectiveness of mild intermittent hypoxia (MIH) as a prophylactic for autonomic dysfunction in patients with SCI. The investigators propose that MIH targets several mechanisms associated with autonomic control and the co-morbidities associated with SDB. Specifically, exposure to MIH will promote restoration of homeostatic BP control, which would be beneficial to participation in daily activities and independence in those with SCI.

The goal of this clinical trial is to learn whether robotic rehabilitation devices (ZEPU-AI2, AI4, AI6 Plus, and AI7A) are feasible, safe, and effective for adults with upper or lower limb motor problems. These problems can result from stroke, incomplete spinal cord injury, traumatic brain injury, or orthopedic surgery. The main questions it aims to answer are: Is robotic rehabilitation training safe and practical to deliver alongside conventional therapy? Does adding robotic-assisted therapy improve motor function, balance, gait, and independence in daily activities compared to conventional rehabilitation alone? What side effects or device-related problems, if any, occur during robotic training? The Investigators will compare a robotic-augmented rehabilitation group to a control group receiving conventional rehabilitation alone, to see if adding robotic therapy leads to better recovery. Participants will: Receive robotic-assisted therapy sessions three times a week for 12 weeks, each lasting about 45 minutes (robotic group), or continue with conventional rehabilitation alone (control group) Undergo assessments of movement, balance, walking ability, and daily function before and after the study period Be monitored for any side effects or complications related to the device or training

Spinal cord injury (SCI) results in lower limb muscle loss, bone loss, and high fat mass that impede the recovery of physical function, increase bone fracture risk, and worsen health and quality of life. These deficits result from reduced activity after SCI and may be worsened by low testosterone, which is present in many men with SCI. In older men with low testosterone who do not have SCI, testosterone therapy (TRT) is known to increase muscle mass, muscle strength, and bone mineral density, and to reduce body fat. However, it is not known if TRT is effective in men with SCI. The purposes of this study are to determine the effectiveness of TRT in men who have low testosterone and difficulty walking after chronic motor incomplete SCI and to assess whether a process in the body that changes testosterone to dihydrotestosterone (DHT; another hormone that is stronger than testosterone) impacts the effectiveness of TRT in the impaired lower limbs and in other tissues after SCI. The researchers hypothesize that TRT will improve muscle and bone in the impaired limbs of men with chronic incomplete SCI and reduce fat mass, and that finasteride (a drug that blocks that blocks a process that changes testosterone to DHT) will influence prostate symptoms but not the musculoskeletal or body composition benefits produced by TRT.

Chronic pain affects 1 in 4 US adults, and many cases are resistant to almost any treatment. Deep brain stimulation (DBS) holds promise as a new option for patients suffering from treatment-resistant chronic pain, but traditional approaches target only brain regions involved in one aspect of the pain experience and provide continuous 24/7 brain stimulation which may lose effect over time. By developing new technology that targets multiple, complimentary brain regions in an adaptive fashion, the investigators will test a new therapy for chronic pain that has potential for better, more enduring analgesia.

Lower limb motor dysfunction resulting from stroke, spinal cord injury, or other neurological disorders substantially limits mobility, independence, and quality of life. Robotic rehabilitation has emerged as a promising approach to provide intensive, repetitive, task-oriented training. The ZEPU-AI3 Lower Limb Feedback Training and Evaluation Robot is designed to deliver interactive lower limb training while providing real-time performance feedback. This pilot randomized controlled trial aims to evaluate the safety, efficacy, and feasibility of ZEPU-AI3-assisted rehabilitation combined with conventional rehabilitation compared with conventional rehabilitation alone in patients with lower limb motor dysfunction. The primary outcomes include safety, feasibility, and changes in lower limb motor function, gait performance, and functional mobility. The findings will provide preliminary evidence to support future large-scale clinical trials and the implementation of robotic rehabilitation in clinical practice.

Adaptive sports programs are integral components to combating Veteran isolation, promoting wellbeing and seeking to build teams, networks, communities. These activity-based communities are medicine free treatment systems enhancing Veterans' health from a holistic perspective. This approach to Veteran healthcare is critical as studies indicate Veterans not only have 56% higher perceived social isolation but are also 1.5x more susceptible to suicide than the general public. It is imperative to improve access to exercise and physical activity through adaptive sport or recreation. This proposal is going to focus on Adaptive Indoor Rowing for Veterans with limited or changing trunk stability (i.e. SCI/D, paralysis, paresis, etc.). Rowing is a unique full-body activity that increases cardiovascular demand and increases coordination and aerobic capacity through movement. This proposal aims to address critical gaps in adaptive rowing technology and provide Veterans with limited trunk stability access to full stroke adaptive rowing.

The study aims to examine the plausible interventional mechanisms underlying the effects of epidural spinal cord stimulation.

Chronic spinal cord injury (SCI) is a debilitating disorder in Veterans and the broader U.S. population that does not have a cure. Veterans with severe SCI demonstrate permanent loss of sensory and motor function below their injury resulting in decreased quality of life and independence. Recently, electrical spinal neuromodulation has emerged as a potential approach to restore voluntary motor function and locomotion in persons with chronic SCI. However, spinal neuromodulation has yet to translate to clinical use due to small sample sizes in research studies and a lack of information on which patients would benefit. Here, the investigators propose a novel approach to evaluate the priorities and barriers faced by Veterans with SCI to use spinal neuromodulation, understand the neural connections remaining in Veterans with severe SCI, and determine potential functional improvements using non-invasive spinal neuromodulation technology. This research represents the first step towards deploying techniques that could dramatically improve function and quality of life for Veterans with SCI.

This clinical trial aims to investigate whether the combination of high-frequency sacral nerve root magnetic stimulation and bladder-directed ultrasound therapy can effectively improve detrusor overactivity (involuntary bladder contractions) and related voiding dysfunctions in patients with spinal cord injury. The main questions it seeks to answer are: What is the effect of high-frequency sacral nerve root magnetic stimulation on detrusor overactivity and bladder function in patients with spinal cord injury? What is the effect of bladder-directed ultrasound therapy on detrusor overactivity and bladder wall compliance in patients with spinal cord injury? Is the combination of these two treatment modalities superior to magnetic stimulation alone?

The goal of this clinical trial is to evaluate safety and tolerability of multiple oral doses of EC5026 in male and female patients with neuropathic pain due to traumatic or non-traumatic (degenerative) spinal cord injury. The main question it aims to answer is whether EC5026 is safe and well tolerated in SCI patients with neuropathic pain. In addition, this trial will also study the effects of EC5026 on pain. Researchers will compare EC5026 to placebo. Participants will be asked to: * Take EC5026 or placebo in a masked fashion, once daily, for 14 consecutive days. * Undergo physical exams, vital signs assessments, ECGs, and blood draws * Complete assessments of pain, sleep, functional status, and perception of change

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.

The purpose of this study is to examine the relationship between common clinical assessments and measurements of the function of brain-spinal cord-muscle connections, and to examine the effects of training a brain-spinal cord-muscle response in individuals with incomplete spinal cord injury. A transcranial magnetic stimulator (TMS) is used for examining brain-to-muscle pathways. This stimulator produces a magnetic field for a very short period of time and indirectly stimulates brain cells with little or no discomfort. The target muscle is the wrist extensor (extensor carpi radialis) muscle that bends the wrist back. It is hypothesized that training the wrist extensor muscle response to transcranial magnetic stimulation will increase the strength of the brain-to-muscle pathway, which will improve the ability to move the arm. It is hoped that the results of this training study will help in developing therapy strategies for individuals, promoting better understanding of clinical assessments, and understanding treatments that aim to improve function recovery in people with spinal cord injury (SCI). This study requires 30 visits, and each visit will last approximately 1.5 hours.

The aim of this study is to investigate the potential of transcutaneous neuromodulation (TNM) to treat slow colonic transit and constipation, termed the Neurogenic bowel dysfunction (NBD), in people with SCI. In this project, the study team will investigate the impact of an active treatment intervention vs. a sham control intervention on NBD symptoms in patients with SCI. The study hypotheses: * The proposed TNM treatment at a leg point will reduce NBD symptoms between baseline and post-therapy, when compared to the sham-TNM treatment. * The therapeutic effect of TNM to improve the NBD symptoms is associated with improvement of the autonomic function in SCI patients.

The purpose of this study is to evaluate if a specific type of additional walking therapy, called body weight supported treadmill training (BWSTT) affects walking ability following a traumatic spinal cord injury. Specifically, the study will look at whether starting BWSTT, which uses a body harness to support body weight while walking on a treadmill at different times within the first 6 months after the injury, makes a difference in how effective this therapy may be, While we know that the brain re-learns patterns following an injury, there has not been a lot of prior research evaluating how starting this type of walking therapy at specific times within the first 6 months after injury may impact any effectiveness of the additional therapy. The study will randomize participants into four groups: those who start this therapy within 60 days, within 3 months, within 6 months or who do not receive this additional research therapy. Randomization means that which group you will be in as part of this study is determined by chance, like the flip of a coin. The additional walking therapy for this research study, if you are randomized for one of the three groups who receives the additional therapy, will be given on top of (meaning in addition to) any standard of care therapies that you may be receiving at that time point after your injury.

QUESTION. Does duroplasty improve outcome after spinal cord injury? WHAT DO WE STUDY? We will investigate whether performing a surgical procedure called duroplasty improves outcomes after spinal cord injury. WHY SPINAL CORD INJURY? Spinal cord injury is a devastating condition that causes permanent disability such as paralysis, numbness and loss of bladder and bowel control. Currently, there are no treatments shown to improve outcome after spinal cord injury. WHAT IS DUROPLASTY? Duroplasty is an operation that involves opening the tough membrane around the cord, called the dura, and stitching a patch of artificial dura to expand the space around the swollen cord. WHY IS DUROPLASTY BEING STUDIED? Based on our preliminary evidence, we think that the dura causes cord pressure after injury. We have shown in a small study of patients that performing this operation safely and effectively reduces pressure on the injured cord. WHO IS ELIGIBLE? Adult patients with severe spinal cord injuries in the neck who will have surgery within 72 hours. WHAT TREATMENT? Those who agree to take part will be allocated by chance (like tossing a coin) to standard treatment or standard treatment plus duroplasty. Some patients will also be asked to take part in a smaller study that involves placing probes at the injury site. WHERE? Initially, we will recruit patients from U.K. Major Trauma Centres. Most assessments will be done in U.K. Spinal Injury Centres. Later on, we we also started recruiting from overseas. HOW LONG? We aim to recruit 222 - 260 patients over 4 years. Patients will be followed up for a year. WHAT DO WE ASSESS? Patients will be assessed (using questionnaires and by examination) how well they can use their hands, walk, control their bladder and bowel and their quality of life. Some of these assessments will be repeated at 3, 6 and 12 months after surgery. WHAT IS THE OPTIONAL MECHANISTIC STUDY? DISCUS includes an optional study for at least 50 patients who will take part in the randomised controlled trial. The aim of the mechanistic study is to determine how duroplasty improves outcome, i.e. whether duroplasty reduces cord compression, improves blood flow to the injured cord perfusion, improves cord metabolism and reduces cord inflammation. WHAT IS THE OPTIONAL INFORMATION STUDY? For the first two years, a study called QuinteT Recruitment Intervention (QRI) is designed to optimise patient recruitment and informed consent in the trauma setting.

Project Summary/Abstract Obesity and metabolic syndrome (obesity, dyslipidemia, hyperglycemia, hypertension) are epidemic in the spinal cord injured (SCI) population. A recent study assessing the body composition and metabolic syndrome rates of 72 motor complete chronic SCI individuals revealed an obesity rate of over 90% and a metabolic syndrome rate of 60%. These results are significantly higher than in the general population. As such individuals with SCI typically have systemic inflammation and an accelerated trajectory towards cardiometabolic disease, and early mortality. Although the accelerated trajectory is multi-factorial, substantial evidence implicates sedentary behavior and low physical activity levels as significant contributing factors. Exercise strategies for individuals with SCI have included upper body arm crank exercise (ACE), functional electrical stimulation leg cycling exercise (FES-LCE), or a combination of the two (FES Hybrid Exercise). These modalities have yielded modest improvements in physical fitness and cardiometabolic risk profiles in individuals with SCI. FES-LCE reportedly increased lean-to-fat mass ratio, enhanced peripheral blood flow and vasoreactivity, and increased bone mass in the paralyzed legs. In addition, FES-LCE improves metabolic function as evidenced by increased glucose disposal. There is evidence that high-intensity interval training exercise can increase muscle mass and improve cardiovascular fitness with considerably less time commitment than non-interval activities. However, given many individuals with SCI respond poorly to the onset of training a primer exercise program for the extremely deconditioned muscles is recommended for optimal results. The investigators intend to investigate the optimization of benefits by using a novel hybrid FES cycling protocol (FES legs cycling plus voluntary arms cycling) combined with high intensity interval training (HIIT) and preceded by a preparatory muscle strengthening program called "peripheral remodeling intermittent muscular exercise (PRIME) to prepare the deconditioned muscles for the more intense exercise in the hybrid HIIT-FES cycling program. The investigators hypothesize that individuals in the PRIME + hybrid HIIT-FES cycling program will demonstrate significantly greater cardiometabolic health and functional benefits than the control group receiving standard of care range of motion exercises.

The purpose of this study is to learn whether stimulation applied to the spinal cord through the skin (called transcutaneous spinal stimulation) can help control blood pressure in people with a spinal cord injury. The main questions this study attempts to solve: 1. What are the immediate effects of spinal cord transcutaneous stimulation on BP? 2. Does stimulation produce lasting improvements in BP regulation and subsequently, daily function?

The aim of our study is to investigate the effect of different protocols of high-frequency Repetitive Transcranial Magnetic Stimulation (rTMS) therapy added to the rehabilitation program on neuropathic pain,depression, quality of life and quality of sleep compared to each other and placebo group in participants with spinal cord injury.

People with brainstem stroke, advanced amyotrophic lateral sclerosis (ALS, also known as Lou Gehrig's disease), or other disorders can become unable to move or speak despite being awake and alert. In this project, the investigators seek to further translate knowledge about interpreting brain signals related to movement, and to further develop an intracortical brain-computer interface (iBCI) that could restore rapid and intuitive use of communication apps on tablet computers by people with paralysis.

The overarching goal of this research study is to evaluate a sensor-enabled, just-in-time adaptive intervention (JITAI) strategy to increase and sustain physical activity levels among individuals with spinal cord injury (SCI) in their communities. A primary objective of this study is to evaluate the integration of a JITAI with a web-based physical activity intervention program. We hypothesize that the integration of web-based physical activity intervention program with JITAI will result in significantly higher physical activity levels compared to the standard web-based physical activity intervention program alone. A secondary objective of this study is to extend existing algorithms that use commercial wearable technology to robustly detect physical activity behaviors to facilitate the delivery of tailored just-in-time actionable feedback and physical activity recommendations for individuals with SCI.

The purpose of this study is twofold: (1) Develop a new evaluation scale for mental body representations (MBR, i.e., body awareness and visuospatial body maps) for adults with spinal cord injury (SCI) with and without neuropathic pain. (2) Assess the psychometric properties of usability, reliability, and validity of the new evaluation scale This is a cross-sectional observational study design. For Aim 1, this study will involve initial item generation for a novel MBR evaluation scale for SCI through email communication, and individual interviews proctored remotely through Zoom, or, if preferred by the participant, in-person. For Aim 2, the study will include a Zoom call for consenting and questionnaires, as well as an in-person visit where participants will be tested with the new SCI-BodyMap evaluation scale, and a questionnaire asking about the usability and satisfaction of the new evaluation scale.