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Back Pain clinical trials at University of California Health

11 in progress, 8 open to eligible people

Showing trials for
  • Biofeedback Retention in Individuals With AKA

    open to eligible people ages 18-70

    More than two million Americans are currently living with a full or partial limb loss, and an additional 185,000 amputations occur each year. The majority of amputations occur in the lower limbs. There are many potential causes for amputation, but the majority can be attributed to vascular diseases, such as diabetes, traumatic injury, and cancer. For these individuals, prosthetic devices play an important role in restoring mobility and enabling them to participate in everyday activities. However, when learning to use these devices, patients often alter their movement patterns to compensate for pain or discomfort, a decreased ability to feel what their prosthetic limb is doing, and/or a fear of falling. By changing their movement patterns, patients will tend to am their intact leg, which has been shown to lead to long-term joint damage and chronic injury. For perspective, 75% of United States veterans living with amputation are diagnosed with a subsequent disease affecting their muscle, bone, and/or joint health. Therefore, therapy sessions, known as gait retraining, are an integral part of teaching prosthesis users to walk in a safe and efficient manner. With recent advances in wearable technology, researchers and therapists have begun exploring the use of biofeedback systems to assist with this retraining. In these systems, wearable sensors are used to measure how the patient is moving in real-time, and can provide information on how much time they spend on each leg and how much each joint moves during walking. Biofeedback refers to the process of communicating the information from these sensors back to the patients instruct them whether they need to change their movements. Previous research has shown that these systems have excellent potential for helping patients with physical disabilities improve their quality of motion. However, relatively little research has explored how well individuals with above-knee leg amputations respond to biofeedback during gait retraining. Importantly, the question of whether the new movement patterns taught using biofeedback will persist after training has finished remains unanswered. Therefore, the primary objective of this research is to determine whether biofeedback is a feasible tool for gait retraining with above-knee prosthesis (including a prosthetic knee, ankle, and foot) users. To answer these questions, forty individuals currently using above-knee prosthetic systems will undergo a single session of biofeedback training. Half of these populations will be from the civilian population, and half will be military veterans. During this training, the biofeedback system will apply short vibrations - similar to those generated by cellphones - to their skin every time that the patient reaches the desired degree of hip rotation during walking. Participants will be instructed to keep increasing their hip motion until they feel a vibration on every step. Before training, they will be instrumented with a wearable motion captures system, pressure sensors embedded in their shoes, and a wearable heart rate monitor. Using these devices, researchers will measure the participants' walking patterns without biofeedback determine their current ability. Once training is complete, their walking patterns will be measured again, first while using the biofeedback system, and then again fifteen minutes and thirty minutes after the biofeedback system has been removed. The data measured during these tests will enable researchers to calculate functional mobility scores that are used to evaluate the quality of a patient's walking, and then compare how these scores change before, during, and after biofeedback training. The knowledge gained through this research constitutes a critical step towards identifying optimal biofeedback strategies for maximizing patient mobility outcomes. The findings will be essential for the development of gait retraining protocols designed to reduce the incidence of chronic injury, and enable patients to achieve their full mobility potential. Building on these results, the next research phase will be to incorporate biofeedback training into a standard six-week gait retraining protocol to evaluate its long-term effectiveness as a rehabilitation tool. Unlike traditional gait retraining, which requires patients to visit clinics in-person for all sessions, the wearable, automated nature of biofeedback training will allow patients to continue gait training from home. This ability will enable patients to continue training activities between sessions, and ultimately may be able to substitute for some in-person visits. This potential for remote therapy has exciting implications for improved access to care for individuals living long distances from their rehabilitation providers, or those suffering from social anxiety, as well as during global health pandemics where in-person visits are difficult.

    at UCSF

  • DBS of the SCC for the Treatment of Medically Refractory CLBP

    open to eligible people ages 40-75

    The purpose of this study is to evaluate the feasibility and preliminary efficacy of deep brain stimulation of the subgenual cingulate cortex for the treatment of chronic medically-refractory low back pain using a randomized double-blind crossover design.

    at UCLA

  • Phenotyping Response to Spinal Cord Stimulation in Chronic Low Back Pain

    open to eligible people ages 18-80

    Chronic low back pain (CLBP) is a debilitating condition and costly to treat. Long-term drug treatment often fails due to habituation, breakthrough of pain, or adverse effects of drug treatment. Opioid use to manage this pain has contributed to the opioid epidemic. Spinal cord stimulators have emerged as a promising treatment and reduces reliance on drugs. However, response to spinal cord stimulation (SCS) is unpredictable. It is difficult to predict which patients will respond positively to SCS because the physiological mechanism for treatment responsiveness is unclear. Therefore, the aim of this study is to investigate how spinal cord stimulators affect functional measures in patients with CLBP, including functional MRI, neurophysiology, gait analysis, and questionnaires. The results of this study can lead to the widespread adoption of spinal cord stimulators as a safe and effective therapy for CLBP, reducing the reliance on opioids and mitigating the opioid epidemic's impact.

    at UCLA

  • Photobiomodulation for Lower Back Pain Post Spinal Fusion and Decompression Surgery

    open to eligible people ages 18-75

    After spinal fusion and decompression surgery there is a possible risk of developing chronic back pain. After surgery there is typically inflammation around the operation site and this inflammation can be painful and debilitating to patients. Many possible treatment plans have been incorporated to assist the patient with recovery - notably medications, physical therapy, and braces. However, few studies have looked at laser diodes that utilize high-power laser lights that are aimed at decreasing pain and inflammation. Investigators aim to look compare patients using a back brace with laser diodes within versus those who wear a normal brace used as a placebo. Investigators will also assess the patient's surgical wound to monitor the progression of wound healing while using the brace.

    at UCLA

  • Psilocybin Therapy for Chronic Low Back Pain

    open to eligible people ages 25-70

    This study evaluates whether psilocybin therapy helps patients cope with chronic low back pain more effectively. Patients may be recruited at Stanford and University of California San Francisco (UCSF), study procedures will occur at UCSF. Each participant will receive a dose of psilocybin with possibly one or more other drugs. Participants will undergo two preparation sessions, a dosing session, three integration sessions to discuss their psilocybin experience, and several follow up sessions.

    at UCSF

  • Transcutaneous Spinal Cord Stimulation for Chronic Low Back Pain

    open to eligible people ages 21-85

    As a leading cause of disability worldwide, chronic low back pain (cLBP) represents a significant medical and socioeconomic problem with estimated health care spending of $87 billion/annually. The efficacy of dorsal column electrical stimulation to inhibit pain was first described over 50 years ago. Since then, several large clinical trials have investigated the therapeutic potential of electrical spinal cord stimulation (SCS) and found that over 70% of patients with intractable pain had over 50% pain relief after 1 year of treatment. Thus, SCS is a promising therapeutic intervention that has superior patient outcomes when compared to traditional modalities for the treatment of cLBP. To date, SCS for treatment of cLBP has been delivered via epidural electrodes, requiring neurosurgical implantation. Although, the implantable stimulators have a low rate of adverse events, secondary complications associated with surgical intervention still occur.Transcutaneous spinal cord stimulation (tSCS) is a rapidly developing non invasive neuromodulation technique in the field of spinal cord injury. Its application potentiates lumbosacral spinal cord excitability enabling motor functions, (e.g. independent standing, postural control) in patients with chronic complete motor paralysis. Given that epidural and transcutaneous SCS activate similar neuronal networks, tSCS for cLBP treatment may be advantageous due to its non-invasive nature which may also allow for a mass market production and rapid patient availability if tSCS is proven efficacious. In this pilot study we will establish the feasibility of tSCS to acutely improve patient reported outcomes (pain scores) and several objective measures, including sit-to-stand biomechanics, neurophysiological and neuroimaging outcomes.

    at UCSF

  • Brain Imaging Biomarkers for Response to Spinal Cord Stimulation in Patients With Chronic Low Back Pain

    open to eligible people ages 21 years and up

    In this protocol, "Brain imaging biomarkers for response to Spinal Cord Stimulation in patients with chronic low back pain," the investigators plan to perform brain mapping studies in 42 patients who are undergoing spinal cord stimulation (SCS) for chronic low back pain (CLBP) as part of the participants normal clinical care during a 2-year period. This imagining study is completed for research purposes. There is no standard of care imaging for the participants. This study requires two visits in total. During the baseline visit, participants will undergo imaging acquisition protocol and corresponding assessments. Participants will have another follow-up visit (potentially remotely) for final assessments two weeks after the SCS treatment. The objective of the study is to investigate potential imaging biomarkers that can predict response to the SCS treatment. Specifically, the investigators hypothesize that the connectivity of a certain region of the brain (specifically the subgenual cingulate) prior to SCS may serve as a possible pre-operative imaging-based biomarker on response to SCS. The findings of the study may further enhance investigators understanding of the connectivity between brain areas that are critical to the therapeutic response to SCS in CLBP patients and that can be used as a putative biomarker to select patients who may respond to SCS.

    at UCLA

  • Rehabilitation Program in Individuals with Spine Pain

    open to eligible people ages 18-89

    SpineZone is an innovative physical therapy program with its focus on treatment of cervical, thoracic, and lumbar conditions through the use of a multi-disciplinary, technology enabled platform. Standard physical therapy modalities including psychologically informed physical therapy are employed in addition to online coaching with a fundamental tenant of core strengthening. Treatments are tracked and modified in a multi-disciplinary format taking all radiographic studies into direct consideration. The goal of this study is to utilize a registry of participants undergoing either in-clinic or online rehabilitation treatment for spine pain at the SpineZone clinical in order to understand the clinical outcomes and costs of different rehabilitation modalities in this patient population.

    at UCSD

  • Mindfulness Based Pain Reduction

    Sorry, in progress, not accepting new patients

    This is a development study with clinical outcomes. The investigators aim to develop and test an 8-week MBPR (Mindfulness-Based Pain Reduction) program, which draws on intervention work and clinical experience in the investigative team to optimize a mindfulness-based intervention for individuals with chronic pain. The overall goal of this study is to ensure that the MBPR program has been carefully refined and manualized in an in-person setting before performing clinical trials comparing MBPR to MBSR (Mindfulness-Based Stress Reduction) to test whether it improves pain outcomes. This study includes a Pain Attention Task that separates insula activation during experimental heat application between different pain attention conditions.

    at UCSF

  • BEST Trial: Biomarkers for Evaluating Spine Treatments

    Sorry, in progress, not accepting new patients

    The BEST Trial (Biomarkers for Evaluating Spine Treatments) is a NIAMS-sponsored clinical trial being conducted through the NIH HEAL Initiative's Back Pain Consortium (BACPAC) Research Program. The primary objective of this trial is to inform a precision medicine approach to the treatment of Chronic Low-Back Pain by estimating the optimal treatment or combination of treatments based on patient features and response to the initial treatment. Interventions being evaluated in this trial are: (1) enhanced self-care (ESC), (2) acceptance and commitment therapy (ACT), (3) evidence-based exercise and manual therapy (EBEM), and (4) duloxetine.

    at UCSD UCSF

  • Influence of a Protein Nutrition Beverage on Exercise-based Rehabilitation Outcomes in Individuals with Spine Pain.

    Sorry, currently not accepting new patients, but might later

    SpineZone is an innovative physical therapy program with its focus on treatment of cervical, thoracic, and lumbar conditions through the use of a multi-disciplinary, technology enabled platform. Standard physical therapy modalities including exercise-based rehabilitation as well as patient education on a healthy lifestyle (sleep, nutrition, posture) are employed as part of the standard treatment. As nutrition is a key element in modulating muscle growth and function in response to exercise, providing patients with appropriate access to nutritional supplements that meet the metabolic demands of our exercise program are potentially important to our clinical outcomes.

    at UCSD

Our lead scientists for Back Pain research studies include .

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