Funded Projects

Physical therapy is the recommended treatment for patients with low back pain and is a cost-effective method for improving pain and reducing disability. However, only 7-13% of patients receive physical therapy services. Access is particularly limited in rural communities due to lack of provider availability, transportation, and missed work time. These factors have contributed to more low back pain-related disability and opioid use among rural populations. Physical therapy delivered through telemedicine may improve access by reducing patient-reported barriers. This randomized clinical trial will compare an innovative, patient-centered telemedicine version of physical therapy to a currently used psychologically based educational approach for rural patients with chronic low back pain. The research will match individual patients to a treatment approach based on their psychosocial risk of poor outcomes.

Neuropathic pain is a debilitating and complex medical condition for which safe and non-addictive treatment options are urgently needed. This project aims to develop new strategies for treating neuropathic pain by controlling the activity of transmembrane protein 97 (TMEM97), also known as the sigma 2 receptor, which has been shown to relieve pain in an animal model of neuropathic pain. The research aims to develop a new molecule that increases TMEM97 activity and is safe for human use, toward obtaining approval from the U.S. Food and Drug Administration for Phase I clinical testing. 

Osteoarthritis is one of the most common joint diseases affecting Americans. Osteoarthritis is particularly high among veterans with a service-related disability. This project will develop and refine a wireless ultrasound device that increases the penetration of over-the-counter pain medications into the body, which is expected to reduce pain. The research will conduct safety and clinical testing toward commercializing this technology. 

This project provides protected time for training and research activities that are required for an independent scientific career in delivering evidence-based treatments for people with opioid use disorder. The increasing presence of fentanyl in the drug supply creates challenges for the use of buprenorphine, because both patients and physicians want to avoid causing withdrawal. This research will interview both patients and physicians to understand their concerns and experiences and work with them to develop a buprenorphine induction toolkit to help balance the advantages of buprenorphine treatment against concerns about the potential presence of unknown fentanyl. 

Opioid use during pregnancy is associated with adverse outcomes for pregnant individuals and offspring. The mechanisms through which these outcomes arise and the consequences of prenatal opioid exposure on child health and development remain largely unexplored. The HEALthy Brain and Child Development (HBCD) Study is a nationwide longitudinal prospective study of early child development that will assess a broad spectrum of biological, behavioral, social, and health factors among 7,500 pregnant women and their children from pregnancy to mid-childhood. This supplement will expand the biospecimen collection of the HBCD protocol at the University of North Carolina at Chapel Hill to include delivery specimens (placenta, cord tissue, and cord blood). This will provide an unprecedented resource-generating opportunity for the larger scientific community to comprehensively evaluate mechanisms that mediate the connection between substance use during pregnancy and adverse neonatal, infant, and/or maternal health outcomes and inform innovative preventive strategies.

Oral cancer pain is debilitating and difficult to treat, in part because even the most effective available pain remedies are limited by side effects. Opioid-based pain medications have several side effects including dependence and tolerance, in which the body gets used to a medicine so that either more medicine is needed or different medicine is needed. Another side effect is hyperalgesia, in which people taking opioids become more sensitive to certain painful stimuli and may misuse the drugs and risk addiction. This project will evaluate lab-made versions of cannabinoid molecules known to block pain signals in nerve cells, but which cannot enter the brain to cause neurological side effects. The research aims to advance promising versions of the molecules to testing in human research participants.

Currently there are no safe, rapidly acting treatments for methamphetamine use disorder and overdose. This project will evaluate a potential treatment: the small molecule CS-1103, which selectively attaches to methamphetamine in the blood. This molecule quickly removes methamphetamine blood and into urine for elimination from the body. The research will evaluate the safety and compatibility of CS-1103 with the human body, toward future clinical testing in humans. 

Although medications for opioid use disorder are effective and available, providers currently lack methods to monitor patients and thus inform improved dosing. This project will develop Strength Band Platform, an innovative artificial intelligence-based digital platform. The wearable device will collect patient physiological characteristics to detect relapse and withdrawal during treatment with medications for opioid use disorder in real-world settings. 

Providing housing and prevention services (often referred to as “housing first”) has great potential to prevent opioid use disorder, continued homelessness, and other problem behaviors among youth experiencing homelessness. However, implementation of these services is challenging because criminal justice system involvement (which is common in this population) often prevents or delays access to housing. This project will explore interactions between criminal justice system involvement and the housing first intervention, toward reducing risks for opioid use and death among justice-involved youth experiencing homelessness

Opioid use during pregnancy is associated with adverse outcomes for pregnant individuals and offspring. The mechanisms through which these outcomes arise and the consequences of prenatal opioid exposure on child health and development remain largely unexplored. The HEALthy Brain and Child Development (HBCD) Study is a nationwide longitudinal prospective study of early child development that will assess a broad spectrum of biological, behavioral, social, and health factors among 7,500 pregnant women and their children from pregnancy to mid-childhood. This supplement will expand the biospecimen collection of the HBCD protocol at the University of North Carolina at Chapel Hill to include delivery specimens (placenta, cord tissue, and cord blood). This will provide an unprecedented resource-generating opportunity for the larger scientific community to comprehensively evaluate mechanisms that mediate the connection between substance use during pregnancy and adverse neonatal, infant, and/or maternal health outcomes and inform innovative preventive strategies. 

Oregon ranks last in the United States for access to substance use services, having passed a novel ballot measure bringing unprecedented funding levels to expand services and decriminalize possession of personal amounts of substances. This project will develop and evaluate a strategy to inform development of the policy. Cross-sector participants (e.g., community service providers, law enforcement, advocates) will co-design protocols for linking and distributing substance use service data through reports, simulations, and dashboards. This research will test the usability of the developed products and their impact of DDS on service gaps, evidence-based decision-making, quality of evidence-based services, service recipient outcomes, and cross-sector collaboration. The research will also help state decision makers implement strategies for other substance use policies.

This project will develop PIDA, which will allow researchers to measure the activity of pain-sensitive human neurons in response to pain stimuli and potential pain treatments. The tool will use automated digital microscopes in the absence or presence of a potential pain medication. Since this tool contains human neurons, it may be more effective at predicting the efficacy of potential pain drugs in human patients than the animal models that are currently used.