The integrated Translational Health Research Institute of Virginia (iTHRIV), a National Institutes of Health (NIH)-funded Clinical and Translational Research Award hub, has awarded $200,000 in pilot funding across five multi-institutional research projects that include Virginia Tech scientists.
Teams of physicians, researchers, sustainability experts, and software engineers at Virginia Tech, the University of Virginia School of Medicine, Inova Health System, and Carilion Clinic were awarded the funds as part of the iTHRIV NIH-National Center for Advancing Translational Sciences award.
Support of these early phase research projects will help accelerate the discovery of potential treatment options for obesity, lung transplantation, and mental health, as well as an innovative approach to reducing surgical waste.
The awarded pilot projects include:
Combating chronic obesity
Obesity treatments have advanced in recent decades, yet obesity remains a major public health concern. The signaling pathways between the gut and the brain present a novel and potentially powerful therapeutic target for obesity and metabolic diseases. Alexandra DiFeliceantonio, assistant professor and associate director of the Center for Health Behaviors Research at the Fralin Biomedical Institute at VTC, proposes to test the fidelity of gut-brain signaling to see where signal deterioration occurs across a range of body mass indexes and in states of altered metabolic heath. Her team will collect behavioral and functional MRI data from all participants. The data will provide evidence for gut-brain signaling as a therapeutic target in obesity treatments, allowing the development of state-of-the-art tools to measure metabolic health.
Brain pathways of self-harm
Self-harm behaviors are particularly prevalent among young adults and are often accompanied by an elevated risk of suicide. The roots of self-harm are primarily found in early life trauma. Sora Shin, assistant professor at the Fralin Biomedical Research Institute, is partnering with Michael Scott, associate professor in the Department of Pharmacology at the University of Virginia School of Medicine, to determine the neural circuitry involved in self-harm behaviors that are modified by early life trauma in mice.
By using genetic manipulation to turn on and off certain calcium channels, the team will be able to study the specific neuronal cell types and pathways that cause self-harm behaviors and how those pathways change when exposed to early life trauma.
Reducing operating room waste
In the operating room, single-use, sterile surgical supplies are opened onto the scrub table but only a fraction are used during surgery. The unused supplies are disposed of as biohazard waste, requiring sterilization or incineration prior to being sent to the landfill. Systematically identifying any unused single-use, sterile surgical supplies at the end of surgery is time intensive and involves handling potentially contaminated objects, so it is rarely done.
In this project, Matthew Meyer, assistant professor in the Department of Anesthesiology at the University of Virginia School of Medicine, is partnering with various professors to develop computer-vision software capable of distinguishing between supplies that were used and those that remain untouched. The team will thus be able to quantify the waste and then develop solutions that improve the behaviors that cause the waste, saving resources and money while diverting waste from the incinerator and landfill.
Assessing telepsychiatry
Carilion Clinic Psychiatry and Virginia Tech Psychology departments have been successfully using Patient Reported Outcome Measures (PROMs) to assess the severity of mental illness and health outcomes after in-person psychiatric treatments.
A research team led by Anita Kablinger, clinical trials research director at Carilion Clinic, and Lee Cooper, clinical associate professor and director of the Psychological Service Center and the Adult Assessment Clinic in Virginia Tech’s Department of Psychology in the College of Science, proposes creating a control group in which patients awaiting treatment will be randomly assigned to one of two control groups: One group will complete PROMs monthly and have access to microlearning patient education videos, and a second group will not receive intervention but will complete the PROMs upon admission to the waitlist and right before being seen by a provider. This will allow the team to assess the influence of telepsychiatry treatment and the effect of repeated PROMs, offering indications for continued availability of PROMs in conjunction with telepsychiatry services post-pandemic.
Identifying lung transplant rejection early
Lung transplantation is a critical therapy for many patients with end-stage lung diseases. Unfortunately, it is far from perfect, and many transplant recipients die from rejection of the organ meant to save them. Rejection occurs because the recipient’s body perceives the donor’s lungs as foreign and mounts an attack against them. If physicians were able to detect the early phases of rejection and aggressively treat it, they would be able to provide the longest survival benefit to the recipients. A research team led by two University of Virginia School of Medicine researchers, will use a specialized MRI technique they developed called hyperpolarized gas MRI (HGMRI) to visualize and detect lung abnormalities. The team proposes to use HGMRI during bronchoscopy in lung transplant patients to target areas of the lung for sampling. With more effective lung sampling, guided by HGMRI, the team hopes to enable an early, accurate diagnosis of rejection. If rejection can be detected proactively, therapies can be implemented earlier to improve survival.
