Funded Projects

Chronic low back pain is difficult to diagnose and treat effectively in part, because of the interplay of biophysical and psychosocial influences that complicate the relationship between impairment, disability, and pain. Psychological factors such as fear of movement and catastrophyzing can lead to compensatory movement patterns that affect movement biomechanics and paraspinal structure and function, driving further impairment, disrupting the balance between passive and active spine stabilizers, and reinforcing the patient?s perceived disability status. This study will support research to determine how psychological factors, spinal pathology, and perception of pain severity and disability status influence compensatory movement strategies, how movement biomechanics, psychological factors, and pain mechanisms relate to paraspinal muscle quality, and their relative changes during treatment. The supplement will provide training opportunities for skills in clinical pain management research.

This International Cooperative Biodiversity Group application aims to discover and develop small molecule drug leads from cultured marine microbes and diverse coral reef organisms collected from Fiji and the Solomon Islands. Drug discovery efforts will focus on four major disease areas of relevance to the United States and low- and middle-income countries: infectious disease, including tuberculosis and drug-resistant pathogens; neglected tropical diseases, including hookworms and roundworms; cancer; and neurodegenerative and central nervous system disorders. Screening in these therapeutic areas will be performed in collaboration with two major pharmaceutical companies, two highly respected academic groups, and various testing centers and government resources that are available to facilitate drug discovery and development. The acquisition of source material for this program will be linked to biotic surveys, informed by ecological investigations addressing the chemical mediation of biotic interactions, and enriched using ecology-based strategies designed to maximize secondary metabolite production and detection.

An International Cooperative Biodiversity Group with an interdisciplinary leadership team of physicians, pharmacologists, evolutionary biologists, and chemists will discover and develop therapeutic agents produced by Brazilian symbiotic bacteria. The team will target three therapeutic areas: 1) infectious fungal pathogens, 2) Chagas disease and leishmaniasis, and 3) cancers of the blood. All three areas represent major threats to human health that need to be addressed with new therapeutic agents. Internationally, invasive fungal diseases kill more people than malaria or TB, while Chagas disease imposes a special burden on Brazil, killing as many Brazilians as TB. Leishmaniasis has now passed Chagas disease in the Brazilian population. Despite major improvements in cancer chemotherapy, cancer is projected to result in 8 million deaths internationally this year (13% of all deaths, WHO) and an estimated 13 million per year by 2030.

The goal of this project is to generate data and reagents that help uncover critical functions of the poorly characterized members of ion channels. It focuses on co-perturbation of ion channel genes and their interacting genetic components as opposed to singly altering ion channel genes in mouse models. This approach will validate our proteomics approaches in the most definitive manner: in vivo. We see in vivo exploration as an essential step to evaluate ion channel function. Our major aims include mapping ion channel interactions and complexes using a high-throughput proteomics platform at UCSF. These data will be interrogated using integrative approaches established by the Monarch Initiative, where biochemical interactions will be validated and prioritized for further study. Another major aim is function-centric: We use mouse models for elucidation of human disease mechanisms, where we embrace a genetic interaction scheme to uncover ion channel redundancy and polygenic effects.

Improving pain treatment for is a major goal of the NIH HEAL Initiative. This award supports an early career physician toward achieving a future in clinical pain research and in conducting phase II clinical trials focused on pain. Research activities will provide this individual with the skills needed to serve as a primary investigator for future clinical trials in chronic pain and will help to answer a key question that could improve the design of analgesic clinical trials for neurogenic intermittent claudication, a distinct form of chronic low back pain for which no available treatment exists.

There is a clear public health imperative to improve the care and outcomes of people who experience severe acute and chronic pain. The Early Phase Pain Investigation Clinical Network (EPPIC-Net) is charged with conducting deep phenotyping and biomarker studies for specific pain conditions – and with conducting high-quality phase II clinical trials to test novel non-opioid pain treatments with academic and industry partners. This research will extend EPPIC-Net’s current portfolio to develop novel and efficient data-analytic methodologies for complex medical data, such as those that are expected to be generated by the clinical trials conducted by EPPIC-Net.

Key goals of the NIH HEAL Initiative are improving non-opioid pain management and expanding the workforce of clinical researchers working on individualized pain treatments know as pain precision medicine. This award enables an exceptional early career clinician with the opportunity to obtain expertise with high-quality pain-related biomarker assessment methods and biomarker-informed clinical trial design. This research centers on eating-related gastrointestinal functional/motility pain disorders – an understudied area of clinical pain science – and will prepare the clinician to be a future leader in the clinical pain research community.

There are significant and persistent gaps in knowledge about effective pain management for acute and chronic sickle cell pain. This is an area of relevant interest for the NIH HEAL Initiative's Early Phase Pain Investigation Clinical Network (EPPIC-Net). In order to provide guidance for hospital-based administration of the medication ketamine, this project will conduct a cross-sectional survey study of healthcare professionals within EPPIC-Net who provide care for people with sickle cell disease. This information can be used to design a clinical protocol for a multisite, randomized clinical trial of sub-anesthetic (low) doses of ketamine for challenging vaso-occlusive episodes (“pain crises”) in people with sickle cell disease.

A significant gap exists in understanding of the barriers blocking access to specialized care for children of color who experience headaches, as well as to understand and appreciate the impact of undertreatment on a child’s functional ability and quality of life. Long-term, this research aims to understand these barriers to care and test interventions to remedy disparities. As the first step, this project's primary objective is to identify socioeconomic and clinical factors that lead children experiencing headache to seek care in an emergency department in lieu of outpatient neurology care. The results of this research will help to inform efforts to reduce the negative effects of emergency department overuse in this population and guide them to potentially more appropriate outpatient care.

This research seeks to develop a high-resolution spinal cord stimulation therapy for treating chronic neuropathic pain of the lower extremities, groin, and lower back. Systems that use wireless communication methods require robust strategies to prevent various forms of cyberattacks on implantable devices. The focus of this project's research will be to develop a new cybersecurity risk-reduced architecture for Bluetooth low-energy implant communication.

Pain Coping Skills Training (PCST) uses a cognitive behavioral therapy (CBT) approach to teach patients cognitive and behavioral coping skills shown to reduce pain and pain interference (e.g., relaxation, distraction, cognitive restructuring, activity pacing). Randomized controlled trials show that PCST and similar CBT-based interventions, when delivered in a traditional in-person format, can improve pain and functioning in people with cancer and other conditions. Yet these interventions are underused in clinical care due to barriers such as high resource costs, a shortage of therapists trained to deliver them, and travel requirements for patients. This trial aims to deliver evidence-based behavioral pain interventions such as PCST with methods capable of overcoming barriers currently limiting patient access. This will be investigated using a two-arm trial comparing pain relief with the following interventions: painTRAINER in clinic with eight web-based follow-up sessions; enhanced usual care.