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BRE-SPAD at Western Washington University

open

NIGMS - National Institute of General Medical Sciences

Abstract Western Washington University (WWU) seeks BRE-SPAD funding to strengthen its research infrastructure and expand faculty and student engagement in biomedical research. As a Predominantly Undergraduate Institution (PUI) with a strong commitment to liberal arts education, WWU has seen steady growth in research activities in the past several years. Research expenditures have almost doubled in less than a decade from $8.5 million in 2014 to $15.9 million in 2023. Yet, WWU’s biological, biomedical, and health sciences R&D expenditures were only $864,000, representing just 5% of total institutional R&D expenditures. WWU will use BRE-SPAD funding to address several institutional challenges, including high teaching loads, lack of key research equipment, limited pre- and post-award administrative support, no central system for recruiting students into undergraduate research opportunities, and a lack of dedicated research development programming. The proposed SPAD initiative at WWU will enhance research capacity through the following specific aims: 1) Improve sponsored programs administration capacity by hiring a new research administrator, training all pre- and post-award staff on NIH proposal submission and award management best practices, and learning from an external evaluation process to improve overall research administration and research development services. 2) Enhance WWU’s research environment by establishing the Viking Biomedical Research Institute (VBR), hiring a program manager, purchasing key biomedical research equipment and supplies, training biomedical faculty in effective NIH research design and proposal writing, incentivizing faculty to develop new course- based undergraduate research experiences (CURES), and creating a centralized mentoring hub for students interested in pursuing biomedical research. and 3) Launch a pilot research project funding program by offering pilot awards, providing faculty release time to focus on research activities, providing resources for undergraduate student participation in the research projects, and enabling faculty to collect data and conduct preliminary analyses that will make subsequent NIH proposals more competitive. By achieving these aims, WWU expects to catalyze a significant increase in the number of faculty – and faculty from a wider range of disciplines – who submit NIH proposals, growth in biomedical research expenditures, increased student participation in biomedical research, an increase in the number of students who graduate with biomedical and health-related degrees and qualifications to enter the regional biomedical workforce, and the establishment of a sustainable and robust biomedical research enterprise.

Up to $599K
2031-01-31
health research

Free to search & build · $99 one-time to unlock the application pack · No subscription

Bridges2Scale: Testing implementation strategies for an intervention among young people affected by AIDS

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NICHD - Eunice Kennedy Shriver National Institute of Child Health and Human Development

PROJECT ABSTRACT Sub-Saharan Africa (SSA), a region dominated by low-resource communities and relatively poor families, is experiencing rising HIV prevalence among adolescents and youth (AY). Household economic hardships heighten the risk for AY’s engaging in health-compromising behaviors and their poor engagement with care. This increases their risk for contracting and transmitting HIV and non-adherence to ART treatment. Economic empowerment (EE) interventions have demonstrated substantial promise in reducing HIV-related risk-taking behaviors, and improving ART treatment adherence and mental health outcomes. Based on 10+ years of research utilizing savings-led EE interventions focused on HIV prevention, care and support for AY affected by HIV [AYaAIDS] (including AY living with HIV [AYLHIV]; and AY orphaned by AIDS [AYoAIDS] in SSA, our group has demonstrated the effectiveness of a multi-component EE intervention, Bridges, in four NIH-funded randomized control trials (RCT) in Uganda (R01 HD070727, R01HD074949, R34MH081763, R01MH113486), and one foundation-funded study in Kenya. Bridges involves: 1) financial literacy training (FLT) and mentorship; 2) family income-generating activities (IGA); and 3) incentivized savings via a matched Youth Development Account (YDA). Bridges has demonstrated robust effects on HIV-related risk-taking behaviors, ART adherence, mental health, psychosocial outcomes, educational achievement, family economics, and family cohesion. Yet, scaling EE interventions has been a challenge, signaling the need to identify and test scale-up strategies and examine determinants of implementation and sustainment. In Bridges2Scale, we will compare two multifaceted strategies (standard vs enhanced) for scaling Bridges in a two-arm Hybrid III effectiveness-implementation cluster RCT. The standard implementation strategy has been applied in our prior RCTs and involves educational meetings that prepare staff to deliver Bridges with minimal disruption to site workflow. This will be compared to an enhanced strategy that will be developed using Implementation Mapping. We will use the public school system to recruit 1440 AYaAIDS (ages 13-17 years) from 48 schools in the Greater Masaka region of Uganda, a region with 11.7% HIV prevalence. Schools will be the unit of randomization (n=24 schools per arm; n=720 students per arm). Four specific aims guide our study: Aim 1. Compare the implementation effectiveness of the standard implementation strategy vs. an enhanced implementation strategy; Aim 2. Determine the clinical effectiveness of Bridges implemented via a standard vs. enhanced implementation strategy; Aim 3. Explore implementation processes, mechanisms, and determinants; and Aim 4. Compare the cost and cost-effectiveness of the two implementation strategies. The study will address a critical challenge: how to best support the implementation, scale-up, and sustainment of EE interventions, which have been proven to be highly efficacious in improving youth-focused HIV prevention, care, and support outcomes, but are yet to be widely scaled up.

Up to $241K
2028-01-31
health research

Free to search & build · $99 one-time to unlock the application pack · No subscription

Bristol Eastern High School Culinary Arts

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City Of Bristol

Priority

Up to $1.0M
Rolling
Educationarts

Free to search & build · $99 one-time to unlock the application pack · No subscription

Bristol Eastern High School Culinary Arts

open

City Of Bristol

Priority

Up to $1.0M
Rolling
Educationarts

Free to search & build · $99 one-time to unlock the application pack · No subscription

Camptothecin analogs as "block and lock" agents for HIV

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NIAID - National Institute of Allergy and Infectious Diseases

Project summary/abstract Despite effective antiretroviral therapy (ART), people with HIV (PWH) continue to have chronic inflammation and comorbidities driven by low-level viral transcription from integrated HIV proviruses. Silencing this residual HIV activity could reduce immune activation and improve long-term health. Our long-term goal is to develop therapies that suppress HIV expression and inflammation in PWH on ART. Topotecan (TPT), a Camptothecin analog that inhibits Topoisomerase I, potently suppresses HIV transcription in latently infected T cells. Notably, TPT appears to inhibit HIV independent of its Topoisomerase I activity, suggesting an alternative mechanism of action. We will evaluate new Camptothecin analogs as HIV “block- and-lock” agents. Our central hypothesis is that these compounds can stably suppress HIV without harming host cells. We will pursue three aims: 1) Determine the mechanisms by which TPT inhibits HIV gene expression; 2) Identify new Camptothecin analogs with HIV inhibitory function; 3) Determine the longevity of Camptothecin analog-induced HIV suppression and validate their function using samples from PWH ex vivo. First, we will define how TPT blocks HIV by mapping epigenetic changes at the viral promoter (via CUT&RUN), testing Tat dependence, and assessing post-transcriptional effects like RNA stability and nuclear export (Aim 1). Second, we will screen Camptothecin analogs—with and without Topoisomerase I activity—to identify compounds that suppress HIV at low doses without cytotoxicity. Lead candidates will be validated in primary cells, and their mechanisms and off-target effects will be characterized (Aim 2). Third, we will test whether these compounds can durably silence HIV in latency models and in cells from PWH ex vivo (Aim 3). Completion of these studies will clarify how Camptothecin analogs suppress HIV and assess their therapeutic potential. We expect this work will enable the development of novel “block-and-lock” drugs that reduce persistent inflammation and improve health outcomes in PWH on ART.

Up to $719K
2031-01-31
health research

Free to search & build · $99 one-time to unlock the application pack · No subscription

Canonical and alternative functions of low-density lipoprotein in multiple myeloma

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NCI - National Cancer Institute

PROJECT SUMMARY Multiple myeloma (MM) remains an incurable malignancy in most patients, who will eventually relapse and become refractory to existing therapies. There is thus a critical need for therapeutic innovations that maintain remission and preserve patient quality of life. The tumor microenvironment (TME) of MM is within hypoxic bone marrow, which is intriguing because membrane biogenesis for proliferation is limited by available cholesterol. The synthesis of cholesterol is energy- and oxygen-intensive, and limited supply leads to resource competition between constantly dividing tumor and hematopoietic cells. This nutrient tug-of-war between tumor and nontumor cells in the MM-TME is evidenced by high rates of anemia and infection in MM patients. Separately, altered immune cell behavior results in immunosuppression, which is common in advanced and relapsing MM, and therapeutically underserved. Epidemiolocal studies indicate that low levels of plasma cholesterol are linked with MM progression, likely reflecting the high demand for sterols in the TME. All cells can rapidly increase cellular sterol levels and stimulate membrane biosynthesis through uptake of cholesterol-rich low-density lipoprotein (LDL). Most recently, it has been published that LDL also transport small RNAs that promote macrophage polarization by activating an endosomal sensor of RNA, toll-like receptor 8 (TLR8). Researchers demonstrated that pharmacologic antagonism of TLR8 shifted the immune landscape within atherosclerotic plaques and reduced disease burden in hyperlipidemic mice. Taken together, LDL is a nutrient-dense particle capable of supporting cell proliferation, and a source of extracellular sRNA capable of modulating immune cell function. The goal of this Stephen I. Katz Early-Stage Investigator Grant is to 1) determine whether LDL’s canonical functions in lipid transport directly enable MM growth, progression and therapeutic resistance, and 2) investigate whether LDL’s transport of small RNAs indirectly enables MM progression through activation of TLR8 in host leukocytes to create an immunosuppressive TME. In agreement with the funding mechanism, this proposal represents an ambitious new direction for our laboratory supported by rigorous work in the literature and an ensemble of experienced collaborators and clinicians that reflect the tremendous environment for translational MM research at our institution. We will harness this translational power by using innovative approaches to humanize lipoprotein metabolism in proven pre-clinical models of MM, and by combining state-of-the-art bioinformatic, imaging, and single-cell immune profiling approaches, to test the therapeutic synergy of safe, effective, and FDA-approved, LDL-lowering drugs with standard-of-care chemotherapy. Mice are used in this study because it is not possible to fully recapitulate the complex patho-physiological state of myeloma disease, which involves multiple cells, tissues and organs, using cultured cell models. The validity of mice as an animal model for studying the pathophysiology and treatment of myeloma disease has been supported by extensive literature showing that cellular and molecular features of myeloma disease in mice are similar to those in humans. Upon completion, this award will fill a critical gap in knowledge of how LDL contributes to a pro-malignant TME, and more specifically how lipoprotein disequilibrium contributes to immunosuppression in MM. We envision that these data will be leveraged to open many new research opportunities for diagnostic and therapeutic approaches for MM, and perhaps, other malignancies.

Up to $402K
2031-07-31
health research

Free to search & build · $99 one-time to unlock the application pack · No subscription

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