BridgeUp HBCU NIH Funded R25AI170381
Join us for a virtual discussion and Q&A on the BRIDGE UP HBCU program open to all interested undergraduate students. We will hold this info session on February 21st, 2025 at 3:00 pm MDT/5:00 pm EST. Register HERE
Online Application System
Applications Now OpenApplications are open December 10, 2024 through March 15, 2025
If your referee prefers a confidential letter, have them email it to bridgeup@utah.edu with the applicants name in the subject line.
BRIDGE UP HBCU Program
BRIDGE UP HBCU provides an opportunity for students from Historically Black Colleges/Universities to begin or advance their research experience/career.
Summary of program
The BRIDGE UP–HBCU program at the University of Utah Summary is motivated by the need to provide trainees from HBCUs with exposure to the R1 research environment and all aspects of translational research. The program is designed to address three key needs of students from an HBCU in the transition from undergraduate to graduate education: acquiring deeper research experience, developing their ‘scientific identity’ and skills for success in the lab and academic settings, and building supportive long-term professional networks. In addition to preparing these students from HBCUs to enter PhD and MD/PhD programs, this program will also promote their retention beyond graduate education, through growth into mentors and role-models.
The aims for this program include 1. Build a career-long mentoring network, 2. Provide rigorous mentored research training as a foundation for pursuing graduate training, and 3. Prepare students for admission to doctoral programs by providing long-term access to scientific skills development.
The BRIDGE UP HBCU Program lasts 10 weeks beginning in late May and ending in early August. During the duration of the program, students will be paired with faculty mentor and work in their labs. This will allow students to get first hand research experience working in a lab. Additionally, students will work on their own summer research project with the guidance of their mentor and will present during the poster symposium at the end of the program. Students will have the opportunity to participate in clinical shadowing where students will get to shadow a provider(s) in areas that the student is interested throughout the University of Utah. Students will also have the opportunity to visit areas of Utah including Moab, Park City, and the Hogle Zoo.
Primary Objectives
Provide opportunities for HBCU students in research activities
Ensure students are trained mentored and equipped for Medical and/or Research careers
Increase the number of HBCU students in MD and MD/PhD programs as well as Pathology and Clinical and Translation Sciences.
Funding
The BRIDGE UP HBCU program is funded through grants from the National Institutes of Health (R25AI170381) and the Clinical and Translational Science Institute (R25TR004388) at the University of Utah. These grants fund program activities, provides stipends for students, travel and lodging for students, and program related supplies
Program Director
Dr. Keke Fairfax
Dr. Keke Fairfax is an Associate Professor of Microbiology and Immunology and Director of Research and Education Excellence and Success at the University of Utah. Her research areas include B Cells, Macrophages, Schistosomiasis, Maternal Infection, and Pathogenesis. Dr. Fairfax has been leading the BRIDGE UP HBCU program as the Program Director since summer 2021.
Contact Us
Program Activities
Orientation/Welcome Breakfast
After students arrive, they will join their mentors and near peer mentors for a welcome breakfast and orientation. Students will introduce themselves and be introduced to their mentor/near peer mentor as well as learning a little bit more about the program. After introductions, students will be escorted to the card office where they will receive their university badge that will allow them to access relevant buildings and public transportation.
Trip to Moab, Utah
Students will take a 3-day trip to explore southern Utah area of Moab. While on this trip students will go on several hikes and river rafts. To participate in river rafting, students will be required to complete a waiver. This waiver will be sent via email and will need to be signed and returned prior to the trip.
Visit to Red Butte Gardens
Students will be given a tour of the University’s Red Butte Garden. Red Butte consists of a botanical garden, arboretum, and amphitheater. It is one of the largest botanical gardens in the Intermountain West and is the state arboretum of Utah. https://www.redbuttegarden.org/
Visit to Park City, Utah
Students will visit Park City, Utah which is the location of the Sundance Film Festival, resorts, ski lodges, as well as Utah Olympic Park. Students will have an opportunity to tour Park City with the Program Director and mentors.
Wrap Up Picnic
Towards the end of the program, students, mentors, and near peer mentors will gather together to celebrate the end of the program.
Visit to Hogle Zoo
Students, program staff, and mentors will have the opportunity to attend the Hogle Zoo. The Hogle Zoo is located in Salt Lake City and houses animals from diverse ecosystems. https://www.hoglezoo.org/
Poster Symposium
During the duration of the program, students will be working on their own research project with their mentor and near peer mentor. This will involve running analyses on data that has been collected by the assigned lab. At the end of the program, students will present their poster at the Poster Symposium. Posters must be completed and submitted for printing no later than 4 business days prior to symposium to ensure that the poster is printed on time.
Journal Club
The journal club is designed to help students understand and discuss academic literature. Students will have the opportunity to be led in a discussion of academic journal articles by a rotation of University of Utah faculty members.
Writing Club
The Writing Club is designed to help students improve their academic and professional writing skills. This group is held once a week with Dr. Fairfax so that students may gain necessary tools and skills in writing.
Clinical Shadowing
Students will have an opportunity to shadow a faculty member/provider at the University of Utah in an area they are interested. By providing this experience, students will be able to hone their interests to determine which field they wish to pursue.
Post Program Evaluation Survey
At the end of the program, students will be sent a survey to provide their feedback around the BRIDGE UP HBCU program at the University of Utah. This feedback allows Dr. Fairfax to gauge what is going well is the program and necessary improvements. This feedback is vital as it help the program to improve the benefits and positive impacts of participating students.
Mentors for Summer Season 2024
The Aromolaran lab focuses on elucidating how normal cardiac electrical and biophysical properties are altered in obesity and associated pathologies (diabetes, inflammation and lipotoxicity). Obesity is an important contributor to the increased risk of supraventricular arrhythmia incidence and mortality, suggesting that the obesity epidemic poses a significant public health problem, with over one-third of the world population being either overweight or obese. An important goal of the Aromolaran laboratory is to identify and validate novel pathways in the setting of metabolic disorders that will improve our knowledge of rational development of dietary and therapeutic interventions. Specifically, we focus on adverse remodeling of major cardiac ionic mechanisms including the delayed rectifier K channels which play a critical role in cardiac repolarization. We use electrophysiology to measure channel function in cardiomyocytes, optical tools to measure trafficking and localization of channels and biochemical and molecular biology techniques to investigate the pathways involved in ion channel remodeling and arrhythmias.
Website: https://cvrti.utah.edu/the-aromolaran-lab/
The Bass lab is interested in how different animals respond to a viral infection, and how this changed during evolution. We compare and contrast the antiviral pathways in vertebrates and invertebrates, using biochemistry, structural biology, and the small worm C. elegans. Current goals: to use Ancestral Protein Reconstruction to understand how innate immune pathways evolved in animals. To determine dsRNAomes for diverse animals to reveal paradigms and understand biological functions of dsRNA binding proteins. To understand the mechanism of the C. elegans antiviral complex using biochemistry and structural biology (cryo-EM). To understand, in diverse animals, how the RLR family of helicases distinguish self dsRNA from non-self viral dsRNA and how RNA editing enzymes affect this discrimination. To resurrect human Dicer so it can function in antiviral defense in humans.
Website: https://bass.biochem.utah.edu/
We are a microbiology lab focused on mycobacteria, a group of pathogens that includes the globally significant pathogen Mycobacterium tuberculosis. We use microbial genetics, genomics, in vitro and in vivo models to investigate antibiotic resistance, virulence, and vaccine escape."
Website: https://carey.path.utah.edu
Our lab is focused on understanding the role of genetic variation on disease outcomes. We employ quantitative and functional tools, in a variety of model organisms, to study how genetic variation impacts basic cellular traits important to human health. Our work in model organisms will help to model and inform studies of genetic variation in the human population. We hope to identify variation that can lead to more precise, personalized therapies, especially for rare disease.
Website: https://www.chowlab.org/
Our research focuses on developing interventions that promote patient and caregiver engagement in medical care and decisions related to chronic disease management. She creates interventions—designed for and by patients—to improve clinical care and the health of patients with chronic health conditions. Her recent studies focus on improving self-advocacy and self-management skills among adolescents and young adults with congenital heart disease to facilitate pediatric-to-adult healthcare transitions. She uses patient-centered methods, such as focus groups and interviews, to inform the design and development of interactive tools. The tools can range from pamphlets to interactive apps to support patients. Through this research, she hopes to improve clinical care and the long-term health of people with chronic diseases.
Website: https://medicine.utah.edu/population-health-sciences/research/facultylabs/delaney
Our group is focused on understanding the biochemical, cellular, and organismal changes in metabolism that enable disease. To do this, we integrate modern techniques in mammalian genetics and mass spectrometry to study metabolic transformations in molecular detail. Specifically, our has two projects in cancer metabolism. The first studies the role lipids play in fueling tumor growth and how obesity and
metabolic syndrome may drive tumor development. The second study focuses on amino acids of the urea cycle in cancer growth and progression. We study how the metabolism of arginine, citrulline, and ornithine drive tumor growth and development and how to modulate this with diet and inhibitors. Current lab projects focus on both in vitro and in vivo studies to develop a complete understanding of
both cellular and physiological mechanisms at play.
Website: https://ducker.biochem.utah.edu/
The Evavold and Lamb labs focus on how T cells control all aspects of immunity. We have a vibrant lab of summer students, undergrads, graduate students, postdocs and research faculty working on a variety of cutting edge projects using human T cells and animal models to investigate the effect of T cells in cerebral malaria, autoimmune disease (type 1 diabetes and demyelinating disease), pathogenesis of coinfection, and cancer.
Website: https://medicine.utah.edu/pathology/research-labs/brian-evavold
Th IL-4 and immuno-modulation are hallmarks of parasitic infections, my laboratory broadly focuses on using the helminth parasite Schistosoma mansoni as a tool to understand both, the consequences of IL-4 induced immuno-modulation, and the complex interplay between B, T and stromal cells necessary to develop an optimal T and B cell memory response Under this umbrella we currently have three main projects: 1) Understanding the immunological implications of maternal schistosomiasis; 2) Dissecting the role of IL-4 in shaping the cellular environment of peripheral lymph nodes during homeostasis and antigenic challenge; 3) Delineating the mechanistic role of hepatic macrophages in helminth-induced protection from metabolic diseases. The summer project will focus on the role of IL-4 signaling in schistosome egg antigen driven reprogramming of hematopoietic progenitors.
Website: https://medicine.utah.edu/pathology/research-labs/keke-fairfax
The Funai lab is interested in how lipid molecules adversely affect cellular bioenergetics with obesity and inactivity. We use cell culture and genetically modified mouse models to understand the mechanism by which lipids alter cellular and systemic metabolism to alter the propensity for metabolic disease. Dr. Funai and the student will discuss their interest in deciding on the appropriate project from a wide variety of topics in multiple organ systems. The student will be paired up with one of the senior graduate students to work on these projects.
Website: https://funai.u2m2.utah.edu/
Dr. Hammer's lab is a “gut lab”—if it lives, visits, or is somehow influenced by the gut, we want to understand it. I view the gut as a resource to glean information about host-microbe dynamics, the balance that enables peace with microbes, and how the balance must be swayed to battle against microbial pathogens and cancer. We have ongoing research investigating the gut-brain axis, the gut-liver axis, the healthy gut, the inflamed gut, the pathogen-infected gut, and colorectal cancer. If there is any unifying principle that we have learned from these studies it would be that the gut has its own rules for host-microbe interactions, and this set of rules is unique for each setting. As mucosal immunologists, we thrive in this arena.
Website: https://www.giannahammermicrobiologyandimmunology.org/
Dr. Jacob A. George is the director of the Utah NeuroRobotics Lab. His research seeks to augment biological neural networks with artificial neural networks and bionic devices to treat neurological disorders and further our understanding of neural processing. Working at the intersection of artificial intelligence, robotics, and neuroscience, his NeuroRobotics lab is developing biologically-inspired artificial intelligence and brain-machine interfaces to restore and/or enhance human function.
Website: https://neurorobotics.ece.utah.edu/
The central focus of our lab is to advance understanding of how infectious disease transmission dynamics impact control and elimination strategies. We aim to develop and apply novel statistical and dynamical approaches to inform public health decisions about outbreak response. Our research bridges theoretical advancements in infectious disease dynamics with the practical application of mathematical methods to disease control. Currently, we are developing innovative methods to track pathogen spread in healthcare settings, applying dynamical models to respond to COVID-19, and building a theoretical framework to quantify the impact of expanded antibiotic eligibility on cholera control and antibiotic resistance risk.
Website: https://www.utahinfectiousdiseasedynamics.org/
Website: https://keeganlt.github.io/
We envision a world where everyone can move and live independently. We envision a world where congenital or acquired body differences, trauma, and injury would not prevent people from pursuing their life goals. We envision a world where advanced bionic technologies will enhance the human body by restoring, preserving, and augmenting human movement ability across the lifespan. To achieve this goal, we focus on the intersection of Robotics, Design, Control, Biomechanics, and Neural Engineering. Our research creates new science and develops new technologies to empower the next generation of wearable bionic devices and systems to help people move and live independently, ultimately ending physical disability
Website: https://hgnlab.mech.utah.edu/
Our research group uses immunologic, epidemiologic, genomic, and data science approaches to answer questions in the following areas: 1) Microbiome changes during intestinal infection and treatment; 2) Mucosal Associated Invariant T (MAIT) cell responses in mucosal infections and cancer; 3) Respiratory immune dysregulation following intestinal infections; 4) Clinical prediction and biomarkers of pediatric diarrhea; 5) Immune responses and sero-epidemiology of cholera.
Website: https://www.globalguthealth.org
Twitter: @GlobalGutHealth
The Lo Lab deciphers how T cell fate is sealed by an efficient and reliable signal propagation network that begins when a T cell receptor encounters a ligand and discriminates between foreign and self-antigens. We investigate how T cells respond to environmental stimuli to shape their differentiation and stemness, calibrate their sensitivity to activation signals, and establish the extent and specificity of their responses.
Website: https://medicine.utah.edu/pathology/research-labs/wan-lin-lo-lab
The Roh-Johnson lab is interested in how cancer cells make decisions based on signals from their local environment, and to use this knowledge to inhibit cancer progression. We specialize in directly visualizing cancer cell behaviors with high-resolution microscopy, and we use a combination of animal models (mouse and zebrafish) as well as cell-based approaches to understand this complex problem.
Our goal is to understand how what we eat (and ultimately what the cells in our body eat) influence how those cells behave. How does it change whether those cells will grow, divide, change their fate, move, etc.? The answers to these questions will help us understand the link between nutrition/metabolism and several different human diseases. We try to tackle such questions using a wide array of approaches, including genetics, biochemistry, cell biology and animal models. There are several specific projects that are appropriate for a summer undergraduate depending on their interests.
Website: Rutter Laboratory
The Snyder Lab's overall goal is to determine how the loss of cellular identity and acquisition of alternative differentiation states contributes to cancer progression and alters therapeutic response. Ongoing projects are focused on two major themes:
A. Regulation of lineage plasticity in lung and pancreatic cancer.
B. Feedback loops between cell identity programs and oncogenic signaling pathways that dictate response to targeted therapy.
The Stewart Bio-Data Lab works at the intersection of data science and bioinformatics. We use and build computational approaches to extract biological meaning from mass spectrometry data (e.g., proteomics, metabolomics, lipidomics) together with other omics data (“multi-omics”). We are a dry lab, meaning we are 100% computational and all of our “experiments” are done on a computer. No previous programming experience is needed to work in the lab, just a willingness to learn.
Lab page coming soon. Please check "https://scholar.google.com/citations?user=xz4fP7cAAAAJ&hl=en" for Dr. Stewart's publications.
Ceramides are products of fat and protein metabolism that accumulate in individuals prone to metabolic disorders. Once ceramide levels rise above a critical threshold, tissues become unresponsive to insulin, the hormone that facilitates nutrient storage. The Summers Laboratory found that implementing pharmacological or genetic engineering strategies to block ceramide accumulation in rodents improves insulin sensitivity and prevents the onset of diabetes and fatty liver disease. Building upon these discoveries, they now seek to understand the regulatory mechanisms governing ceramide synthesis or action and to identify new therapeutic strategies for reducing ceramides to treat these pathologies.
Sequence-specific DNA binding transcription factors are potent controllers of gene expression, as demonstrated by their central role in development and in lineage reprogramming. Transcription factors are used to achieve specific gene expression patterns. Because these patterns are critical for successful development and signal response, aberrations in transcription factor function lead to myriad human disorders such as immune dysfunction and cancer. Our lab is studying mammalian transcription factors, their cofactors and the chromatin marks they control, to identify gene regulatory mechanisms underlying lymphocyte development and function, stem cells, pluripotency and malignancy. The summer project involves assisting a senior postdoc in the lab with a project involving the formation and maintenance of CD4 T cell memory, and the role that metabolism plays in this process. The project makes heavy use of laboratory mice and infection, model pathogens, standard molecular biology tool, and methods for analyzing metabolism.
Website: https://medicine.utah.edu/pathology/research-labs/dean-tantin
Lab Description: Our lab leverages advanced data science and digital health tools to enhance bedside care, fostering patient involvement and shared decision-making through innovative technology. We utilize electronic health record (EHR) data to analyze workload and create efficiencies, aiming to streamline healthcare delivery. By computationally modeling nursing workload, we strive to improve the systems, structures, and policies that support a diverse nursing workforce. Additionally, we use state-of-the-art AI methods to extract valuable insights from clinical notes, enhancing our understanding of nursing workload and patient needs. Our goal is to drive impactful changes that benefit both patients and healthcare professionals.
Dr. Thorpe's research addresses two key population health questions 1) Why do some people find it difficult to make decisions about their health? 2) How can we help people find and understand the information they need to make better health decisions?
His primary focus is on helping patients avoid antibiotics when they don't need them (tackling overuse) and helping patients decided whether to start and continue using GLP-1 agonists for reducing their CVD risk (tackling underuse). He is also generally interested in research on designing better global health crisis communications, developing psychological and decision support tailored for high-risk populations, and improving understanding and communication of predicted risks and randomized controlled trial evidence.
As a PhD psychologist, Dr. Thorpe uses both survey and interview methodologies, designs a range of interventions (e.g., educational leaflets, communication strategies, infographics, interactive apps/web pages), and uses a variety of quantitative statistical and qualitative analytic techniques.
Website: https://alistair-thorpe.netlify.app/
The Velayutham laboratory's research focuses on the role of diet-derived microbial metabolites in cardiovascular health. Diet is a crucial factor in shaping the gut microbiome, and microbes help to metabolize nutritional components, indicating a two-way relationship exists between dietary components and gut microbes. Gut microbes interact with the host by producing beneficial or harmful diet-derived microbial metabolites, which play a fundamental role in host physiology and pathophysiology. Velayutham lab focuses on the causal relationship between dietary components, gut microbes, diet-derived metabolites, and cardiovascular health. Human studies support the cardiovascular benefits of dietary berries. Bioactive phytochemicals are extensively metabolized by the gut microbes in humans, suggesting the vascular benefits of dietary berries might be mediated by their microbial metabolites. Velayutham lab showed that dietary blueberries/strawberries prevent vascular complications and increase the beneficial bacteria and the role of blueberry metabolites in mediating these vascular benefits. Dietary blueberries also reduced the detrimental diet-derived microbial metabolite trimethylamine O-oxide (TMAO), whereas strawberries reduced high-risk ceramides in preclinical models. Both TMAO and ceramides are associated with several metabolic complications, including cardiovascular disease, diabetes, obesity, and cancer. Current research in Velayutham lab is focused on determining the mechanisms by which berry-derived metabolites reduce trimethylamine O-oxide and ceramides. This study will provide potential nutritional strategies to prevent cardiovascular complications by modulating gut microbes.
Website: https://faculty.utah.edu/u0852796-Anandh_Babu_Pon_Velayutham,_PhD/hm/index.hml#summary
Pathogen evolution creates an extraordinary epidemiological record and staggering public health challenges. Our group develops and applies evolutionary approaches to answer open questions about pathogen transmission and epidemiological dynamics. We focus on tuberculosis and pathogens linked to the rapidly changing climate in the American West with a goal of directly informing public health in low-income settings. Locating tuberculosis (TB) transmission. TB kills more people than any other infectious disease. TB is preventable and curable yet persists in marginalized populations excluded from access to healthcare and other critical social services. It is difficult to identify where the TB bacterium is transmitted and therefore, the best methods to prevent transmission. With researchers in Brazil and Paraguay, we sequence M. tuberculosis genomes to reconstruct transmission chains and identify key locations to focus TB prevention measures. Pathogen emergence linked to climate change in the American West. Climate change has been implicated in the emergence of several fungal pathogens, including Valley fever fungus Coccidioides, a major, environmentally acquired cause of pneumonia in the American West. With Coccidioides genomes, we are reconstructing the emergence history of the fungus in Utah to inform projections of its future spread.
Website: https://ksw9.github.io/
Our lab focuses on mechanisms controlling the differentiation and activity of T cells responding to infectious pathogens and tumors. Visiting students will participate in projects aimed at monitoring T cell responses following infection with influenza virus in mice and evaluating therapies to enhance T cell activity in mouse models of melanoma.
Website: Williams Laboratory