Summer REU Program:
Re-IMAGiNE Life, Exploring Function through Adaptation
2023 REU dates: May 22 – July 28
The UA REU application site is open, click here!
Applications require one reference letter from a professor to be complete. Letters are to be sent to Dr. Julie Olson (email@example.com) and Dr. Michael McKain (firstname.lastname@example.org) by February 17, 2023.
Final day to submit an application is February 10, 2023.
Reference letters are accepted until February 17, 2023.
Application review starts on February 18, 2023 and will continue until all positions are filled.
- 10-week research training opportunity
- Students conduct individual research projects designed by faculty within the Department of Biological Sciences at the University of Alabama
- Weekly academic and professional development programs
- $6,250 stipend
- Paid on-campus housing
- $150 weekly food allowance
- Up to $600 relocation stipend
Students who would benefit from this experience
- Motivated students interested in learning more about what can be done with a degree in the life sciences
- Students considering graduate school
- Students within historically underrepresented groups, those with non-traditional backgrounds and academic paths, veterans, and first-generation college students are encouraged to apply
Requirements for eligibility
- No prior research experience is needed but priority will be given to students who have completed at least one course in biology or a related discipline
- Undergraduates who will be enrolled at a 2- or 4-year college or university in fall of 2023
- United States citizens or permanent residents (requirement of NSF)
- Applicants should be 18 years of age by May 22, 2023
What should students expect?
- Robust training in modern and integrative scientific techniques
- Full time work commitment for the 10-week period
- Professional development, trips to local research centers, and networking with peers and faculty
- Opportunities to present and/or publish their findings
- Experience working in the labs of UA faculty
Faculty Mentors and Projects
Dr. Carla Atkinson
Adaptation of freshwater mussels to varying water temperatures
Freshwater mussels, one of the most imperiled faunal groups in the world, are important for aquatic ecosystems as they are filter-feeders, so their feeding improves water quality and clarity. However, how mussels may adapt to changes in stream temperature and chemistry as a result of global climate change is not known. The student will be involved with lab and fieldwork (in the river!), will be engaged with other projects going on in the Center for Freshwater Studies at the University of Alabama, and will also assist with research at the Alabama Aquatic Biodiversity Center in nearby Marion, Alabama. The student will gain skills in experimental design, learn to setup controlled mesocosm and field studies in an aquatic setting, acquire laboratory skills (e.g., pipetting, weighing samples), and learn techniques for data processing and analysis.
Dr. Lukasz Cielsa
Phytochemical profile changes of edible plants in response to environmental changes
Compelling evidence suggests that a diet rich in vegetables, fruit and herbs is beneficial for humans and can prevent or delay the onset of numerous chronic diseases. These beneficial effects are often ascribed to the variety of chemicals synthesized by plants (phytochemicals), but which are most beneficial is still not known. Plants produce many of these beneficial compounds in response to environmental stressors. The REU student will work on a project that aims to better understand the molecular mechanism of action of phytochemicals as well as examining how environmental factors affect the phytochemical profiles of plants.
Deep in the mangroves of Florida, the Caribbean and Central America, there’s a fish that defies all odds and exhibits some truly remarkable characteristics. Mangrove rivulus fish live in some of the most challenging conditions on Earth and can tolerate dramatic fluctuations in oxygen levels, salinity, temperature, and water availability, as well as infiltration of pollutants into their natural environment. They are highly plastic and exist predominantly as self-fertilizing hermaphrodites, which allows (effectively) for production of clones. They can also change sex from hermaphrodite to male, live on land for 2 months, navigate terrestrial environments using Olympic jumps, and engage in intense combat. We have combined field and laboratory studies to examine a host of questions related to how genetic and genomic variation relate to variation in performance in the tumultuous mangrove swamps.
Dr. Melanie Higgins
N-glycan degradation in Actinobacteria
Microbes have evolved many mechanisms to utilize glycans, the most abundant and diverse natural biopolymers. Recently, it was discovered that certain gut- and soil-dwelling Actinobacteria have distinct polysaccharide utilization loci likely dedicated to degrading diverse N-glycan structures. Although these loci share common core genes, they differ in genes that encode for auxiliary glycan degrading enzymes. These projects will involve in vitro protein biochemistry and structural biology studies of auxillary enzymes to better understand if and how they contribute to distinct N-glycan metabolism profiles between gut- and soil-dwelling bacteria.
Dr. Matthew Jenny
Molecular mechanisms of tolerance and adaptation to environmental pollutants
The proposed summer research will focus on investigating how what are normally considered protective cellular mechanisms associated with short-term oxidative stress and acute inflammation can contribute to the progression of liver and lung pathologies (e.g., fibrosis and carcinogenesis) under situations of long-term stress that result in chronic inflammation. The research will primarily focus on cadmium-induced chronic stress using a variety of different transgenic zebrafish lines, as well as human cell lines, to investigate the cellular mechanisms that contribute to these disease pathologies.
Over half of streams and rivers go dry on a regular basis and in many parts of the world, this drying is increasing due to climate change and anthropogenic activities. However, we don’t know how stream drying impacts downstream ecosystems. Our lab is tackling this challenge by studying nine streams across the US. The REU student will gain extensive field work skills, entailing maintaining sensors throughout the stream network, collecting water chemistry, gas, and sediment samples, and learning how to process and download high frequency aquatic and terrestrial data; acquire analytical skills running instruments and processing data; and learn about graduate school and what to know before applying.
Dr. Brandon Kim
Analysis of microbial gene networks at the blood-brain interface
Analysis of microbial gene networks at the blood-brain interface. Group B Streptococcus and Neisseria meningitidis are pathogenic bacteria that are able to cross the highly specialized blood-brain barrier and cause bacterial meningitis. To date, little is known about how these pathogens adapted their transcriptomes to interact with the blood-brain barrier. Using RNAseq data from the transcriptomes of both pathogens, the REU student will identify potential targets for gene knockout prior to performing allelic exchange mutagenesis and screening. Cell based assays to test the ability of the mutant(s) to interact with the blood-brain barrier will follow.
Dr. Michael McKain
Impacts of polyploid genome diploidization on the invasive potential of a grass species
Polyploidy is a common phenomenon in flowering plants and has been identified as a potential promotor of invasiveness. After polyploidy, genomes undergo diploidization that includes the loss of duplicated genes, reorganization of chromosomes, changes in expression patterns and other processes. The patterns of diploidization are likely a combination of stochastic and predetermined factors that, when coupled with natural selection, lead to lineage-specific variation. The REU student will use field work, genomics, and computational biology to investigate how diploidization has varied across populations and lineages of the allotetraploid species Sorghum halpenese as it spread across the US.
Dr. Julie Olson
Factors that increase the expression of secondary metabolites in environmental bacteria
Many species of bacteria produce secondary metabolites, providing an advantage to the producing organism. However, other than entering stationary phase or exhaustion of a required nutrient, the environmental conditions that induce secondary metabolite formation in these organisms are not well understood. The REU student will investigate the effect of different environmental conditions (e.g., temperature, pH) on the production and diversity of secondary metabolites using a combination of microbiological cultivation methods, bioassays, and molecular genetic techniques.
Dr. Laura Reed
Examination of the evolutionary processes shaping metabolic regulation of homeostasis
The Reed Lab works on understanding the genotype-by-environment interactions that shape metabolic phenotypes, including metabolic disease like Type-2 Diabetes. The work uses Drosophila (fruit flies) as a model. Different genotypes of the flies are fed varied diets to determine how those affect traits such as survival, weight, metabolite profiles, and gene expression.
My lab does stream ecology research, meaning that we collect surface water samples, use data from sensors, and measure water quality on lab instrumentation to understand how stream ecosystems function. The REU student will utilize these methods for an independent project, based on their interests, which would most likely be conducted at one of my lab’s existing field sites. I would help the student develop a plan to conduct simple in-situ biogeochemistry experiments, which is fully attainable during an REU timeline.