The program takes place in the Department of Biological Sciences at the University at Buffalo. It is an 8-week summer program in which students work alongside a faculty mentor on a research project from one of four research themes:

• Genome structure, evolution and expression.
• Neuronal physiology in health and disease.
• Using model organisms to address human problems.
• Using fungi to understand cellular processes.

Student participants are matched with a faculty mentor who will guide them through the research process. All students participating in the program take part in weekly workshops and social activities aimed at enhancing research skills, informing career decisions and offering networking opportunities.

Applicants should be:

• Interested in pursuing a career in research. 
• No prior research experience is required.
  
• U.S. citizens or permanent residents of the United States or its outlying possessions.
• Preparing to enter their sophomore, junior or senior year at the time of the program in an undergraduate degree program with a focus in the biological sciences.

Minorities underrepresented in STEM, first generation college students and students attending non-research focused institutions are strongly encouraged to apply. 

1. Complete the online REU application form.
2. Upload a current transcript to your online application (unofficial transcripts are acceptable).
3. Provide contact details for at least one referee from your current college/university facility who has agreed to write a letter of recommendation for you. They will be sent information on how to provide their letter once you submit your online application.
4. Upload your resume to the online application. Your resume should include 1) all post-secondary educational institutions attended with dates, (2) research and teaching experience or other university or science activities (prior research experience is not a requirement), and (3) any other information thought to be relevant to the application.
5. Upload your personal statement. Personal statements should describe academic and research goals and long-term career objectives. Applicants should clearly articulate what they hope to get out of the program and how they believe the program will help them reach their short- and long-term goals. Personal statements should be no more than 1000 words.
6. Identify up to three faculty mentors that you would be interested in working with.

Please note: Your application must be received by 5:00 p.m. on or before the due date, for full consideration in the first round of offers for the summer program. Applications received after that deadline may still be considered but will be placed on a wait-list.

• Oct 1: Call for Applications, in early Fall, accepted for next summer.
• Jan 31: Initial application deadline.
• Mid-Feb to Mid-March: Successful applicants are offered positions and/or waitlisted.
• Mid-March: Deadline to accept a position from first round offers.
• June 1-2 : Arrive in Buffalo (housing available).
• June 3 to July 26 : Project term for 8-week research experience.
• July 26: Research symposium and end of program.
• July 27: Travel home.

Questions about the program should be directed to the program coordinator, Dr. Heather Williams hw49@buffalo.edu

Themes: Genome structure, evolution and expression

Current research in the Baiz Lab uses molecular tools to study the origin of biodiversity and the genetic basis of adaptive traits, like plumage coloration. We are also interested in factors that shape symbiotic communities associated with avian hosts, and in particular, how the microbiome impacts host fitness. Students projects can involve field work and sample collection, DNA extraction and PCR, and data analysis.

Themes: Genome structure evolution and expression; Using fungi to understand cellular processes; Using model organisms to address human problems.

Paul Cullen's students will study microbiology, genetics, and molecular biology approaches to learn about the regulation of a specific developmental response in yeast called filamentous growth. Based on the student's interest, a project will be developed to understand how biochemical regulatory pathways, including signal transducing pathways, control changes to cell shape, polarity, and adhesion in this genetic system. Diverse approaches can be taken to address this problem based on the student's interests, expertise, and questions posed.

Themes: Neuronal physiology in health and disease; Using model organisms to address human problems.

Denise Ferkey's students will learn genetic, molecular, behavioral and computational approaches to understanding how animals sense chemical stimuli (odorants and tastants) in their environment.  Using a large set of wild C. elegans strains, students will examine natural variation in chemosensory behaviors between geographically and reproductively isolated populations of C. elegans to help inform our understanding of how nervous system function is influenced by genotype and environment.

Themes: Using fungi to understand cellular processes

Steve Free's student projects will focus on the topic of fungal cell wall formation. The fungal cell wall structure is unique to the fungi and an excellent target for the development of anti-fungal agents. Students will investigate how cell wall glycoproteins are incorporated into the wall structure, how these glycoproteins function within the wall, and how their activities are controlled.

Themes: Genome structure evolution and expression
Omer Gokcumen's students will be able to choose from a range of projects including:

1. Bioinformatics/phylogenetic analyses of specific genes to understand their evolutionary history and functional impact in humans.
2. Conducting PCR or digital PCR based genotyping of gene duplications across species or among populations.
3. Conducting genome extraction and analysis from different species.

Themes: Neuronal physiology in health and disease; Using model organisms to address human problems.

Shermali Gunawardena's students will gain hands-on experience using Drosophila genetics, in vivo imaging coupled with cell biological tools to examine mechanisms of intracellular transport within neurons and how this pathway is disrupted in human neurodegenerative diseases such as Alzheimer's, Huntington's and Parkinson's disease.

Themes: Genome structure, evolution and expression

Research in the Koudelka Lab is focused around two central themes. Firstly, the lab works to uncover details of how amino acids and base pairs interact and how these interactions can be regulated by both protein and DNA structure. In indirect readout, sequence-dependent differences in the structure of noncontacted bases in a DNA binding site regulate the sequence-specificity of a DNA-protein complex. The lab is determining the structural basis for and implications of the indirect readout mechanism used by DNA binding proteins. Secondly, the lab studies the evolution of bacteriophage-encoded exotoxins. Specifically the lab explores the hypothesis that ecotoxins are part of an antipredator defense mechanism.

Corey Krabbenhoft's students will focus on community ecology in freshwater environments to support conservation and management. This may include lab work (processing water samples, identifying organisms, etc.), field work (collection of water and invertebrate or fish samples), and data analysis and/or writing.

Themes: Genome structure evolution and expression.

Trevor Krabbenhoft's student projects are focused on fish evolutionary and ecological genomics. Students will have the opportunity to use both web lab (DNA or RNA sequencing) and dry lab (bioinformatic analysis) techniques.

Themes: Genome structure, evolution and expression

Charlotte Lindqvest's student research projects will focus on plant evolutionary genomics, either working on ancient DNA from lake sediments or modern/historical plant samples, to conduct paleogenetic surveys of lake sediments in Southeast Alaska or genome assembly and phylogenomic reconstruction of flowering plant evolution. Students will have the opportunity to use both wet lab (DNA extraction and sequencing) and bioinformatic analysis techniques.

Themes: Genome structure evolution and expression

Vincent Lynch’s students may work on projects including the evolution of cancer resistance in large, long-lived species such as elephants, whales, bats, and Galapagos tortoises, and the evolution of pregnancy and adverse pregnancy outcomes (infertility, preterm birth) in humans.

Themes: Genome structure evolution and expression; Using fungi to understand cellular processes.

Current work in the Rusche Lab uses multiple yeast species to explore how organisms evolve new, adaptive responses to low-nutrient stress. The summer REU student will identify genes induced when the metabolite NAD+ is low. Laboratory techniques will include standard molecular biology approaches, yeast genome editing, and analysis of genome-wide sequencing data.

Themes: Genome structure, evolution and expression

Scott Santos’ students will focus on population genetics, resource conservation, genomic evolution and symbiosis biology in aquatic (both freshwater and marine) and terrestrial microbes and multi-cellular organisms. Students will utilize a variety of molecular tools and computational approaches in these pursuits.

Themes: Genome structure evolution and expression; Using fungi to understand cellular processes; Using model organisms to address human problems.

Sarah Walker's students will address how yeast adapt their protein synthesis programs to combat changes in cellular environment. The lab studies mRNA control in yeast and mouse models for breast cancer in an effort to combat human disease. Students will use molecular biology, biochemistry, next generation sequencing, and biophysical techniques to address these microbiological questions.

Themes: Using model organisms to solve human problems.

Zhen Wang's summer students may choose between projects aimed at identifying genes responsible for the biosynthesis of digoxin, a heart medicine, in foxglove plants, and projects aimed at developing a microbial system for optimized production of valuable terpenoids.

Themes: Neuronal physiology in health and disease; Using model organisms to address human problems.

Student research projects in the Xu-Friedman Lab revolve around understanding how auditory nerve synapses change with activity. Projects may include learning the basics of recording activity in neurons, studying structure of synapses using fluorescence and electron microscope techniques, and introducing genes into auditory neurons to influence their function.

Themes: Genome structure evolution and expression; Using fungi to understand cellular processes; Using model organisms to address human problems.

Michael Yu's summer student will take on a project that addresses the role of protein arginine methylation in regulating eukaryotic gene expression. They will learn to implement a combination of molecular biology, biochemistry, and genetics approaches to accomplish this project. In addition, the student will learn how to read scientific literature, participate in group discussion, and practice giving scientific presentations.