Active Perception Laboratory
University of Rochester
Research Group
Biological Sciences: Neuroscience, Biomedical Engineering, Brain and Cognitive Sciences, Computer Science, Data Science, Electrical and Computer Engineering, Engineering Science, Optics, Visual Science
Engineering/ Math/ Computer Science, Natural and Biomedical Sciences
A research assistant position is available in the Active Perception Laboratory (https://aplab.bcs.rochester.edu) in the Department Brain and Cognitive Sciences at the university of Rochester. Research in the lab focuses on understanding the interplay between eye movements and vision using a combination of behavioral, computational, high-resolution retinal imaging and evoked potentials (EEG) techniques (https://aplab.bcs.rochester.edu/facilities.html#).
Responsibilities will depend on the applicant interests and background. They could include any of the following:
experimental data collection with human subjects with eyetracking and/or EEG,
implementation of experimental protocols,
contribution to the development of novel eyetracking techniques (for candidates with an Optics and /or Engineering background),
analysis of behavioral data,
collection and analysis of high-resolution retinal images,
alignment and calibration of optical devices for eyetracking and retinal imaging (for candidates with an Optics background).
Quantitative skills and some computer programming skills are desirable.
This position is ideal for someone interested in obtaining experience in vision and neuroscience research, and in improving quantitative and computational skills, with the goal of applying to graduate school.
Porosoff Lab
University of Rochester
Research Group
Engineering/ Math/ Computer Science
The Porosoff group focuses on developing new catalysts for upgrading C1 and C2 resources (CO2, CO, CH4, C2H6) for efficient energy storage and low-cost production of plastics, chemicals and fuels. Understanding the relationships between chemical reactivity and catalyst electronic/structure properties is extremely important for developing catalysts that exploit particular reaction pathways. This approach requires controlled synthesis of catalysts combined with in situ techniques and theoretical calculations. In particular, target areas of research are three types of catalytic reactions for improved shale gas utilization and lowering CO2 emissions: (I) Catalyst development for CO2 hydrogenation, (II) Selective synthesis of light olefins from CO and H2 and (III) Catalytic dehydrogenation of light alkanes to olefins by CO2. Experimental work combines a mix of catalyst synthesis and characterization, reactor studies and in situ spectroscopy.
VIStA (Visual Intelligence & Social Multimedia Analytics）
University of Rochester
Research Group
Engineering/ Math/ Computer Science, Social Sciences, Natural and Biomedical Sciences
[Computer Vision]: recognition of objects, scenes, people, locations, actions, and events from images and videos
[Vision and Language]: description and explanation of visual content; language-based search, retrieval, and generation
[Social media data mining]: prediction, nowcasting, forecasting, profiling, and recommendation using open-source data
[Machine Learning]: learning with large-scale loosely labeled web data, cross-domain learning, few-shot learning
[Health informatics]: healthcare and wellness analytics using text and visual data; surgical video analysis
[Pervasive computing]: context-aware applications; multimodal inference from multiple sensors
[Media experience]: multimodal reliving; aesthetics, emotion, sentiment, and influence of multimedia
[Note]: Undergraduate students should seek research opportunities after having done well in the related courses (240/440 Data Mining and/or 249/449 Machine Vision).
Ultrasound Tomography Center
University of Rochester
Research Group
Applied Mathematics, Biomedical Engineering, Computer Science, Electrical and Computer Engineering, Mathematics, Mechanical Engineering, Physics
Engineering/ Math/ Computer Science
We are a multidisciplinary group of scientists, engineers, and physicians working to bring a new ultrasound-based medical imaging platform to the clinic. Most conventional ultrasound systems only use reflected waves to create images of the tissue. This approach can be limited in its capability to quantitatively characterize tissue. Ultrasound tomography uses both the waves reflected by AND transmitted through tissue to fully characterize the material properties of the tissue. Specifically, we observe that these material properties distort the ultrasound wave as it passes through the tissue. These same distortions allow us to interrogate and recover the material properties within the tissue of interest. Our group integrates the latest advances in hardware development and algorithm design to translate these ideas to a clinically relevant imaging modality.
We are looking for highly motivated students for both hardware development and algorithm design. Interested students should have a strong interest in some or all of the following categories: acoustics, numerical modeling, signal processing, inverse problems, waveform inversion, computational imaging, and/or imaging hardware design. We expect students to come with a background in MATLAB (or an equivalent language). C/C++ experience (especially CUDA) would be an additional bonus as we also plan to accelerate existing algorithms using GPUs.
MixingLab
University of Rochester
Research Group
Biological Sciences: Neuroscience, Biomedical Engineering, Mechanical Engineering, Physics
Engineering/ Math/ Computer Science
Fluid mixing is both beautiful and devilishly difficult to understand, predict, or control. Our research team, led by Prof. Douglas H. Kelley, studies how flows and the materials they carry change over space and time, primarily with application to cerebrospinal fluid flow in the brain and to liquid metals technologies. Brain cerebrospinal fluid flows through the recently-discovered glymphatic system, which evacuates metabolic wastes to prevent diseases like Alzheimer's, but can also malfunction in situations like stroke or traumatic brain injury. Fluid flow affects the performance of liquid metal batteries, a grid-scale storage technology, and the efficiency of aluminum manufacture, which uses 3% of worldwide electricity. Our research team studies these problems with a combination of experiments, simulations, and theory. Undergraduate researchers work in collaboration with each other and/or with PhD students and postdoctoral researchers, building skills and taking creative ownership of their own efforts. Undergraduate researchers on the team frequently coauthor peer-reviewed journal articles and present at international research conferences. Valuable skills for undergraduate applicants include -- but are not limited to -- coding, machining / fabrication, computer simulation / drawing, and writing. We value interpersonal diversity and encourage all to apply. Students need not be upperclassmen to apply. More information is available on the team website.
Photoacoustic and Ultrasonic Research & Engineering （PURE）Laboratory
University of Rochester
Research Group
Biomedical Engineering, Computer Science, Data Science, Electrical and Computer Engineering, Mechanical Engineering, Optical Engineering, Optics
Engineering/ Math/ Computer Science, Natural and Biomedical Sciences
The primary focus of the PURE lab at the University of Rochester is to develop novel, hybrid, and ultrasound-based diagnostic methods, and define the clinical utility of the developed technologies as it applies to detection, diagnosis, and therapy of various pathologies.
Our ultimate goal is to help physicians and patients by providing more accurate and multi-parametric information about diseases that can help:
to detect pathologies at their early stages of development
to more accurately locate the diseased tissue
to better plan for individualized therapy
to monitor the outcome of the therapeutic procedures
These developments will serve to improve the diagnosis and treatment guidance of high impact diseases, such as cancer.
Almost every project in the lab utilizes ultrasound imaging. Ultrasound imaging (aka sonography) is the most-widely available medical imaging modality in clinical practice due to its notable advantages, including using non-ionizing energy, providing real-time information, portability, and low cost. However, it is limited to imaging tissue morphology and structure, without any functional, cellular, or molecular information. That is why our lab explores a newly born modality known as "Photoacoustic Imaging". Photoacoustic imaging utilizes lasers to complement ultrasound imaging, providing functional and molecular information to the morphological images obtained from ultrasound.
Our research team works closely with the School of Medicine. This collaboration has helped us to better identify the real clinical needs and direct our efforts to overcome clinical limitations. We are closely working with several industry-leading imaging companies, such as Verasonics and Siemens, to implement our technologies on existing clinical devices. We believe this could be a key to enable faster clinical translation of the developed methods.
Laboratory For Laser Energetics (Spring and Summer 2024)
University of Rochester
Research Group
Applied Mathematics, Astronomy, Chemical Engineering, Chemistry, Computer Science, Earth and Planetary Sciences, Electrical and Computer Engineering, Engineering Science, Mathematics, Mechanical Engineering, Optical Engineering, Optics, Physics, Physics and Astronomy
Engineering/ Math/ Computer Science, Natural and Biomedical Sciences
The LLE Undergraduate Education Program enables students to engage in mission-critical science and engineering. The unique work opportunities the LLE has to offer are well suited to provide training, while helping to fill the critical future workforce needs of the National Nuclear Security Administration (NNSA) at all levels, including operators, technicians, engineers and scientists. Undergraduate students pursuing degree programs in related science and engineering fields are welcome to apply.
Laboratory for Laser Energetics Internships:
Workforce, Research, and Career-Building Opportunities
Full-time, Part-Time, Co-Op, REU, and Summer Opportunities
Deadline for Summer 2024 Applications: February 15th
To Apply: Please send your resume to Laura Kappy, Undergraduate Education Program Director (lkap@lle.rochester.edu) or upload through AURA. Thank you!
Algorithmic Foundation of Data Science
University of Rochester
Research Group
Applied Mathematics, Computer Science, Data Science, Mathematics
Engineering/ Math/ Computer Science
Our group develops the algorithmic foundation of data science. We design, analyze, and implement provably efficient and reliable algorithms for solving a general class of problems in data science. The research scope broadly includes algorithms for optimization, sampling, and games. We aim to apply the algorithms to fascinating areas such as operations research, machine learning, and economics.
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We are looking for a senior student who will graduate in 2024 and seriously considers pursuing a PhD in Fall 2024.
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Computational Social Science
University of Rochester
Research Group
Data Science, Political Science
Engineering/ Math/ Computer Science, Social Sciences
I am looking for undergraduate and graduate students interested in working on various topics related to computational social science and data science. My current interests include emotion detection/quantification, analysis of visual content and videos, analysis of interactions between people/behavioral patterns, social media, political polarization, and developing methods for social sciences.
If you are interested in working with me on a research project (e.g., as an independent study student or part-time researcher), please fill out the form in the following link:
https://www.cantaycaliskan.net/research-assistance
Dye Global Health Lab
University of Rochester
Research Group
Anthropology, Environmental Health, Epidemiology, Gender, Sexuality, and Womens Studies, Health, Behavior, and Society, Human Computer Interaction, International Relations, Latin-American Studies, Medical Anthropology
Social Sciences, Natural and Biomedical Sciences
We prioritize creative engagement with underrepresented and marginalized communities around the world to address health priorities, often through technology and human-centered design. We view humans in their ecological context, understanding that social, biological, environmental, and other factors interact to impact health and illness, and that structural barriers often preclude ethical engagement of indigenous, marginalized, and underrepresented peoples in the scientific enterprise. Our lab values deep inclusion, respect, and liberation among its members and partners; we strive to prioritize the voices of underrepresented and intersectional identities in our work.
The work of our lab reflects the integration of qualitative, quantitative, community, and laboratory approaches to science. We are pragmatic, applied, and focused on action.
-Global Health, with a special emphasis on Latin America and the Caribbean, Asia and the Pacific, and Global Deaf Health
-Perinatal Health, with a special emphasis on social determinants of medical risk in pregnancy and childhood
-Technology, in the creation and maintenance of communities of learning, in communication, and to stimulate action
Our work crosses boundaries and is transdisciplinary.
FAM&I Lab at The University of Rochester
University of Rochester
Research Group
Psychology, Social and Emotional Development
Want to do research on the positive development and family assets of racially/ethnically minoritized teens? Join the FAM&I Lab!
We investigate how minoritized teens learn to flourish in today’s world in terms of their psychological wellbeing, racial/ethnic and gender identity formation, and academic motivation and achievement. In line with our commitment to diversity, equity, inclusion, and justice, the FAM&I Lab purposefully uses strength-based theories and research approaches to understand the power of racially/ethnically minoritized families and youth.
Our new projects include understanding (a) how minoritized adolescents (ages 10-20) form and think about their racial/ethnic, gender, and academic identities in integrated ways; (b) how minoritized families support teens in their identity development, achievement, and overall psychological wellbeing; (c) how emerging adults (ages 18-24) conceptualize what it means to be successful, happy, and thriving; and (d) how developmental assets within minoritized youth and families help protect them from the negative effects of racial discrimination and racism.
As a research assistant, you will gain fundamental research skills like conducting interviews and surveys, managing large-scale datasets, as well as professional skills like verbal and written communication and project management. You can also learn about graduate school and possible next steps in your career!
We are looking for intellectually curious and responsible research assistants who can commit 10-15 hours per week for a minimum of 2 semesters. Students can earn up to 4 credits per academic semester for their work on this project by enrolling in PSYC 395 (“Independent Research”).
Fay Lab
University of Rochester
Research Group
Natural and Biomedical Sciences
Our research aims to understand the genetic basis of evolutionary change, and specifically how adaptation and constraints shape divergence between species. To achieve this goal we employ computational analyses, field research and wetlab experiments. While our primary experimental system is yeast, we also work on other systems through collaborations. Ultimately, we hope to generate new insights into how species adapt and become different from one another from the molecular to an organism level. Projects: http://labsites.rochester.edu/faylab/research/
Interests: Evolution of gene regulation; Comparative genomics and domestication; Disease consequences of human evolution
Skills our lab is looking for: Programming experience (R, Python, etc) for computational projects, but not needed for wetlab projects.
Fu Lab
University of Rochester
Research Group
Natural and Biomedical Sciences
Our laboratory investigates the cellular roles of nucleic acid modification enzymes in biological processes ranging from neurodevelopment to the cellular stress response. In particular, we focus on discovering the targets and functions of two classes of enzymes: the SAM-dependent methyltransferases and the iron-dependent AlkB dioxygenases. To study the diverse processes modulated by these enzymes, we use an integrated biochemical, molecular and genetic approach in mammalian tissue culture systems as well as mouse knockout models. Through this approach, we have discovered novel targets and functions for enzymes involved in DNA repair, RNA modification and regulated cell death. The pathways and mechanisms identified through our studies provide critical insight into multiple aspects of human health and disease, including anti-cancer chemotherapy, degenerative disorders and aging.
Interests: RNA modification and translation regulation; Neurodevelopmental disorders linked to RNA function; Biochemistry and molecular biology
Glastad Lab
University of Rochester
Research Group
Natural and Biomedical Sciences
Ants live in sophisticated societies in which morphologically and behaviorally distinct types of individuals (castes) arise among members of closely-related families (colonies), and because of this, production of such castes is not genetic, but environmentally and epigenetically induced. Importantly, different castes typically exhibit often-extreme differences in behavior, physiology, and lifespan, which can be up to 20-fold longer in queens compared to workers Our lab employs two complementary ant systems as models to understand conserved and novel features governing the regulation of plasticity of behavior and lifespan.
Interests: Gene regulation, hormonal signalling, molecular and cellular determinants of aging and lifespan; Mechanisms and evolution of plasticity; Arthropod genomics; Video games
Lambert Lab
University of Rochester
Research Group
Natural and Biomedical Sciences
We study the cellular and molecular mechanisms underlying animal development, and how these mechanisms can influence evolutionary change. We focus on embryos of molluscs and related animals, because of their large accessible cells, invariant cleavage patterns, informative phylogenetic position in the animal kingdom, and (of course!) their intrinsic beauty. Molluscs are representatives of a large clade of protostome phyla--the Lophotrochozoa--where molecular mechanisms of development are poorly understood. In addition, molluscs typify spiral cleavage, a dominant mode of early development in multiple protostome phyla and a developmental trait with an interesting evolutionary history. These embryos are amenable to a variety of classical embryological manipulations, allowing functional tests of hypotheses about patterning mechanisms. We are pursuing questions about several aspects of early patterning in the snail Ilyanassa, from the mechanisms of asymmetric cell division to signaling by the molluscan embryonic organizer. Our findings are providing new insights into the diversity of developmental mechanisms found in animals, as well as a clearer picture of how such processes evolve.
Interests: The evolution of developmental mechanisms; Early patterning in molluscs and related groups; Cytoskeletal basis of asymmetric cell divisions; Evolution of novel phenotypes
Larracuente Lab
University of Rochester
Research Group
Biological Sciences: Cell and Developmental Biology, Biological Sciences: Computational Biology, Biological Sciences: Ecology and Evolutionary Biology, Biological Sciences: Molecular Genetics, Biology
Natural and Biomedical Sciences
Conflict arises within genomes when genetic elements fail to play by the same rules. Selfish genetic elements (e.g. transposable elements, meiotic drivers, satellite DNAs) create conflict when they gain a transmission advantage to the next generation, often at a cost to the host. The Larracuente lab is interested in the mechanisms used by these selfish genetic elements to cheat and their impacts on the evolution of genomes and gametogenesis. Our focus is on the large blocks of rapidly evolving repeats that comprise most eukaryotic centromeres, telomeres, and sex chromosomes—satellite DNAs (satDNAs). SatDNAs play important roles in chromosome segregation and heterochromatin formation, but they also have the capacity to be selfish in the female germline, where there is an opportunity for centromeres to cheat their way into the egg. Misregulating satDNA is associated with genomic instability, mitotic defects, cancer, and aging phenotypes. We integrate methods in functional genomics, population genetics, and molecular genetics to study selfish repetitive sequences involved in intragenomic conflicts.
Interests: Evolutionary genetics and genomics; Intragenomic conflict and the evolution of selfish DNA; Evolutionary and functional genomics of satellite DNA; Sex chromosome and dot chromosome evolution in Drosophila; Centromere organization and evolution
Skills our lab is looking for: Genetics, molecular biology, computational biology
Murphy Lab
University of Rochester
Research Group
Natural and Biomedical Sciences
Our lab investigates the mechanisms that activate or silence genes. As cells divide during development, changes in gene expression provide each cell type with a specific identity and function. In a similar sense, when the gene expression patterns of normal adult cells change inappropriately, the cell identity also changes, and this can lead to carcinogenesis. We utilize the zebrafish model in combination with mammalian cell lines to investigate how epigenetic marks control gene expression patterns to drive cell state transitions. This work relies on classic genetics and developmental biology methods, new DNA sequencing technologies, and bioinformatics applications.
Interests: Regulation of vertebrate gene transcription in vivo; Epigenetics and chromatin; Zebrafish genetics and genomics; Developmental cell state transitions; Bioinformatics
Portman Lab
University of Rochester
Research Group
Natural and Biomedical Sciences
The Portman laboratory studies the genetic mechanisms that generate sexual dimorphism in development and behavior. Our efforts focus on the powerful nematode model system Caenorhabditis elegans, because of its exceptional tractability and conserved battery of genetic mechanisms. By its nature, our work is fundamentally interdisciplinary, drawing from molecular genetics, developmental biology, molecular/cellular neuroscience, and animal behavior. Understanding sex differences in development and behavior is not only of biological interest; we hope to also understand the genetic basis for the significant sex differences in the incidence of neurological and mental health disorders such as mental retardation and autism.
Interests: Genetics of development and behavior in C. elegans; Neural cell fate specification; Sex differences in neural circuit function; Sexual dimorphism in developmental patterning
Presgraves Lab
University of Rochester
Research Group
Natural and Biomedical Sciences
We study the evolution & consequences of selfish genetic elements. Recurrent invasion & innovation by selfish genetic elements and suppression & counter-innovation by hosts are major, if still unappreciated, drivers of genome evolution. Our lab combines classical, molecular, and evolutionary genetics & genomics to study how selfish genetic elements— such as transposons and meiotic drivers— affect speciation, sex chromosome evolution, and meiotic recombination.
Interests: Evolutionary genetics ; Speciation genetics; Molecular population genetics; Selfish gene complexes
Sterne Lab
University of Rochester
Research Group
Natural and Biomedical Sciences
The overarching goal of the Sterne Lab is to understand the neural circuit mechanisms that generate and shape complex feeding behaviors. To survive, animals must successfully derive energy from their environments. Moment to moment control of feeding requires the synthesis of diverse and sometimes conflicting inputs, including external sensory information, internal state, and experience. The most salient features of these diverse inputs must be translated into neural activity and processed by circuits that select and shape sequenced and rhythmic feeding motor programs. Furthermore, feeding experiences must be remembered to instruct future behavior. While disordered feeding is the cause of many human health conditions, the circuit mechanisms that give rise properly timed, coordinated, and rhythmic feeding behaviors and translate feeding experiences into memory are not well understood.
Albert Uy Lab
University of Rochester
Research Group
Natural and Biomedical Sciences
For nearly two decades, our research has focused on understanding the origin and maintenance of biological diversity in the tropics, the cradle of our planet’s diversity. Our work explores how populations change to adapt to their physical and social environments, and how these changes, in turn, can result in reproductive barriers. To this end, my research group explores two major foci. First, we explore how changes in the ways animals communicate can lead to reproductive barriers between populations — the hallmark of biological species. For instance, we explore how changes in plumage color and song in birds, which are traits used in choosing and competing for mates, can result in premating reproductive barriers between populations. Second, we explore how populations change to more effectively exploit their biotic and abiotic environments, and how these changes can likewise lead to reproductive barriers and the maintenance of species boundaries. We explore, for example, how novel environments, including urbanization, drive changes for more efficient feeding and communication.
For both foci, we take advantage of species with populations currently adapting to their environment and/or are on the verge of becoming new species. In these projects, we use an integrative approach to determine the molecular basis and genomic consequences of adaptive change by combining long-term field observations and experiments with cutting-edge approaches in genomics, proteomics, and developmental biology.
Interests: Evolutionary Ecology; Behavioral Ecology; Evolutionary Genetics; Speciation; Conservation
Floria Uy Lab
University of Rochester
Research Group
Natural and Biomedical Sciences
Our research is focused on understanding the evolution of cooperation and the selective pressures that favor cooperative group living. How do social animals process information from their physical and social environment to make decisions that enhance their survival and reproductive success? In animal societies where group members are constantly interacting, how do these interactions shape brain architecture and function? How can certain social insects persist in broad distributions with different environmental pressures? More recently, we also explore the effect of behavioral manipulation by parasites in these insect societies. We use an integrative approach to investigate the relationship among relatedness, social interactions, behavior cues, environmental factors and brain architecture in group formation and cooperation.
Interests: Evolution of sociality; Neuroethology; Host-parasite interactions; Behavioral Ecology; Conservation
Wang Lab
University of Rochester
Research Group
Natural and Biomedical Sciences
The major criterion distinguishing eukaryotes from prokaryotes is the presence of organelles in the former. An organelle is a subcellular structure that has one or more specific jobs to perform in the cell, much like an organ does in the body. Eukaryotic cells can rapidly adjust the abundance, size and shape of their organelles according to physiological needs. This remarkable capacity for adaptation enables cells to maintain homeostasis during stress, differentiation and disease. We are interested in the mechanisms cells use to ensure organelle homeostasis. We study the following two processes: 1) organelle biogenesis, including morphology generation, organelle inheritance during cell division, protein import and lipid transfer during organelle de novo synthesis 2) organelle degradation, particularly through the receptor-mediated selective autophagy pathway.
Interests: Cell biology, biochemistry, and molecular genetics; Organelle biogenesis; Organelle degradation through selective autophagy; Organelle aging and neurodegeneration
Lipid droplets and animal development - Welte lab
University of Rochester
Research Group
Natural and Biomedical Sciences
Our overall research interest is the regulation of animal development and the cell-biological mechanisms that mediate it, with a particular focus on lipid droplets. Lipid droplets are organelles to store fat, and they have fundamental roles in many cellular processes, from energy homeostasis and lipid metabolism to protein sequestration. Despite their critical importance for cells and for organismal physiology, their role in development remains largely uncharacterized. One important mission of our lab is to fill this knowledge gap.
We employ the fruit fly Drosophila melanogaster as our model system and address questions with a combination of live-imaging, molecular genetics, biochemistry, and genomics. Our research is very visual and generates striking images.
Currently, we work on four interrelated problems: 1) How do lipid droplets control the nuclear pool of the histone variant H2Av? 2) Do nuclear levels of H2Av control developmental timing? 3) How do lipid droplets modulate lipid metabolism to support development? 4) Is there a role for lipid droplets in innate immunity?
We do not have any openings for undergraduate researchers for the fall semester 2024, but probably can accept new students for spring 2025. If you submit an application, Dr. Welte will get back to you sometime in October/November.
Interests: Cell and developmental biology; lipid droplets; regulation of animal development; histone dosage; Drosophila oogenesis and embryogenesis; innate immunity
Werren Lab
University of Rochester
Research Group
Natural and Biomedical Sciences
Dr. Werren's area of interest is evolutionary genetics. His research combines genetic, molecular, and population studies to investigate a variety of topics in evolution. Current research topics include: (1) evolution of inherited microorganisms, (2) genetic basis of morphological and behavioral differences between species, and (3) genetic conflict and the evolution of "parasitic" or "selfish" DNA.
Interests: Evolutionary genetics, genomics, and proteomics. The unifying theme is how interacting elements shape systems at different levels of biological organization. A current research project focuses on combining computational and molecular evolutionary approaches to investigate protein function and protein-protein interactions relevant to biology and disease. Other research topics include the genetics of speciation, nuclear-mitochondrial coevolution, microbe-host interactions, and parasitism across biological levels.
Varble Lab
University of Rochester
Research Group
Biological Sciences: Biochemistry, Biological Sciences: Microbiology, Biological Sciences: Molecular Genetics
Natural and Biomedical Sciences
The Varble Lab studies the viruses that infect bacteria, bacteriophage. Bacteriophages are inextricably linked to the bacteria they infect, shaping their life cycle, pathogenicity, and genomes. We study how these viruses infect bacteria and how bacteria defend against these infections, with a focus on the adaptive bacterial immune response, the CRISPR-Cas system.
As bacteria have increasingly gained resistance to antibiotics, bacteriophage have also been explored as an alternative approach to treating infections, termed phage therapy. Staphylococcus aureus is an important human pathogen of great concern due to its ability to rapidly evolve resistance to current antibiotics. A current focus of the lab is identifying novel phages that can infect S. aureus and characterizing their potential as therapeutics.
HEEL (Health and Environmental Economics Lab)
University of Rochester
Research Group
If you are interested in joining the lab, please complete our lab application (on our website).
The ideal candidate should be current junior/senior students (sophomore students with the following criteria are also encouraged to apply) and will have: (i) a strong quantitative background (students majoring in economics and relevant fields are preferred); (ii) strong STATA skills/experiences and willingness to learn new programming languages (R, Python, GIS, etc.); (iii) interest and passion in pursuing research in economics; applicants who're willing to pursue a predoc/econ PhD after graduation will be considered first.
We will be considering applications submitted on or before 10/16/2024 to be hired in the upcoming cycle and start work in the Spring 2025 semester. If we wish to move forward with your application, we will reach out in mid-October after the application deadline.
If you have any questions, please contact Yiyang (Edward) Huang: yhu119@u.rochester.edu
Movement and Plasticity Lab
University of Rochester
Research Group
Biological Sciences: Neuroscience
Natural and Biomedical Sciences
The goal of the Movement and Plasticity Lab at the University of Rochester is to apply new technologies to improve the diagnosis and treatment of stroke and motor impairments after stroke. Current projects include using am EMG-computer interface to study and treat the emergence of specific motor control abnormalities of the arm after stroke, using transcranial magnetic stimulation (TMS) and MRI to investigate biomarkers of stroke recovery, and using a VR headset system to study disorders of the vestibular system. Undergraduates lab members gain exposure to the inpatient and outpatient neurology clinical care settings, learn about the use of EMG and TMS, and help with data collection and analysis.
UPDATE JANUARY 2025: Inorder to make sure that all of our RAs have a good experience working in the lab, we are not accepting any more new RAs until September 2025. We plan to interview potential candidates in late spring 2025 - if you are interested, send paige_hepple@urmc.rochester.edu an email with your CV. Thanks!
