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McLaughlin Centre Scholars Program
The aim of this special award is to offer early-career postdoctoral researchers, who show exceptional promise of becoming independent scientists, the opportunity to elevate their research skills and potential, working in some of the most productive research environments across the University of Toronto and the Toronto Academic Health Science Network (TAHSN).
Meet 2025 McLaughlin Centre Scholars
Evan Kerek
Lead Institution: Donnelly Centre, University of Toronto
Supervisor: Dr. Mikko Taipale
Project Title: Discovery and characterization of factors that regulate mislocalization of disease-causing coding mutants
Personal Background
I am a postdoctoral fellow at the University of Toronto with a PhD in Pharmacology from the University of Alberta and over a decade of experience in biochemical and molecular research. My scientific journey began at the University of Calgary, where I investigated how toxic metals affect the structure and function of biomembranes. Building on this foundation, my doctoral and postdoctoral work transitioned toward understanding protein regulation and stability using genetic, biochemical, and proteomic approaches. I have authored several first-author publications spanning topics from membrane biophysics to post-translational modification-based protein control and CRISPR-based screening methods.
Research Interests
My current research interests centre on uncovering cellular mechanisms that govern protein mislocalization and stability, with a focus on how genetic mutations and small molecules modulate these processes. I aim to integrate large-scale ORF screening, BioID proximity labelling, and pharmacological libraries to identify and functionally characterize mislocalized protein variants. Ultimately, my goal is to translate molecular insights into strategies for correcting aberrant protein localization in disease contexts.
George Long
Lead Institution: Public Health Ontario
Supervisor: Dr. Venkata Duvvuri
Project Title: Advancing Syphilis Research through Genomic Medicine: Development of Novel Tools to Study the Complexity of Syphilis Infection
Personal Background
I pursued a PhD in Biology at McMaster University under the co-supervision of Dr. Brian Golding and Dr. Hendrik Poinar. During this time, I reconstructed a 16th century Escherichia coli and a 14th century Brucella melitensis genome while pioneering the use of pangenomes in microbial ancient DNA analyses. I was also involved in implementing methods to confirm the relative ages of ancient DNA. These works taught me the importance of interdisciplinary collaboration and have strongly influenced how I approach my research projects. I am currently a post-doctoral fellow at Public Health Ontario under the supervision of Dr. Venkata Duvvuri, giving me the opportunity to apply these skills to answer practical questions.
Research Interests
My research focuses on infectious disease population dynamics with a particular emphasis on the intersection of evolution, genomic epidemiology, and population genetics. As part of the McLaughlin Centre Scholars Post-Doctoral Fellowship, I am developing a genomic surveillance framework for syphilis (Treponema pallidum) to improve public health monitoring. With rates of syphilis in Canada increasing consistently, a greater understanding of the population genetics and AMR profiles of T. pallidum is needed. Beyond the fellowship, I’m also involved in genomic epidemiology analyses of Influenza A and RSV in Ontario with the aim of improving reporting practices of respiratory diseases in Ontario.
Dustin Sokolowski
Lead Institution: Ontario Institute for Cancer Research
Supervisor: Dr. Jared Simpson
Project Title: Developing a Comparative Mammalian Genome Annotation Pipeline to Uncover the Molecular Basis of Extreme Traits Linked to Human Disease
Personal Background
I completed my undergraduate degree at Western University in Genetics. I did my PhD at the University of Toronto in Molecular Genetics and the Genes and Genome Biology department at The Hospital for Sick Children with Dr. Michael Wilson. My PhD thesis focused on developing and applying RNA-seq and scRNA-seq methods to the study of complex traits, with a biological focus on pubertal development. Collaboration was fundamental to my PhD work, where I gained considerable experience working with single-cell RNA-seq, DNA methylation, and CUT&RUN data. I was introduced into the world of non-model genomics through a collaboration with Dr. Melissa Holmes and my PhD lab at U of T-Mississauga campus, where we aimed to identify regulatory networks driving pubertal suppression in the naked mole-rat (Heterocephalus glaber; NMR). It quickly became apparent that we could not reliably map our findings to the NMR genome, severely limiting the biological interpretation of our results. To overcome this roadblock, I began working in 2020 with Dr. Jared Simpson, my current postdoctoral advisor, to use long-read sequencing to build a chromosome-level, highly accurate NMR reference genome. I then completed comprehensive repeat and genic annotations in collaboration with ENSEMBL and comprehensive epigenetic annotations using a chromatin state map built in my PhD lab. This project has been the bedrock of my current and future work.
As a Toronto native, I've enjoyed being able to work at U of T and/or SickKids as a summer student, then a graduate student, since high school. The research environment at U of T has played an instrumental role in shaping me personally and professionally. Outside of science, you can most likely find me out with my dog and fiancé, rock climbing, or making music.
Research Interests
I am interested in the genomic and epigenomic events leading to extreme adaptation and unique physiological traits in non-model rodents, including the naked mole rat. My research contributes to identifying genetic and epigenetic mechanisms underlying how species have overcome adverse physiological processes related to diseases.
My technical expertise and training are in computational biology and genomics, with an emphasis on building tools to integrate multiomic datatypes to help answer a biological question. When teaching undergraduates, I describe a biological phenomenon as a picture in Photoshop with multiple “layers”. In this analogy, each genomic experiment (e.g., RNA-seq, ChIP-seq-H3K27Ac, ATAC-seq) is a different “layer” and multiomic data analysis is the process of combining these layers to create a “real” image. I use a mutliomic approach of layering complementary pieces of evidence to disentangle a biological question and probe at a gene regulatory network for each project. I also combine data generated by collaborators with large publicly available sequencing projects to develop multiomic methods.