Dr. Choi's research focuses on the role of RNA-binding proteins in the regulation of alternative splicing and how mutations in these factors contribute to cancer. He uses a combination of genetically-engineered models and high-throughput approaches to better understand how alternative splicing influences cellular function and to identify potential opportunities for therapeutic intervention.
Dr. Tan studies transcriptional regulation during normal development and disease. This involves the interplay of multiple transcription and epigenetic factors in a 3D chromosomal environment. Using experimental genomics and computational modeling, Dr. Tan investigates transcriptional regulatory networks underlying embryonic hematopoiesis, T cell differentiation, and pediatric leukemia.
Dr. George's basic and clinical research interests are in the development of novel therapeutics for hemophilia. Her basic science laboratory studies the molecular basis of coagulation, and she is the principal investigator of ongoing hemophilia A and B gene therapy trials.
Dr. Cardinale's research is focused on understanding the mechanisms of gene expression and gene regulation in autoimmune diseases, including inflammatory bowel disease, type 1 diabetes, and systemic sclerosis. He uses data from large-scale genomic studies to identify disease-causing genetic variants and functionally explore the target genes of those variants.
Dr. Bassing's research program focuses on the genetic, epigenetic, and biochemical mechanisms by which mammals develop their immune systems while suppressing autoimmunity and genomic aberrations that cause leukemia or lymphoma.
Dr. Lin studies RNA modifications (a.k.a "epitranscriptomics") in human diseases, including cancer. She develops and applies high-throughput sequencing strategies and transcriptome engineering technologies to study the regulation and function of RNA modifications, including A-to-I RNA editing and m6A RNA methylation.
Dr. Marks investigates the molecular mechanisms underlying the formation of cell type-specific lysosome-related organelles; the assembly, delivery and function of their contents; and how these processes are impacted by genetic diseases.
Dr. Camire's research focuses on understanding the components of the blood coagulation system, how they interface with activated cells, and how disturbances in their function lead to bleeding and thrombosis. He is also interested in developing novel therapeutic approaches (protein, gene-based, small molecule) to mitigate these events, which are major causes of morbidity and mortality worldwide.