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. Romberg investigates the regulatory mechanisms enabling our immune systems to fight infections without injuring ourselves. He is particularly interested in the immune system of patients with primary immunodeficiency who are susceptible to both life-threatening infections and autoimmune diseases. Greater insights into these rare diseases may enable rationale development of targeted therapies for more common diseases with an immunologic basis.
Dr. Thomas-Tikhonenko has a long-standing interest in the pathobiology of solid and hematopoietic malignancies, in particular lymphomas and leukemias and other cancers driven by MYC overexpression. Within that research space, his studies focus mainly (but not exclusively) on RNA-based regulatory mechanisms, such as microRNAs and alternative mRNA splicing.
Dr. Behrens' research focuses on the pathogenesis and treatment of cytokine storm syndromes, including the hemophagocytic syndromes Hemophagocytic Lymphohistiocytosis (HLH) and Macrophage Activation Syndrome (MAS).
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. Blobel investigates the fundamental mechanisms involving transcription factors, chromatin regulators, and higher order chromatin. He is gearing his basic science discoveries towards genetic and epigenetic treatment modalities. In addition, Dr. Blobel is interested in mechanism of epigenetic memory.
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. Gonzalez-Alegre's long-range research goal is to advance the application of precision medicine in the neurology clinic. His research focus revolves around genetic disorders that affect the brain, spanning from the diagnosis of novel genetic disease in the clinic to the identification of novel molecular targets using disease models and the design of early-phase human clinical trials.