Dr. Shalem’s research focuses on translational target discovery for a range of neurodegenerative diseases. He combines technology development of large-scale CRISPR-based perturbation screens with application of such technology together with additional genomic approaches.
Dr. Song works to elucidate the cellular and molecular basis governing the formation, maintenance, and function of neural circuits under physiological and pathological conditions, using both Drosophila and mammalian models.
Dr. Spinner's research focuses on the etiology and expressivity of pediatric developmental disorders. She uses genomic methods to focus on the multisystem disorder Alagille syndrome and biliary atresia, a likely heterogeneous and poorly understood condition. She is also interested in using genomic tools to continue to improve diagnostic rates for constitutional genetic disorders.
Dr. Diskin's research is focused on translational genomics in childhood cancers. Her laboratory seeks to identify the genetic basis of childhood cancers by combining quantitative computational methods with rigorous "wet-lab" experimental approaches. In parallel, she has developed, and is applying, a proteogenomic approach to identify novel immunotherapeutic targets for high-risk and relapsed pediatric malignancies.
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. Maris investigates the molecular and genetic mechanisms contributing to the development and progression of neuroblastoma, a common childhood cancer. He also aims to develop new molecular diagnostic tests and less toxic, targeted therapies to treat relapsed or refractory neuroblastoma, including a major effort in immunotherapy discovery and development.
Dr. Ackermann studies diabetes (types 1 and 2) and congenital hyperinsulinism using mouse models, cell lines, and primary human tissue. She aims to identify novel pathways regulating beta cell insulin secretion, leading to innovative therapeutic strategies for these disorders. Current studies include in vivo mouse physiology, ex vivo human islet physiology, CRISPR-Cas9 gene editing, epigenetic modification, and single-cell functional genomics.
Dr. Wang's research focuses on the development of bioinformatics methods to improve the understanding of the genetic basis of human diseases, and the integration of electronic health records and genomic information to facilitate genomic medicine on scale.