Embryology: Concepts and Techniques in Modern Developmental Biology
The Embryology Course offers integrated lectures and laboratories that comprehensively cover the paradigms, problems, and technologies of modern developmental biology cast within a comparative framework of metazoan evolution.
An intensive six-week laboratory and lecture course for advanced graduate students, postdoctoral fellows, and more senior researchers who seek a broad and balanced view of modern issues in developmental biology. Limited to 24 students.
Established in 1893, the Embryology Course offers integrated lectures and laboratories that comprehensively cover the paradigms, problems, and technologies of modern developmental biology cast within a comparative framework of metazoan evolution. This course has a rich history of shaping the field with six students and eight faculty becoming Nobel Laureates, and many others being prominent leaders and pioneers. Students are exposed to a wide variety of embryonic systems including well established and intensively studied models, both genetic (e.g., C. elegans, Drosophila, zebrafish, mouse) and experimental (e.g. chick, sea urchins, frogs, ascidians). Students will also encounter a wide range of additional models that are equally important in their own right, including locally available marine organisms that help fill in the evolutionary history of animal diversity (e.g., cnidarians, nemerteans, planarians, crustaceans, mollusks, annelids, ctenophores). This wide coverage of metazoan phylogeny allows for a close examination of developmental strategies and mechanisms that drive evolutionary change. Hands-on analytical and experimental techniques used to explore invertebrate and vertebrate development involve embryological manipulation (e.g., cell ablation, tissue grafting) as well as molecular genetic (e.g., RNAi, electroporation) and cell biological approaches (e.g., analysis of cell lineage and migratory behavior). Students will apply cutting-edge microscopy and imaging technologies (e.g., confocal and 3D time lapse) using state-of-the-art instrumentation, reagents, and methods. Conceptual topics include cell specification and differentiation, pattern formation, embryonic axis formation, morphogenesis, intercellular signaling, transcriptional regulation, organogenesis, regeneration, evolutionary developmental biology, and comparative embryology.