The process of generating two cells from one—cell division—is essential to life. A key process in cell division is the equal partitioning of the replicated DNA into two daughter cells, a process known as mitosis. Understanding the mechanisms that regulate mitotic chromosome segregation is a key aspect of our understanding of how life is maintained and propagated. We use a combination of experimental and computational approaches to understand how the mechanics and dynamics of various mitotic apparatus components contribute to the accurate execution of mitosis.
Aneuploidy, the condition of a cell or organism possessing an incorrect chromosome number, is the leading cause of miscarriage in humans and a hallmark of cancer. Aneuploidy arises as a consequence of errors during cell division. Our research aims at identifying the cellular mechanisms that cause aneuploidy in both normal and cancer cells. Moreover, we are interested in understanding how aneuploidy affects cell function, with particular attention to cell division itself.
|Nico Baudoin||Visiting Student|
|Mathew Bloomfield||Visiting Student|
|Alexandra Bridgeland||Visiting Student|
|Kaylie Fluet||Visiting Student|
|Ellen Garcia||Visiting Student|
|Aaron Hayes||Visiting Student|
|Andrew McCaffrey||Visiting Student|
|Claudia Perez||Visiting Student|
|Lowrey Peyton||Visiting Student|
|Taryn Smith||Visiting Student|
|Annelise Stunes||Visiting Student|