Our lab utilizes biochemical, biophysical, cell biological, and computational techniques to understand the mechanisms of chromosome segregation during cell division in human cells. We are determining the mechanisms that drive chromosome movement and ensure error-free mitosis and the mechanisms that contribute to the orderly assembly of microtubules into the bipolar spindle apparatus.
Chromosomes must segregate accurately at each cell division. Chromosome mis-segregation leads to aneuploidy, a condition that is common in solid tumors. Many aneuploid tumor cells mis-segregate chromosomes at very high rates in a phenomenon called chromosomal instability. We are currently using biochemical and cell biological techniques to determine the underlying cause of chromosomal instability in human tumor cells (chromosome segregation). We plan to use this information to build models where we can directly test how chromosomal instability contributes to the tumorigenic phenotype.
Duane Compton, PhD
Professor of Biochemistry
Research Group Members
Chromosome segregation fidelity in stem cells
Kristina Godek, PhD
Principal Research Scientist
Cancer stem cells and kinetochore biochemistry
Thomas Kucharski, PhD
Quantitative phosphorylation during mitosis
Chromosome movement in mitosis
Regulation of Aurora B kinase
Human embryonic stem cells