Chromosome size-dependent polar ejection force impairs mammalian mitotic error correction

Thus, we propose a model where increased force on long chromosomes can falsely stabilize incorrect attachments, delaying their biorientation. As such, long chromosomes may require compensatory mechanisms for correcting errors to avoid chromosomal instability. Data associated with the paper: "Chromosome size-dependent polar ejection force impairs mammalian mitotic error correction" Chong et al. Journal of Cell Biology.

(doi: 10.1083/jcb.202310010) Here, we include data used to generate the figures in this paper. Files are created and can be opened with GraphPad Prism. Individual kinetochore position data used to generate average distance to pole and average speed in monopolar spindles for control (Fig. 1H, Fig. 2E) and chromokinesin overexpression (Fig. S3) can be found in the excel file titled "distance to pole source data".