This course provides a rigorous, lab-informed exploration of mitosis from foundational concepts to modern experimental a...

Establishes core concepts, terminology, evolutionary context, and why mitosis matters for growth, maintenance, and development.
Explains G1, S, G2, and M phases, their control logic, and how checkpoints coordinate accurate division.
Covers chromosome condensation, nuclear envelope breakdown, spindle assembly, and initial kinetochore attachments.
Explores congression, bi-orientation, tension sensing, and stabilization of kinetochore-microtubule attachments.
Details APC/C-driven transition, cohesin cleavage, and mechanics of chromosome movement and spindle elongation.
Covers nuclear reassembly, chromatin decondensation, contractile ring formation, and abscission mechanisms.
Integrates cyclin-CDK engines, APC/C regulation, checkpoints, kinases, and phosphatases into a systems view.
Dissects structural modules that capture, stabilize, and move chromosomes within the mitotic spindle.
Connects missegregation mechanisms to chromosomal instability, developmental disorders, and cancer therapies.
Presents imaging, perturbation, and modeling approaches to measure and analyze mitotic processes.