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Printable Handouts
Navigable Slide Index
- Introduction
- The cell cycle
- Cohesin in the cell cycle
- Chromatids arrangement at spindal pole
- Tension-dependent reorientation
- Kinetochore geometry (1)
- Kinetochore geometry (2)
- Chromatids separation in meiosis and mitosis
- Kinetochore geometry during meiosis (1)
- Kinetochore geometry during meiosis (2)
- Organization of centromeres (1)
- Monopolin complex in budding yeast
- Models for mono-polar attachment at meiosis I
- Organization of centromeres (2)
- Cohesion complex in meiosis and mitosis (1)
- Studies of chromosomes segregation at meiosis
- Cohesin is defining kinetochore orientation
- Rec8 vs. Rad21 at the centromere
- Cohesion-mediated kinetochore orientation model
- The central core cohesion in moa1 mutant
- A lacO array in the core centromere
- Excision of core centromeres (1)
- Excision of core centromeres (2)
- Cohesion depends on Moa1 as well as Rec8
- Cohesion is disrupted at prophase II
- Cohesion complex in meiosis and mitosis (2)
- Centromeric resolution in mitosis
- Disestablishment of cohesion during mitosis (1)
- Disestablishment of cohesion during mitosis (2)
- Kinetochore geometry of mono-orientation
- Artificial tether at the core centromere
- Artificial tether restores mono-orientation
- Artificial tether induces mono-orientation in mitosis
- Core centromeres regulate orientation
- Tether applied to the non-cohered chromatids
- Shugoshin allows segregation at meiosis II
- Tether applied to the non-cohered chromosomes
- Opposite tethers effects at centromeric regions
- Kinetochore orientation is regulated by cohesion
- Acknowledgements
Topics Covered
- The cell cycle
- Aurora B-dependent destabilization
- The attachment is stabilized under tension
- Tension-dependent reorientation
- Kinetochore geometry
- Organization of centromeres
- Budding yeast
- Two models to account for the mono-polar attachment at meiosis I
- Rec8 vs. Rad21 at the centromere
- Cohesion-mediated kinetochore orientation model
- Is the central core cohesion defective in moa1Δ?
- A lacO array in the core centromere
- Excision of core centromeres
- Cohesion at core centromeres depends on Moa1 as well as Rec8
- Cohesion at core centromeres is disrupted at prophase II
- Centromeric resolution in mitosis
- Core centromere is intrinsically prevented from establishment of cohesion
- Artificial tether at the core centromere
- Opposite effects of tethers at the core and peri-centromeric regions
Talk Citation
Watanabe, Y. (2009, April 30). Geometric regulation of kinetochore orientation [Video file]. In The Biomedical & Life Sciences Collection, Henry Stewart Talks. Retrieved December 26, 2024, from https://doi.org/10.69645/UCTU5710.Export Citation (RIS)
Publication History
Financial Disclosures
- Prof. Yoshinori Watanabe has not informed HSTalks of any commercial/financial relationship that it is appropriate to disclose.