O. dioica displays an unique system of cell cycle regulation that are poorly understood, because previous research on cell cycle have focussed on a single nuclei within its own cytoplasm, while in this model we can study cell cycle regulation of multiple nuclei, both meiotic and endocycling, sharing a common cytoplasm, as seen in the coenocyst. Cell cycle in O. dioica is also unique in its way of development because most cells switch from rapid mitotic division to endoreduplication around the event of tail shift. O. dioica is also an important organism when viewed at the light of evolution, because it is the closest evolutionary relative to the vertebrates, and is therefore an important model organism in the field biology. In addition to presenting a unique environment for cell cycle studies and its evolutionary importance, it has many other abilities that make it an excellent model organism. O. dioica is successfully maintained in culture and have a short life cycle of 6 days at 15°C (Bouquet, 2009), and is therefore an excellent model organism for developmental studies. It is also transparent which makes it easy to observe internal organs when used for in situ experiments. Another advantage of using O. dioica as a model organism is the fact that the genome of O. dioica has been fully sequenced, which makes genetic studies easier by far.
- 2017. The Functional roles of the MDM2 splice variants P2-MDM2-10 and MDM2-∆5 in breast cancer cells. Translational Oncology. 806-817.
- 2017. Impact of the MDM2 splice-variants MDM2-A, MDM2-B and MDM2-C on cytotoxic stress response in breast cancer cells. BMC Cell Biology. 1-9.
- 2016. Identification of a novel leptin receptor duplicate in Atlantic salmon: Expression analyses in different life stages and in response to feeding status. General and Comparative Endocrinology. 108-119.
- 2015. Functional specialization of chordate cdk1 paralogs during oogenic meiosis. Cell Cycle. 880-893.
- 2012. Expansion of cyclin D and CDK1 paralogs in Oikopleura dioica, a chordate employing diverse cell cycle variants. Molecular Biology and Evolution (MBE). 487-502.
- 2014. Cell cycle regulation of Oikopleura dioica.
Study of cell cycle regulation within the female gonad of Oikopleura dioica
MSc in Molecular biology