Constance Work Junior Research Fellow at Newnham College, Cambridge
Research Fellow with Martinez Arias Group
Developmental Biology
University of Cambridge,
Cambridge, UK
CB2 3EH
Biography:
Naomi studied Biological Science at Imperial College London as an undergraduate, and found herself particularly interested in developmental biology and epigenetics. After some time spent researching at Cancer Research UK London, she came to Cambridge to do a PhD between the departments of Genetics and Haematology. She is currently a Junior Research Fellow, working with Alfonso Martinez-Arias’ group.
Research Interests
My research is in the field of developmental biology, which involves studying early embryo development and how individual cells make decisions. I’m particularly interested in the dynamics of these decisions, including the role of random chance (stochasticity) and gene expression variability (heterogeneity), and how cell fate is coordinated across the embryo in both space and time. To better understand these questions, I use mouse embryonic stem cells in 3-dimensional ‘gastruloid’ culture systems which mimic features of the early mouse embryo.
Teaching
Naomi supervises for the Part IA (1st Year) Physiology of Organisms course, and Part IB (2nd Year) Cell and Developmental Biology course, both as part of the University of Cambridge Natural Sciences Tripos undergraduate course.
Collaborators
Key Publications
Moris, N., Edri, S., Seyres, D., Kulkarni, R., Domingues, A.F., Balayo, T., Frontini, M., Pina, C. Histone
acetyltransferase Kat2a stabilises pluripotency with control of transcriptional heterogeneity bioRxiv doi:
https://doi.org/10.1101/347476
Moris, N.* & Martinez Arias, A. (2017) The hidden memory of differentiating cells. Cell Systems 5 (3) :
163-164 * Corresponding author
Moris, N., Pina C. & Martinez Arias A. (2016) Transition states and cell fate decisions in epigenetic landscapes.
Nature Reviews Genetics 17 (11) : 693-703
Moris, N., Shrivastava J., Jeffery L., Li J.J., Hayles J., Nurse P. (2016) A genome-wide screen to identify
genes controlling the rate of entry into mitosis in fission yeast. Cell Cycle, 13:0.