Model organisms and in particular the budding yeast Saccharomyces cerevisiae have been instrumental in advancing our understanding of cell cycle progression. The asymmetric division of the budding yeast and the tight coupling between cell growth and division have challenged the theoretical understanding of the cell size structure of growing yeast populations. Past efforts have centered on modeling the steady-state theoretical age distribution for asymmetric division from which a cell size distribution can be derived assuming dispersion of cell size within each age class. Different developments, especially in the field of flow cytometry, allowed the determination of a number of cellular properties and their joint distributions for the entire population and the different subpopulations as well. A new rigorous framework for modeling directly the dynamics of size distributions of structured yeast populations has been proposed, which readily extends to modeling of more complex conditions, such as transient growth. Literature on the structure of growing yeast populations and modeling of cell cycle progression is reviewed. (C) 2008 international Society for Advancement of Cytometry
Model organisms and in particular the budding yeast Saccharomyces cerevisiae have been instrumental in advancing our understanding of cell cycle progression. The asymmetric division of the budding yeast and the tight coupling between cell growth and division has challenged the theoretical understanding of the cell size structure of growing yeast populations. Past efforts have centred on modelling the steady-state theoretical age distribution for asymmetric division from which a cell size distribution can be derived assuming dispersion of cell size within each age class. Recent developments, especially in the field of flow cytometry, allowed the determination of a number of cellular properties and their joint distributions for both the entire population and the different subpopulations as well. A new rigorous framework for modelling directly the dynamics of size distributions of structured yeast populations has been recently proposed, which readily extends to modelling of more complex conditions, such as transient growth. Literature on the structure of growing yeast populations and modelling of cell cycle progression is reviewed.
Porro, D., Vai, M., Vanoni, M., Alberghina, L., Hatzis, C. (2009). Analysis and modelling of growing budding yeast populations at the single cell level. CYTOMETRY. PART A, 75A(2), 114-120 [10.1002/cyto.a.20689].
Analysis and modelling of growing budding yeast populations at the single cell level
PORRO, DANILO;VAI, MARINA;VANONI, MARCO ERCOLE;ALBERGHINA, LILIA;
2009
Abstract
Model organisms and in particular the budding yeast Saccharomyces cerevisiae have been instrumental in advancing our understanding of cell cycle progression. The asymmetric division of the budding yeast and the tight coupling between cell growth and division has challenged the theoretical understanding of the cell size structure of growing yeast populations. Past efforts have centred on modelling the steady-state theoretical age distribution for asymmetric division from which a cell size distribution can be derived assuming dispersion of cell size within each age class. Recent developments, especially in the field of flow cytometry, allowed the determination of a number of cellular properties and their joint distributions for both the entire population and the different subpopulations as well. A new rigorous framework for modelling directly the dynamics of size distributions of structured yeast populations has been recently proposed, which readily extends to modelling of more complex conditions, such as transient growth. Literature on the structure of growing yeast populations and modelling of cell cycle progression is reviewed.I documenti in IRIS sono protetti da copyright e tutti i diritti sono riservati, salvo diversa indicazione.