MMMahmood Mazarei
Mahmood Mazarei
*This is an algorithmically generated author record based on publicly available information.
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Research Subjects
Research Interests
Mahmood Mazarei has a total of 3 co-authors. Here are the top co-authors by number of shared publications:
- Jan Westerholm
Åbo Akademi University
2 shared publications - Jan Åström
CSC Scientific Computing Ltd Kägelstranden 14 02150 Esbo Finland
2 shared publications - Mikko Karttunen
Department of Chemistry, The University of Western Ontario, 1151 Richmond Street, London, Ontario N6A 5B7, Canada
2 shared publications
Latest Publications
- Open Access
- 13 November 2023
- Published by American Physical Society (APS) in Physical Review E
- Vol. 108 (5) , 054405
Effect of substrate heterogeneity and topology on epithelial tissue growth dynamics
Tissue growth kinetics and interface dynamics depend on the properties of the tissue environment and cell-cell interactions. In cellular environments, substrate heterogeneity and geometry arise from a variety factors, such as the structure of the extracellular matrix and nutrient concentration. We used the CellSim3D model, a kinetic cell division simulator, to investigate the growth kinetics and interface roughness dynamics of epithelial tissue growth on heterogeneous substrates with varying topologies. The results show that the presence of quenched disorder has a clear effect on the colony morphology and the roughness scaling of the interface in the moving interface regime. In a medium with quenched disorder, the tissue interface has a smaller interface roughness exponent, , and a larger growth exponent, . The scaling exponents also depend on the topology of the substrate and cannot be categorized by well-known universality classes.- 13 November 2023
- Published by American Physical Society (APS) in Physical Review E
- Vol. 108 (5) , 054405
Open AccessEffect of substrate heterogeneity and topology on epithelial tissue growth dynamics
Tissue growth kinetics and interface dynamics depend on the properties of the tissue environment and cell-cell interactions. In cellular environments, substrate heterogeneity and geometry arise from a variety factors, such as the structure of the extracellular matrix and nutrient concentration. We used the CellSim3D model, a kinetic cell division simulator, to investigate the growth kinetics and interface roughness dynamics of epithelial tissue growth on heterogeneous substrates with varying topologies. The results show that the presence of quenched disorder has a clear effect on the colony morphology and the roughness scaling of the interface in the moving interface regime. In a medium with quenched disorder, the tissue interface has a smaller interface roughness exponent, , and a larger growth exponent, . The scaling exponents also depend on the topology of the substrate and cannot be categorized by well-known universality classes. - Open Access
Effect of substrate heterogeneity and topology on epithelial tissue growth dynamics
Tissue growth kinetics and interface dynamics depend on the properties of the tissue environment and cell-cell interactions. In cellular environments, substrate heterogeneity and geometry arise from a variety factors, such as the structure of the extracellular matrix and nutrient concentration. We used the CellSim3D model, a kinetic division simulator, to investigate the growth kinetics and interface roughness dynamics of epithelial tissue growth on heterogeneous substrates with varying topologies. The results show that the presence of quenched disorder has a clear effect on the colony morphology and the roughness scaling of the interface in the moving interface regime. In a medium with quenched disorder, the tissue interface has a smaller interface roughness exponent, $α$, and a larger growth exponent, $β$. The scaling exponents also depend on the topology of the substrate and cannot be categorized by well-known universality classes.Open AccessEffect of substrate heterogeneity and topology on epithelial tissue growth dynamics
Tissue growth kinetics and interface dynamics depend on the properties of the tissue environment and cell-cell interactions. In cellular environments, substrate heterogeneity and geometry arise from a variety factors, such as the structure of the extracellular matrix and nutrient concentration. We used the CellSim3D model, a kinetic division simulator, to investigate the growth kinetics and interface roughness dynamics of epithelial tissue growth on heterogeneous substrates with varying topologies. The results show that the presence of quenched disorder has a clear effect on the colony morphology and the roughness scaling of the interface in the moving interface regime. In a medium with quenched disorder, the tissue interface has a smaller interface roughness exponent, $α$, and a larger growth exponent, $β$. The scaling exponents also depend on the topology of the substrate and cannot be categorized by well-known universality classes.