© 2020, The Author(s). Sustained proliferation is a significant driver of cancer progression. Cell-cycle advancement is coupled with cell size, but it remains unclear how multiple cells interact to control their volume in 3D clusters. In this study, we propose a mechano-osmotic model to investigate the evolution of volume dynamics within multicellular systems. Volume control depends on an interplay between multiple cellular constituents, including gap junctions, mechanosensitive ion channels, energy-consuming ion pumps, and the actomyosin cortex, that coordinate to manipulate cellular osmolarity. In connected cells, we show that mechanical loading leads to the emergence of osmotic pressure gradients between cells with consequent increases i...
Cells maintain their volume through fine intracellular osmolarity regulation. Osmotic challenges dri...
Cells maintain their volume through fine intracellular osmolarity regulation. Osmotic challenges dri...
Mechanical feedback has been identified as a key regulator of tissue growth, by which external signa...
Brianna Gawronski, AMT495: Applied Mathematics ProjectFaculty Mentor(s): Professor Saziye Bayram, Ma...
Control of the structure and function of three-dimensional multicellular tissues depends critically ...
Alexandra Bone, BIO495: Independent ProjectFaculty Mentor(s): Professor Derek Beahm, Biology Cell v...
International audienceUpon hypertonic stress most often resulting from high salinity, cells need to ...
International audienceMechanics has been a central focus of physical biology in the past decade. In ...
International audienceMechanics has been a central focus of physical biology in the past decade. In ...
International audienceMechanics has been a central focus of physical biology in the past decade. In ...
International audienceMechanics has been a central focus of physical biology in the past decade. In ...
International audienceMechanics has been a central focus of physical biology in the past decade. In ...
Abstract Biophysical cues such as osmotic pressure modulate proliferation and growth arrest of bacte...
Cells maintain their volume through fine intracellular osmolarity regulation. Osmotic challenges dri...
Cells maintain their volume through fine intracellular osmolarity regulation. Osmotic challenges dri...
Cells maintain their volume through fine intracellular osmolarity regulation. Osmotic challenges dri...
Cells maintain their volume through fine intracellular osmolarity regulation. Osmotic challenges dri...
Mechanical feedback has been identified as a key regulator of tissue growth, by which external signa...
Brianna Gawronski, AMT495: Applied Mathematics ProjectFaculty Mentor(s): Professor Saziye Bayram, Ma...
Control of the structure and function of three-dimensional multicellular tissues depends critically ...
Alexandra Bone, BIO495: Independent ProjectFaculty Mentor(s): Professor Derek Beahm, Biology Cell v...
International audienceUpon hypertonic stress most often resulting from high salinity, cells need to ...
International audienceMechanics has been a central focus of physical biology in the past decade. In ...
International audienceMechanics has been a central focus of physical biology in the past decade. In ...
International audienceMechanics has been a central focus of physical biology in the past decade. In ...
International audienceMechanics has been a central focus of physical biology in the past decade. In ...
International audienceMechanics has been a central focus of physical biology in the past decade. In ...
Abstract Biophysical cues such as osmotic pressure modulate proliferation and growth arrest of bacte...
Cells maintain their volume through fine intracellular osmolarity regulation. Osmotic challenges dri...
Cells maintain their volume through fine intracellular osmolarity regulation. Osmotic challenges dri...
Cells maintain their volume through fine intracellular osmolarity regulation. Osmotic challenges dri...
Cells maintain their volume through fine intracellular osmolarity regulation. Osmotic challenges dri...
Mechanical feedback has been identified as a key regulator of tissue growth, by which external signa...