Cortical rigidity of round cells in mitotic phase and suspended state

► Cortical stiffness of detached round cells was greater than mitotic ones. ► Round mitotic and suspended cells had developed cortical actin. ► Surface stiffness of Hela.S- and NMuMG-Fucci cells decreased as they entered mitosis. ► Cortical rigidity of round cells varied by cellular conditions. This...

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Veröffentlicht in:Micron (Oxford, England : 1993) England : 1993), 2012-12, Vol.43 (12), p.1246-1251
Hauptverfasser: Shimizu, Yuji, Haghparast, Seyed Mohammad Ali, Kihara, Takanori, Miyake, Jun
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container_end_page 1251
container_issue 12
container_start_page 1246
container_title Micron (Oxford, England : 1993)
container_volume 43
creator Shimizu, Yuji
Haghparast, Seyed Mohammad Ali
Kihara, Takanori
Miyake, Jun
description ► Cortical stiffness of detached round cells was greater than mitotic ones. ► Round mitotic and suspended cells had developed cortical actin. ► Surface stiffness of Hela.S- and NMuMG-Fucci cells decreased as they entered mitosis. ► Cortical rigidity of round cells varied by cellular conditions. This paper describes the results of the analysis of cortical rigidity in two round cell states: mitotic round cells and detached round cells after trypsinization using atomic force microscopy (AFM). These two states are primary cell events with dynamic morphological alterations in vitro. The trypsinized detached cells were fixed on the substrate of membrane anchoring oleyl surface. Fluorescent images taken by confocal laser scanning microscopy revealed diverse cell surface protrusions and cortical actin development in the round cells under different conditions. Although the cortical actin of these cells seemed to develop similarly, cortical rigidity of the trypsinized round cells showed greater stiffness than that of mitotic round cells. The elasticity measurements by AFM may detect invisible information about the maturation or strength of F-actin structures and such measurements may indicate that the strength of the actomyosin cortex would be higher in trypsinized round cells compared to mitotic cells. The mechanical properties can help provide better insights into the characteristics of the actin cytoskeleton network in vicinity of cell surface during dynamic morphological alterations.
doi_str_mv 10.1016/j.micron.2012.03.011
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This paper describes the results of the analysis of cortical rigidity in two round cell states: mitotic round cells and detached round cells after trypsinization using atomic force microscopy (AFM). These two states are primary cell events with dynamic morphological alterations in vitro. The trypsinized detached cells were fixed on the substrate of membrane anchoring oleyl surface. Fluorescent images taken by confocal laser scanning microscopy revealed diverse cell surface protrusions and cortical actin development in the round cells under different conditions. Although the cortical actin of these cells seemed to develop similarly, cortical rigidity of the trypsinized round cells showed greater stiffness than that of mitotic round cells. 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source MEDLINE; Elsevier ScienceDirect Journals
subjects actin
Atomic force microscopy
Cell Division
Cell Shape
Chemical Phenomena
confocal laser scanning microscopy
cortex
Cortical actin
Elasticity
Epithelial Cells - physiology
fluorescence
HeLa Cells
Humans
Mechanical Phenomena
mechanical properties
Mechanical property
microfilaments
Microscopy, Atomic Force - methods
Mitotic phase
Surface protrusions
Trypsinized round cell
title Cortical rigidity of round cells in mitotic phase and suspended state
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