DocumentCode
3562910
Title
Mechanical modulation study of an adipose-derived mesenchymal stem cell under pressure loading: A numerical investigation on cell engineering
Author
Alihemmati, Zakieh ; Vahidi, Bahman ; Haghighipour, Nooshin
Author_Institution
Dept. of Life Sci. Eng., Univ. of Tehran, Tehran, Iran
fYear
2014
Firstpage
53
Lastpage
57
Abstract
Mesenchymal stem cells (MSCs) have the potential to differentiate to other cells and this feature makes it as an attractive source in tissue engineering. Mesenchymal stem cells are subjected to many mechanical stimuli in vivo such as an in vivo pressure loading and one of the cell respond to these stimuli is differentiation to cartilage or bone cell. One of the most significant ways for this goal is a process which is called mechanotransduction which can activate many biochemical signals in cell components. The biomechanical pathways for signal transmission are unknown and recent developmental findings indicate that forces which cause cell deformation are involved. Cell behavior is analyzed in this paper based on mechanical behavior of cell components. This study introduces an ideal method using finite element modeling which focuses on the cell mechanics using computational tools. This study is conducted in order to simulate an experimental situation in which cell deformation occurs. This method is used to analyze the strain distribution in the cell and play a key role in estimating the cell behavior under pressure loading.
Keywords
biochemistry; biology computing; biomechanics; bone; cellular biophysics; deformation; finite element analysis; pressure; tissue engineering; adipose-derived MSC; biochemical signals; biomechanical pathways; bone cell; cartilage; cell behavior; cell component behavior; cell deformation; cell engineering; cell mechanics; computational tools; finite element modeling; in vivo mechanical stimuli; in vivo pressure loading; mechanical modulation study; mechanotransduction; mesenchymal stem cell; numerical investigation; signal transmission; tissue engineering; Biomedical engineering; Finite element analysis; Load modeling; Loading; Stem cells; Strain; Stress; cell mechanics; finite element methods; mechanical properties; regulation of gene expression;
fLanguage
English
Publisher
ieee
Conference_Titel
Biomedical Engineering (ICBME), 2014 21th Iranian Conference on
Print_ISBN
978-1-4799-7417-7
Type
conf
DOI
10.1109/ICBME.2014.7043893
Filename
7043893
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