DocumentCode
3112505
Title
A Dual-Frequency Loading Device for Tissue Engineering Cartilage
Author
Xu, Qiang ; Zhang, Chunqiu ; Fan, Yubo ; Wu, Han ; Zhang, Shuqing
Author_Institution
Tianjin Key Lab. for Control Theor. & Applic. in Complicated Ind. Syst., Tianjin Univ. of Technol., Tianjin, China
fYear
2010
fDate
18-20 June 2010
Firstpage
1
Lastpage
3
Abstract
Cartilage degradation or defects cause joint pain, activity obstacles, or even completely losing the joint function. At present, using many new technologies and methods for treatment clinically, but it only relieves the patients of pain. The development of cartilage tissue engineering is becoming an ideal way of permanently repairing tissue defects. Mechanical factors play a major role during the cartilage growing and developping. Currently, a variety of mechanical conditions are applied to cartilage bioreactors, such as Fluid shear stress, Liquid Pressure, Direct compression etc., or some combinations of these. But these mechanical conditions have not reflected the real mechanical environment of the cartilage. According to the biomimic principle of tissue engineering, from the mechanical characteristic of human activities, we have developed a dual-frequency loading device using in cartilage culture, adopting dual-frequency loading method.There are two frequencies and corresponding amplitudes working on the building cartilage at any time, and it achieves that low-frequency high-amplitude coupling high-frequency low-amplitude loads acting on artificial cartilage constructions, that is, under dual-frequency dynamic loading conditions. The kind of dual-frequency loading method maybe contribute to the construction of the cartilage. The structure size of the device is enough small to fit for working in the general culture box, and we will test it with biological experiment in future.
Keywords
biological tissues; biomechanics; biomimetics; orthopaedics; tissue engineering; biomimics; cartilage bioreactors; cartilage tissue engineering; direct compression; dual-frequency loading; fluid shear stress; liquid pressure; tissue defects; Bioreactors; Degradation; Frequency; Humans; Joints; Mechanical factors; Medical treatment; Pain; Stress; Tissue engineering;
fLanguage
English
Publisher
ieee
Conference_Titel
Bioinformatics and Biomedical Engineering (iCBBE), 2010 4th International Conference on
Conference_Location
Chengdu
ISSN
2151-7614
Print_ISBN
978-1-4244-4712-1
Electronic_ISBN
2151-7614
Type
conf
DOI
10.1109/ICBBE.2010.5516037
Filename
5516037
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