Bone cells respond to fluid shear loading by activating various biochemical pathways, mediating a dynamic process of bone formation and resorption. The whole-cell volume dilatation [1] and regional deformation of intracellular structures [2] may be able to directly activate and modulate relevant biochemical pathways. Therefore, understanding how bone cells deform under fluid flow can help elucidate the fundamental mechanisms by which mechanical stimuli are able to initiate biochemical responses. Most studies on cell deformation have focused only on cell deformation in the plane parallel to the substrate surface. Height-dependent cell deformation has not been well characterized even though it may contribute greatly to mechanotransduction mechanisms. Traditional techniques to obtain this additional height information of a cell-body, such as confocal and deconvolution microscopy, are inherently limited by the timescale under which the deformational information can be visualized. Previous studies have investigated cell adhesion to substrate under flow using a single view side-view imaging technique [3, 4]. In this study, we present a novel technique that is able to image a single cell simultaneously in two orthogonal planes to obtain real-time images of a cell at a millisecond timescale. Thus, the objectives of this study were to: (1) develop an imaging technique to visualize the depth-directional information of a cell simultaneously with the traditional 2D view; (2) map out the strain fields of the cell by image analysis; and (3) investigate the viscoelastic behavior of osteoblasts under steady fluid flow.
Skip Nav Destination
Close
Sign In or Register for Account
ASME 2009 Summer Bioengineering Conference
June 17–21, 2009
Lake Tahoe, California, USA
Conference Sponsors:
- Bioengineering Division
ISBN:
978-0-7918-4891-3
PROCEEDINGS PAPER
A Semi-3D Real-Time Imaging Technique for Measuring Bone Cell Deformation Under Fluid Flow
Andrew D. Baik,
Andrew D. Baik
Columbia University, New York, NY
Search for other works by this author on:
X. Lucas Lu,
X. Lucas Lu
Columbia University, New York, NY
Search for other works by this author on:
Bo Huo,
Bo Huo
Chinese Academy of Sciences, Beijing, China
Search for other works by this author on:
X. Sherry Liu,
X. Sherry Liu
Columbia University, New York, NY
Search for other works by this author on:
Cheng Dong,
Cheng Dong
Pennsylvania State University, University Park, PA
Search for other works by this author on:
X. Edward Guo
X. Edward Guo
Columbia University, New York, NY
Search for other works by this author on:
Andrew D. Baik
Columbia University, New York, NY
X. Lucas Lu
Columbia University, New York, NY
Bo Huo
Chinese Academy of Sciences, Beijing, China
X. Sherry Liu
Columbia University, New York, NY
Cheng Dong
Pennsylvania State University, University Park, PA
X. Edward Guo
Columbia University, New York, NY
Paper No:
SBC2009-206524, pp. 823-824; 2 pages
Published Online:
July 19, 2013
Citation
Baik, AD, Lu, XL, Huo, B, Liu, XS, Dong, C, & Guo, XE. "A Semi-3D Real-Time Imaging Technique for Measuring Bone Cell Deformation Under Fluid Flow." Proceedings of the ASME 2009 Summer Bioengineering Conference. ASME 2009 Summer Bioengineering Conference, Parts A and B. Lake Tahoe, California, USA. June 17–21, 2009. pp. 823-824. ASME. https://doi.org/10.1115/SBC2009-206524
Download citation file:
- Ris (Zotero)
- Reference Manager
- EasyBib
- Bookends
- Mendeley
- Papers
- EndNote
- RefWorks
- BibTex
- ProCite
- Medlars
Close
Sign In
5
Views
0
Citations
Related Proceedings Papers
Related Articles
A Semi-Empirical Cell Dynamics Model for Bone Turnover Under External Stimulus
J Biomech Eng (February,2012)
Biomimetic Treatments on Dental Implants for Immediate Loading Applications
J. Med. Devices (June,2009)
Gap Junctions and Osteoblast-like Cell Gene Expression in Response to Fluid Flow
J Biomech Eng (January,2009)
Related Chapters
Surface Analysis and Tools
Tribology of Mechanical Systems: A Guide to Present and Future Technologies
Linear Viscoelasticity
Introduction to Plastics Engineering
Effects of Mechanical Vibration on Cultured Osteoblasts in Relation to Fracture Healing
Biomedical Applications of Vibration and Acoustics in Therapy, Bioeffect and Modeling