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CELL BIOPHYSICS |
1 Davis Heart and Lung Research Institute, The Ohio State University
2 Mathematical Biosciences Institute, The Ohio State University
* To whom correspondence should be addressed. E-mail: xiaoping.liu{at}osumc.edu.
Submitted on August 25, 2007
Revised on September 13, 2007
Accepted on 2 November 2007
| Abstract |
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in the aortic wall. A mathematical model was presented for analyzing experimental data. It was determined that
=1.15±0.11 and D=848±45 µm2/s (n=12). The NO diffusion coefficient in the aortic wall is nearly fourfold smaller than the reported diffusion coefficient in solution at 37°C, indicating that NO diffusion in the vascular wall is no longer "free" but markedly dependent on the environment in the tissue where these NO molecules are. These results imply that the NO diffusion rate in the vascular wall may be upregulated and downregulated by certain physiological and/or pathophysiological processes affecting the composition of tissues.
Key Words: Crowding, Diffusion coefficient, Nitric oxide, Partition coefficient, mathematical model
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