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Posted:
7 years ago
16 juin 2017, 18:33 UTC−4
Updated:
7 years ago
16 juin 2017, 18:34 UTC−4
I am preparing to model oxygen uptake as well in my next project. I anticipate using the Chemical Reaction Engineering module for the Hill equation. However I haven't started yet, but anticipate starting by early fall.
It may not be straightforward, since oxygen uptake involves Fick diffusion through plasma, across the red cell membrane, and into the cytoplasm. At that point is the binding of oxygen to hemoglobin. There are more accurate equations than the Hill equation, but the Hill is simple and invertible, should suffice. Mass transport will most likely have to be modeled as two connected physics. This may simplify the oxygen transport, but may complicate fluid dynamics.
The concepts you are asking about are available in textbooks of physiology, and publications in physiology journals circa 1960-1970.
Keep me posted on your progress.
--
Steven Conrad, MD PhD
LSU Health
I am preparing to model oxygen uptake as well in my next project. I anticipate using the Chemical Reaction Engineering module for the Hill equation. However I haven't started yet, but anticipate starting by early fall.
It may not be straightforward, since oxygen uptake involves Fick diffusion through plasma, across the red cell membrane, and into the cytoplasm. At that point is the binding of oxygen to hemoglobin. There are more accurate equations than the Hill equation, but the Hill is simple and invertible, should suffice. Mass transport will most likely have to be modeled as two connected physics. This may simplify the oxygen transport, but may complicate fluid dynamics.
The concepts you are asking about are available in textbooks of physiology, and publications in physiology journals circa 1960-1970.
Keep me posted on your progress.
--
Steven Conrad, MD PhD
LSU Health