
doi: 10.1007/bf00160332
pmid: 1765736
A non-linear partial differential equation is analyzed using multiple scale techniques and similarity transformations in order to examine the role of hemoglobin and myoglobin in facilitating oxygen transport to tissue.
Myoglobin, Physiology (general), PDEs in connection with biology, chemistry and other natural sciences, Muscles, diffusion, homogenization, Biological Transport, hemoglobin, Models, Biological, Capillaries, Oxygen, Hemoglobins, Kinetics, Oxygen Consumption, similarity transformations, oxygen transport, multiple scale techniques, myoglobin, nonlinear partial differential equation, convection, Blood Flow Velocity, Mathematics
Myoglobin, Physiology (general), PDEs in connection with biology, chemistry and other natural sciences, Muscles, diffusion, homogenization, Biological Transport, hemoglobin, Models, Biological, Capillaries, Oxygen, Hemoglobins, Kinetics, Oxygen Consumption, similarity transformations, oxygen transport, multiple scale techniques, myoglobin, nonlinear partial differential equation, convection, Blood Flow Velocity, Mathematics
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