[Hydro-mechanical effects on human blood vessels of rotations on a short-arm centrifuge].
Copyright policy )[Hydro-mechanical effects on human blood vessels of rotations on a short-arm centrifuge].
Methods of mathematical modeling in the interests of gravitational therapy revealed a number of specific effects of the short-radius centrifuge (SRC) on human leg vessels. The concepts of local g-loads and local hydrostatic pressure during exposure to the gravitational and inertial forces have been formulated. Experimental data suggest a squared dependence of local hydrostatic pressures (including in the pathology focus) on the radius of rotation; extra asymmetric oscillations of main vessels, point to the effects of the Coriolis acceleration of blood on vascular walls.
Rotation, Foot, Centrifugation, Models, Biological, Biomechanical Phenomena, Femoral Artery, Cell Wall, Hydrostatic Pressure, Physical Endurance, Blood Vessels, Humans, Knee, Aorta, Blood Flow Velocity, Gravitation
Rotation, Foot, Centrifugation, Models, Biological, Biomechanical Phenomena, Femoral Artery, Cell Wall, Hydrostatic Pressure, Physical Endurance, Blood Vessels, Humans, Knee, Aorta, Blood Flow Velocity, Gravitation
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