Blood can be considered a micropolar fluid due to its complex structure and the presence of various cells and plasma components that interact with each other and the surrounding environment. Micropolar fluids are characterized by their micro-rotation of particles, which can be relevant in describing the behavior of blood flow, especially in small vessels. This property can influence blood dynamics, viscosity, and shear stress, making it an important consideration in biomedical applications and studies of circulation.
Micropolar fluid flow refers to the behavior of fluids that exhibit complex microstructural characteristics, allowing for the presence of micro-rotational effects and non-Newtonian behavior. These fluids can have particles or molecules that rotate independently of the bulk flow, leading to unique viscosity and flow patterns. Micropolar fluids are often studied in contexts such as biofluids, polymers, and suspensions, where their properties significantly influence the dynamics of the flow. The governing equations for micropolar fluids incorporate additional stress terms to account for the microstructure, making them more complex than traditional fluid models.
A. Cemal Eringen has written: 'State of stress in a circular cylindrical shell with a circular hole' 'Foundations of micropolar thermoelasticity' -- subject(s): Micropolar elasticity, Thermoelasticity 'Mechanics of continua' -- subject(s): Continuum mechanics 'Microcontinuum field theories' -- subject(s): Unified field theories, Fluid dynamics, Elasticity, Electromagnetic theory
Fluid shift is the transfer of fluid from blood to interstitial fluid (IF). This transfer changes blood and IF volumes.
No, tissue fluid is not part of the blood.
No, it must be blood to blood contact, or at least fluid to fluid.
It is fluid which contains blood. The adjective, sanguinous, refers to blood.
exchange of fluid that occurs across the capillary membrane between the blood and the interstitial fluid. This fluid movement is controlled by the capillary blood pressure, the interstitial fluid pressure and the colloid osmotic pressure of the plasma. Low blood pressure results in fluid moving from the interstitial space into the circulation helping to restore blood volume and blood pressure.
The solid I think and the fluid is water
describe the differences between intravenous fluid and blood
Plasma is the fluid portion of unclotted blood. After blood clots, the fluid that remains is referred to as serum.
in some animals there are two major subcompartments of extracellular fluid. intestinal fluid and blood plasma.
Blood