well the flow of lymph fluid is when your ateries are blocked up with flem, green GUNGY flem and it soaks up your insides and overpowers your feaces.
true.
An irregular fluid flow refers to a fluid motion that is not consistent or smooth, characterized by fluctuations and turbulence in the flow pattern. It can be caused by factors such as obstacles in the fluid's path, changes in the flow velocity, or variations in fluid properties. Irregular fluid flow can affect the efficiency and performance of systems where fluids are involved, such as pipelines or aircraft wings.
muscular ump lymphatic pump plus the intrestitial pressure
Blood flow is most noticeably different in that it is driven by a central pump: the heart. The blood goes from the heart --> arteries --> arterioles (small arteries) --> capillaries --> venules (small veins) --> veins --> Heart --> Lungs --> Heart --> Arteries (and so on). Lymph flow on the other hand is driven by passive flow through lymph vessels. The capillaries (see above) are fenestrated, which means they have microscopic holes in them. These holes allow a fluid ultrafiltrate from the blood to pass out into the different tissues. This ultrafiltrate is mixed with waste-products from cells and and other pathogens - and this makes up the basic substances in lymph fluid. The lymph fluid is then gathered by open ended lymphvessels, which transport the lymph towards the center of the body.
the plasma of the blood flowing through the numerous dermal blood vessels The fluid in a blister is lymph. It comes from the lymph system, which is a circulatory system similar to the one that circulates blood. The flow of lymph is powered by the movement of the muscles throughout the body, and the lymph is colorless and nearly clear.
get a life you nerd
The flow of lymph is slow because the lymphatic system has no pump.
Lymph originates as plasma (the fluid portion of blood). The arterial blood, which flows out of the heart, slows as it moves through a capillary bed. This slowing allows some plasma to leave the arterioles (small arteries) and flow into the tissues where it becomes tissue fluid.Also known as extracellular fluid, this is fluid that flows between the cells but is not into the cells. This fluid delivers nutrients, oxygen, and hormones to the cells.As this fluid leaves the cells, it takes with it cellular waste products and protein cells.Approximately 90% of this tissue fluid flows into the small veins. Here it enters the venous circulation as plasma and continues in the circulatory system.The remaining 10% of the fluid that is left behind is known as lymph
When capillaries flow through tissues everyone knows they give off nutrients and oxygen into the Interstitium (the space between cells) from which the cells pick them up. In the interstitium is a fluid called Interstitial Fluid which is very similar to blood plasma. As the blood flows though the capillaries much of the plasma travels through the vessel wall and into the interstitium (due to complicated laws of physics). Only a fraction of this fluid returns to the blood and the rest remains in the interstitium, increasing the pressure in the tissues and drastically decreasing the blood pressure. This is where the lymph vessels come in. They pick up this eccess fluid and transport it back, eternally, to the Vena Cava so it rejoins the blood supply. Therefore lymph, the fluid in lymph vessels, is basically a fluid of roughly the same composition as blood plasma. Lymph nodes are famous for their role in the Immune System. Structures called Lymph Nodes which produce cells called Lyphocytes. These have many and various function in the immune system. They get into the blood by following the flow of lymph into the vena cava and join the blood supply here. or for a very simple answer lymph=tissue fluid
Dynamic pressure is the pressure exerted by a fluid in motion, while static pressure is the pressure exerted by a fluid at rest. In fluid flow systems, dynamic pressure increases as the fluid velocity increases, while static pressure remains constant. The total pressure in a fluid flow system is the sum of dynamic and static pressure, and they interact to determine the overall pressure and flow behavior in the system.
The Taylor-Maccoll equation is important in fluid dynamics because it describes the behavior of fluid flow in rotating systems. It helps researchers understand how fluids move in situations where rotation is involved, such as in the Earth's atmosphere or oceans. By using this equation, scientists can predict and analyze the flow patterns of fluids in rotating environments, which is crucial for various applications in engineering and environmental studies.
Incompressible flow is a type of fluid flow where the density of the fluid remains constant. In fluid dynamics, this concept is important because it simplifies the equations used to describe the behavior of the fluid. By assuming the fluid is incompressible, engineers and scientists can more easily analyze and predict the flow of fluids in various systems, such as in pipes, channels, and around objects.