arterial
Hydrostatic.
I've been seeing the answer as "hydrostatic pressure" on other websites, but I am pretty sure it is Blood Pressure. I hope I was able to help :/
The pressure in the tissue surrounding the capillary, called interstitial fluid pressure, causes fluids to enter the venous side of the capillary due to the pressure gradient. This pressure helps to balance the forces of filtration and reabsorption in the capillary beds.
osmotic pressure
This process is called filtration. It occurs when water and solutes are pushed through a membrane by pressure differentials, with higher hydrostatic pressure on one side of the membrane leading to the movement of water and solutes to the other side.
Yes; the blood pressure tends to be highest closest to the heart (actually, the highest pressure in the circulatory system is in the left ventricle) and slowly drops as it reaches the capillaries. However, there is still some blood pressure at the capillaries, which is why the serum can be forced across the capillary wall into the extracellular fluid to exchange nutrients. There is also some blood pressure in the venous system, although it is much lower than the arterial side.
Atmospheric pressure out side the body and hydrostatic pressure for animals that live in water
Because of abundant capillary flow.
on the side of the can near the bottom where the pressure is highest
Blood pressure is taken through an artery. Normal BP is highest in the artery side of the circulatory system and lower in the venous side.
The primary driving force that produces glomerular filtration is the blood pressure in the glomerular capillaries. This pressure, known as glomerular hydrostatic pressure, is responsible for pushing water and solutes across the filtration membrane into Bowman's capsule in the kidney.
A liquid has two properties (amongst many) called cohesion and adhesion. Cohesion is the force of attraction between molecules/atoms of the liquid itself. Adhesion is the force of attraction between the molecules/atoms of the liquid and other substances. Therefore, if the molecules' attraction for another substance is greater than the attraction between the molecules, the molecules will preferentially interact with the other substance. When you have a substance that is more attracted to the walls of a capillary tube than itself (i.e. adhesion > cohesion), the substance will exhibit capillary action and form a concave meniscus. Mercury, however, has a stronger cohesive force between its atoms than adhesive force to the walls of a capillary tube, and therefore will not preferentially interact with the tube, thus not demonstrating capillary action and forming a convex meniscus. Curved surfaces have a higher pressure (called LaPlace pressure) on the concave side of the curve than on the convex side. Because mercury has a convex meniscus it has a lower LaPlace pressure in the capillary than the surrrounding liquid. It will therefore show a capillary drop rather than the more common capillary rise seen with materials that have a concave meniscus like water.