The water exiting the cell is same amount as the water entering the cell, so they are canceling each other movement.
The net movement of osmosis stops when the concentration of solute is equal on both sides of the membrane, resulting in equilibrium. At equilibrium, there is no further movement of water molecules across the membrane.
net movement of particles mean the spreading out or over all movement of particles
In an isotonic solution, water molecules move across the cell membrane in both directions at equal rates. This means that there is no net movement of water into or out of the cell, resulting in a stable cell volume.
The net movement of molecules into cells is most dependent upon the concentration gradient of the molecules, the size of the molecules, and the permeability of the cell membrane. Additionally, factors such as temperature and pressure can also influence the rate of molecular movement into cells.
The percentage of the net movement of water into a cell through the process of osmosis is that the outside would be higher than the water on the inside of the cell. For example, there would be 95 percent of water on the outside, which is a higher concentration, and the inside would be 90 percent.
There was a net movement of glucose into the cell through facilitated diffusion.
The water is not moving equilibrium.
booty hole
The net movement of osmosis stops when the concentration of solute is equal on both sides of the membrane, resulting in equilibrium. At equilibrium, there is no further movement of water molecules across the membrane.
net passive movement of particles
20 MWCO
When the net force=0, absolutely nothing happens. no movement at all.
The direction of net movement will depend on the concentration gradient. Substances will generally move from an area of higher concentration to an area of lower concentration, until equilibrium is reached.
That is called an electrical current, or just a current.
The movement is random, but there is a net movement from regions where there are lots of particles to ones where there are fewer particles.
Osmosis
osmosis