The cell will expand until the ionic concentration is the same inside as out (or the membrane fails and the cell "explodes").
Factors such as osmotic pressure, active transport mechanisms, and selective permeability of the cell membrane can influence the concentration of water and solutes in the internal environment of a cell. Additionally, external factors like the concentration of solutes in the surrounding environment can also impact the balance of water and solutes inside the cell.
The net osmosis rate will equal zero when the concentration of solutes inside the cell is the same as the concentration of solutes in the surrounding solution. At this point, there will be no concentration gradient driving osmosis in either direction, resulting in no net movement of water across the cell membrane.
The movement of solutes from areas of high concentration to areas of low concentration is called diffusion. This process occurs passively and does not require energy input. Diffusion helps in achieving equilibrium in the concentration of solutes across a membrane or within a solution.
Osmosis. A solution with a low concentration of solutes would have a higher concentration of water than a solution with a high concentration of solutes. So in this case, water is moving from a higher concentration of water to a lower concentration of water, which is osmosis.
The body regulates the concentration of solutes in urine to make it hypertonic by adjusting the reabsorption of water and solutes in the kidneys. This helps maintain the body's water balance and prevent dehydration.
To determine if a solution is hypertonic or hypotonic, you need to compare the concentration of solutes in the solution to the concentration of solutes in the surrounding environment. If the solution has a higher concentration of solutes than the surrounding environment, it is hypertonic. If the solution has a lower concentration of solutes than the surrounding environment, it is hypotonic.
You can determine if a solution is hypotonic, hypertonic, or isotonic by comparing the concentration of solutes in the solution to the concentration of solutes in the surrounding environment. If the solution has a lower concentration of solutes than the surrounding environment, it is hypotonic. If the solution has a higher concentration of solutes, it is hypertonic. If the concentrations are equal, the solution is isotonic.
One can determine if a solution is hypertonic, hypotonic, or isotonic by comparing the concentration of solutes in the solution to the concentration of solutes in the surrounding environment. If the solution has a higher concentration of solutes than the surrounding environment, it is hypertonic. If the solution has a lower concentration of solutes, it is hypotonic. If the concentrations are equal, it is isotonic.
It depends on the concentration of solutes inside and outside the baggie or beaker. If the concentration of solutes is higher inside the baggie or beaker compared to the surrounding environment, then it is hypertonic. If the concentration is lower, then it is hypotonic.
Factors such as osmotic pressure, active transport mechanisms, and selective permeability of the cell membrane can influence the concentration of water and solutes in the internal environment of a cell. Additionally, external factors like the concentration of solutes in the surrounding environment can also impact the balance of water and solutes inside the cell.
Osmosis. A solution with a low concentration of solutes would have a higher concentration of water than a solution with a high concentration of solutes. So in this case, water is moving from a higher concentration of water to a lower concentration of water, which is osmosis.
Osmosis. A solution with a low concentration of solutes would have a higher concentration of water than a solution with a high concentration of solutes. So in this case, water is moving from a higher concentration of water to a lower concentration of water, which is osmosis.
Osmosis. A solution with a low concentration of solutes would have a higher concentration of water than a solution with a high concentration of solutes. So in this case, water is moving from a higher concentration of water to a lower concentration of water, which is osmosis.
No, in an isotonic solution, cells maintain their normal size because the concentration of solutes inside the cell is equal to the concentration of solutes in the surrounding solution, resulting in no net movement of water across the cell membrane.
The net osmosis rate will equal zero when the concentration of solutes inside the cell is the same as the concentration of solutes in the surrounding solution. At this point, there will be no concentration gradient driving osmosis in either direction, resulting in no net movement of water across the cell membrane.
The net movement of solutes to regions of lower concentration is called diffusion. This process occurs in response to the concentration gradient, where solutes move from areas of higher concentration to areas of lower concentration until equilibrium is reached.
Osmosis. A solution with a low concentration of solutes would have a higher concentration of water than a solution with a high concentration of solutes. So in this case, water is moving from a higher concentration of water to a lower concentration of water, which is osmosis.