It would flow toward the weaker solution. The intent of osmosis is to gain equilibrium, so the 15 percent solution would gain sugar content until, if you allowed the osmosis to go to completion, the two solutions had the same amount of sugar in them.
"Going to completion" doesn't necessarily mean 20 percent concentration on both sides. If you were to make a gallon bag out of dialysis membrane, fill it with 15 percent solution and put a stirrer in it, then drop it into a 25,000-gallon reaction vessel full of 25 percent solution with a stirrer in it, you might wind up with 24.9999999999 percent sugar solution in both bags.
The observed shrinkage of red blood cells in the 2% salt solution is due to water moving out of the cells via osmosis to balance the high salt concentration outside. In the 0.4% salt solution, water moves into the red blood cells via osmosis causing them to swell and burst due to the excess internal pressure. This demonstrates the importance of maintaining a balance of solute concentration to prevent cell damage.
A 2% salt solution is hypotonic compared to a 4% salt solution because it has a lower concentration of salt. In osmosis, water flows from hypotonic to hypertonic solutions, so in this case, water would flow from the 2% solution to the 4% solution to try to equalize the concentrations.
When pollen grains are placed in a 10 percent sugar solution, they will absorb water from the solution through osmosis. This can cause the pollen grains to swell and become turgid. The sugar solution provides a hypertonic environment, leading to an influx of water into the pollen grains.
The cell will lose water through osmosis as water moves from an area of higher concentration (inside the cell) to an area of lower concentration (outside the cell). This process will cause the cell to shrink or shrivel up.
Osmosis of water from a low concentration of salt to a high concentration
The direction will be towards the more concentrated side so the 10% solution with go towards the 20% solution in an attempt to reach equilibrium.
The observed shrinkage of red blood cells in the 2% salt solution is due to water moving out of the cells via osmosis to balance the high salt concentration outside. In the 0.4% salt solution, water moves into the red blood cells via osmosis causing them to swell and burst due to the excess internal pressure. This demonstrates the importance of maintaining a balance of solute concentration to prevent cell damage.
Osmosis of water from a low concentration of salt to a high concentration
Osmosis of water from a low concentration of salt to a high concentration
Yes, during process of osmoses the solvent from higher concentration to lower concentration moves through semipermeable membrane, the 2% solution has lower concentration of solute therefore higher concentration of solvent.
Osmosis of water from the right to the left
A 2% salt solution is hypotonic compared to a 4% salt solution because it has a lower concentration of salt. In osmosis, water flows from hypotonic to hypertonic solutions, so in this case, water would flow from the 2% solution to the 4% solution to try to equalize the concentrations.
When pollen grains are placed in a 10 percent sugar solution, they will absorb water from the solution through osmosis. This can cause the pollen grains to swell and become turgid. The sugar solution provides a hypertonic environment, leading to an influx of water into the pollen grains.
There will be movement of water by osmosis from the less-concentrated solution (left) to the more-concentrated solution (right). Water will tend to flow from a more-dilute state to a less-dilute state.
The cell will lose water through osmosis as water moves from an area of higher concentration (inside the cell) to an area of lower concentration (outside the cell). This process will cause the cell to shrink or shrivel up.
The cell would undergo the process of osmosis, where water molecules move from the area of higher concentration (the distilled water solution) to the area of lower concentration (inside the cell). This would cause the cell to expand and potentially burst due to the influx of water.
Osmosis of water from a low concentration of salt to a high concentration