A hypotonic solution causes water to move into the cell. To further elaborate, a hypotonic solution has higher water potential and less solutes as compared to inside the cell. Bear in mind that osmosis is the movement of water from a region of high water potential to a region of low water potential. Therefore, this causes water to move into the cell.
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Hypertonic solution causes water to move out of a cell by creating a higher concentration of solutes outside the cell, leading to water leaving the cell in an attempt to balance the concentration gradient.
When you immerse a living human cell in a hypotonic solution, water will tend to move into the cell through osmosis. This influx of water can cause the cell to swell and potentially burst if the cell cannot regulate the influx by expelling excess water.
If you place a cell in a distilled water solution, water will move into the cell by osmosis causing it to swell and possibly burst. In a concentrated salt solution, water will move out of the cell causing it to shrink and potentially die due to dehydration.
When a cell is placed in distilled water, water will move into the cell by osmosis causing it to swell and potentially burst. If the swollen cell is then transferred to a 5% salt solution, water will move out of the cell to try to reach equilibrium with the surrounding solution, causing the cell to shrink and possibly undergo crenation.
Hypertonic and hypotonic solutions both refer to the concentration of solutes compared to a cell. In a hypertonic solution, the concentration of solutes is higher outside the cell, causing water to move out of the cell. In a hypotonic solution, the concentration of solutes is lower outside the cell, causing water to move into the cell.
Hypertonic solution causes water to move out of a cell by creating a higher concentration of solutes outside the cell, leading to water leaving the cell in an attempt to balance the concentration gradient.
A hypotonic solution, with a lower solute concentration compared to the inside of the cell, causes water to move into the cell via osmosis. This influx of water makes the cell swell and potentially burst if the osmotic pressure becomes too high.
salt water. this will cause the cell to lose it's water osmotically resulting in it becoming plasmolysedA hypertonic solution
Water moves out of the cell in hypertonic solution.
A hypertonic solution, where the solute concentration is higher outside the cell than inside, will cause a cell to lose water. Water molecules will move out of the cell to try to equalize the concentrations, leading to dehydration and shrinking of the cell.
The solution concentration of dissolved substances will be greater inside the cell than outside if the cell is in a hypertonic solution. This causes water to move out of the cell, leading to shrinkage or crenation of the cell.
A cell will lose water and shrink in a hypertonic solution, where the solute concentration is higher outside the cell than inside. This creates an osmotic gradient that causes water to move out of the cell, leading to shrinking or shrinking of the cell.
If a cell dies by implosion, it was likely in a hypertonic solution where the external concentration of solutes is higher than inside the cell. This causes water to move out of the cell, leading to shrinkage and collapse.
If a cell is placed in a hypertonic solution, water will move out of the cell causing it to shrink or shrivel. In a hypotonic solution, water will move into the cell causing it to swell or burst. In an isotonic solution, there will be no net movement of water and the cell will remain the same.
Hypotonic.
In a hypertonic solution, the concentration of solutes outside the cell is higher than inside. This causes water to move out of the cell, leading to shrinkage or plasmolysis. The cell may become dehydrated and lose its normal shape.
A red blood cell will undergo hemolysis in a hypotonic environment where the surrounding solution has a lower solute concentration than inside the cell. This causes water to move into the cell by osmosis, leading to swelling and eventual bursting of the cell membrane.