A cell that neither gains nor loses water when it is immersed in a solution is called isotonic to its environment. Cells with a higher concentration of ions than the surrounding medium tend to expand.
The cell will lose water due to osmosis, causing it to shrink or shrivel up. The higher concentration of salt outside the cell compared to inside creates a hypertonic environment, leading to water moving out of the cell to try to balance the concentration inside and outside.
An isotonic cell is one that has neither a net gain nor a net loss of water. In an isotonic solution, the concentration of solutes inside the cell is equal to the concentration of solutes outside the cell, leading to an equal movement of water in and out of the cell.
If the plant cells neither gain nor lose water when placed in water, it indicates that the concentrations of solutes inside and outside the cell are balanced, resulting in an isotonic environment. This suggests that the strength of the cell sap and the external solution are equal, as there is no net movement of water across the cell membrane.
Water moves out of the cell in hypertonic solution.
A hypertonic solution is less concentrated compared to the cytoplasm of the animal cell. When an animal cell is placed in a hypertonic solution, water diffuses across the selectively permeable cell membrane in an attempt to form an equilibrium between the two liquids. If the solution is hypertonic enough compared to the cell's cytoplasm, the cell would swell and could possibly explode.
When a cell is bathed in fluids and water flows out of the cell, it is immersed in a hypertonic solution. In a hypertonic environment, the concentration of solutes outside the cell is higher than inside, causing water to move out to balance the solute concentrations. This results in the cell shrinking or undergoing crenation.
Plant cells plasmolyze when immersed in a hypertonic solution when the cell wall detaches under high pressure causing water to be lost. The more solutes a cell has, the less water becomes available.
hypertonic
protoplasm tends to shrink due to NaCl..causing it to dehydrate and pulling the water out of the cell..
The cell will lose water due to osmosis, causing it to shrink or shrivel up. The higher concentration of salt outside the cell compared to inside creates a hypertonic environment, leading to water moving out of the cell to try to balance the concentration inside and outside.
A cell placed in an isotonic solution will not shrink or swell. Isotonic means that the concentration of solutes in the solution is equal to the concentration of solutes within the cell. Since both concentrations are the same, no water flows in or out of the cell due to osmotic pressure.
An isotonic cell is one that has neither a net gain nor a net loss of water. In an isotonic solution, the concentration of solutes inside the cell is equal to the concentration of solutes outside the cell, leading to an equal movement of water in and out of the cell.
If the plant cells neither gain nor lose water when placed in water, it indicates that the concentrations of solutes inside and outside the cell are balanced, resulting in an isotonic environment. This suggests that the strength of the cell sap and the external solution are equal, as there is no net movement of water across the cell membrane.
The common term for an electrochemical cell in which terminals are connected to electrodes immersed in a solution of electrolytes is a "battery." In a battery, chemical reactions at the electrodes produce an electric current that can be used to power devices.
Water moves out of the cell in hypertonic solution.
Considering osmosis- If a hypertonic solution causes water molecules to leave a liver, and a hypotonic solution causes water molecules to enter a liver, an isotonic solution water molecules would neither enter, nor leave a cell. I hope this helped :)
A hypertonic solution is less concentrated compared to the cytoplasm of the animal cell. When an animal cell is placed in a hypertonic solution, water diffuses across the selectively permeable cell membrane in an attempt to form an equilibrium between the two liquids. If the solution is hypertonic enough compared to the cell's cytoplasm, the cell would swell and could possibly explode.