when water moves out of cytoplasm by osmosis
Plasmolyzed cells may not return to their normal condition even after washing and remounting because plasmolysis typically occurs due to a loss of water in a hypertonic environment causing the cell membrane to shrink away from the cell wall. Rehydration may not reverse this process completely.
Salt water will cause plasmolyzed cells which will kill the plant. Through selective breeding, however you can get a plant that will live in salty soil.
when water moves out of cytoplasm by osmosis
When you put salt water in a beaker with potato cells, the cells will lose water through a process called osmosis. Since the salt concentration outside the cells is higher than inside, water moves out of the potato cells to balance the concentration. This causes the cells to shrink and become plasmolyzed, leading to a wilting or shriveling appearance in the potato.
The cells of lettuce leaf will be plasmolyzed due to exo osmosis.
When plant cells are placed in salt water, they experience a process called osmosis, where water moves out of the cells to the area with higher salt concentration outside. This leads to a loss of turgor pressure, causing the cells to shrink and become plasmolyzed. As a result, the plant may wilt and exhibit signs of dehydration. If the exposure to salt water continues, it can ultimately damage the cells and lead to plant death.
Rhubarb cells are typically plasmolyzed when exposed to hypertonic solutions, such as those containing high concentrations of salt or sugar. These treatments draw water out of the cells, causing the cytoplasm to shrink away from the cell wall. This process can be observed after about 5 minutes of exposure to the hypertonic environment. Thus, any treatment involving high solute concentrations would cause plasmolysis in rhubarb cells.
is it that the turgid cell has more red pigment than plasmolyzed cell
In a plasmolyzed cell exposed to salt water, chloroplasts are typically located near the cell wall, as the cell's cytoplasm shrinks away from the cell wall due to osmosis. This movement causes the chloroplasts to concentrate in a smaller area, often appearing at the edges of the cell. The overall structure of the cell becomes distorted, and the chloroplasts may be seen clustered near the periphery, away from the central vacuole, which has lost water.
Higher solute concentration outside the cell than that inside causes net loss of water and plasmolysis occurs. This is due to the diffusion of water to areas of higher solute concentration.
A cell becomes plasmolyzed when it loses water through osmosis due to exposure to a hypertonic solution, which has a higher concentration of solutes outside the cell than inside. As water exits the cell to balance solute concentrations, the cell's cytoplasm shrinks, and the plasma membrane detaches from the cell wall in plant cells. This process can lead to wilting in plants and reduced cell function. Plasmolysis is reversible if the cell is placed back in an isotonic or hypotonic environment.
If the sugar solution is more concentrated than the sap vacuole, water will move out of the vacuole into the surrounding solution via osmosis. This can cause the plant cell to shrink and become plasmolyzed.