They have a cell wall, a fully permeable structure composed of closely woven cellulose fibres, which strengthens the cell and prevents lysis (the breaking down of a cell).
When a plant cell is full of water. It will get ready to burst. But if it tries to burst it will not. Because of something that a plant cell has. It is a Cell Wall.
Red blood cells require a slightly hypotonic environment to maintain their normal shape and function. This is because water moves into the cell by osmosis, helping to prevent the cells from shrinking or bursting.
Atleast in Phylum Ciliophora - unicellular, heterotrophic, protist, 'animal-like,' surface covered by cilia - it has a contractive vacuole that helps. The fresh water goes into the cell and the contractile vacuole squeezes the water out again, otherwise, it would explode. I am not a teacher or an expert on this, but I do have an exam on all of the Phylums of Kindom Protista in my Biodiversity class tomorrow, so I'm pretty well researched on this.
Adding fresh water to elodea in salt water would cause the elodea cells to absorb more water by osmosis. This would lead to an increase in turgor pressure within the cells, causing them to become firm and potentially burst due to the difference in salt concentration between the cell and the surrounding salt water.
Animal cells will burst because they have no outer structure to allow them to keep their shape. However, plant cells have a cell wall which keeps the cell from bursting.
because Fresh water enters easly in the plant cells by endo osmosis. Thus, it causes better growth to the plant.
The plant is most likely to die because the salt water already killed the root cells. It also depends on the concentraition of the plant. some plants are very sensitive when fresh water is placed in ONLY salt water plants
When a plant cell is full of water. It will get ready to burst. But if it tries to burst it will not. Because of something that a plant cell has. It is a Cell Wall.
Jellyfishes are evolved to live in saltwater, and their cells have mechanisms for absorbing water and excreting salts. However, in freshwater this ability works against them, causing them to swell up with water, and their cells burst.
The plant's cell wall is tough enough to withstand the pressure that animal cells cannot
Water would rush in, causing the cells to burst.
It would die.
Red blood cells require a slightly hypotonic environment to maintain their normal shape and function. This is because water moves into the cell by osmosis, helping to prevent the cells from shrinking or bursting.
Atleast in Phylum Ciliophora - unicellular, heterotrophic, protist, 'animal-like,' surface covered by cilia - it has a contractive vacuole that helps. The fresh water goes into the cell and the contractile vacuole squeezes the water out again, otherwise, it would explode. I am not a teacher or an expert on this, but I do have an exam on all of the Phylums of Kindom Protista in my Biodiversity class tomorrow, so I'm pretty well researched on this.
As a fish moves from salt water to fresh water, its cells undergo osmosis, where water moves into the cells because the concentration of solutes inside the cells is higher than that in the surrounding fresh water. This can cause the cells to swell and potentially burst if the fish does not regulate the influx of water. To cope with this change, the fish may excrete more dilute urine to remove excess water and adjust its internal salt balance.
Because there is more salt in the plant cells, when they are placed in pure water (with no salt), water will move into the cells in an effort to balance the concentration inside the cell and out the cell. The plant cells will become enlarged with water and may burst. This is a way to make wilted celery to become like it did when it was bought.
Adding fresh water to elodea in salt water would cause the elodea cells to absorb more water by osmosis. This would lead to an increase in turgor pressure within the cells, causing them to become firm and potentially burst due to the difference in salt concentration between the cell and the surrounding salt water.