Differences: Hypotonic, Hypertonic, Isotonic

Hypertonicity: Solvents are more solute than solvents (eg, large amounts of salt (solute) are soluble in water (solvent)).

Hypotonicity: Solutions contain more solvent than solutes (eg pure water - hardly soluble in solutes).

Isotonicity: Solutions in which solutes and solvent are uniformly distributed - Cells are usually held in an isotonic solution whose concentration of liquid is equal to the concentration of external liquid.

When placed in hypotonic solution - animal cells lose volume and contract, it "swears", the cell membrane does not contract - it is cell content - vacuoles and cytoplasmic contraction - but it is primarily cytoplasmic. When the water potential in the cytoplasm is equal to the moisture potential of the surrounding solution, the loss of moisture stops.

When placed in a hypertonic solution - the volume of animal cells increases and swells, water molecules penetrate the cell's net movement. The cells increase in volume and expand. When the slope of the membrane resists swelling, the cells rupture and the cells eventually rupture.

They are surrounded by the cell walls of cellulose. They contain a large central vacuole containing solutions of salt, sugar and ions. The cytosol is bound by a partially permeable membrane and is found in vacuoles (salt, water etc.) which show permeation around the cells and movement of water by solution. (Tear membrane - tonoplast)

Hypotonic solution - net migration of water molecules into the cytoplasm and vacuoles via penetration. The vacuoles swell and push the cytoplasm towards the hard cell wall. The inelastic cell wall resists swelling and the cells swell. It can be described as an expanded state. Seedlings with a small amount of woody tissue depend on inflation to support the wind and gravity. This is the reason they need to redo the water.

Hypertonic solution - water molecules will pass through the cytoplasm and vacuole by infiltration. The cytoplasm / vesicle contracts and pulls the cell membrane away from the cell wall. The cells are either separated by plasmablasts or in a state of plasma decomposition. The cell is loose. (Only plant cells loose, animal cells have wrinkles.)

Isotonicity - The concentration of solute in solution is the same as the concentration of solute in the cell. As a result, the water moves equally in both directions, and the cells will remain the same size. Dynamic balance

The solute is divided into three stages: isotonicity, hypertonicity and hypotonicity. Isotonicity is when there is an amount of solute equal to the solution. As with equilibrium there is no net change in the amount of water in both solutions. When the solute concentration of the solution is different, the solute with low solute is hypotonic and the solute with high solute is hypertonic. Low permeability absorbs solute from hypertonic side and releases solute. These kinds of solutions have a final move. Molecule moves from hypotonic solution to hypertonic solution. The third way for substances to pass through cell membranes is to promote diffusion. This occurs when a special carrier protein passes through the membrane using active transport to carry dissolved solutes in water.

The terms hypertonic, hypotonic and isotonic are used to describe a solution separated by a selectively permeable membrane. Because the hypertonic solution has a higher solute concentration than other solutions and the water potential is lower, water passes through the membrane and becomes a hypertonic solution. The hypotonic solution has a lower solute concentration and a higher water potential than the solution on the other side of the membrane and the water lowers its concentration gradient to another solution. Isotonic solutions have the same water potential

Based on solute concentration, your body may have three types of solutions: isotonicity, hypotonicity, and hypertonicity. An isotonic solution is one in which the concentration of solute is the same inside and outside the cell. The hypotonic solution is a solution in which the solute concentration in the cell is larger than the outside, and the hypertonic solution is a solution in which the solute concentration is outside the inside of the cell. For cells in the body, the ideal solution is an isotonic solution. This is because water (the main solvent in the body) likes to diffuse from the low solute concentration region to the high solute concentration region. This process is called penetration. This is because the balance of solvent to solute ratio is basically kept by diffusing to places where there are many solutes.