The more concentrated solution is called "hypertonic".
Think of when you went to elementary school and there was always that extremely hyper, almost A.D.D. child in your class. So, to help your remember, think of the kid because hypertonic means "above strength." Hope that helped. :]
Hypertonic solution
Osmosis. A solution with a low concentration of solutes would have a higher concentration of water than a solution with a high concentration of solutes. So in this case, water is moving from a higher concentration of water to a lower concentration of water, which is osmosis.
hypotonic is the world for a lower concentration of solutes. it just depends on what side of the membrane you are referring to. whatever side has more solutes = hyper, whatever side has less = hypo.
The eventual result of diffusion is equilibrium. The concentrations prior to this point would be uneven. The solutes then diffuse from areas of high solute concentration to areas of low solute concentration. After diffusion, at equilibrium, the concentration will be even in different areas.
Movement to meet higher over lower priority needs describes the role of osmosis in high concentrations of fertilizer salts in soils damaging plants. Solutes such as salts in the soil and water in plants and soils move from areas of high concentrations and volumes to lower. Salt in the soil will invade a plant's permeable roots from which water will be pulled into the soil in an attempt to equal concentrations and volumes, to the detriment of plants and soil food web members.
Hypertonic solution
Osmosis. A solution with a low concentration of solutes would have a higher concentration of water than a solution with a high concentration of solutes. So in this case, water is moving from a higher concentration of water to a lower concentration of water, which is osmosis.
Osmosis. A solution with a low concentration of solutes would have a higher concentration of water than a solution with a high concentration of solutes. So in this case, water is moving from a higher concentration of water to a lower concentration of water, which is osmosis.
When two solutions, with different concentrations are separated by a semi permeable membrane. The flow will be from high concentration to low.
This process is known as diffusion. Under circumstances of a permeable membrane, solutes will always flow from areas of higher concentrations to lower concentrations until an equilibrium is established
hypotonic is the world for a lower concentration of solutes. it just depends on what side of the membrane you are referring to. whatever side has more solutes = hyper, whatever side has less = hypo.
The eventual result of diffusion is equilibrium. The concentrations prior to this point would be uneven. The solutes then diffuse from areas of high solute concentration to areas of low solute concentration. After diffusion, at equilibrium, the concentration will be even in different areas.
Movement to meet higher over lower priority needs describes the role of osmosis in high concentrations of fertilizer salts in soils damaging plants. Solutes such as salts in the soil and water in plants and soils move from areas of high concentrations and volumes to lower. Salt in the soil will invade a plant's permeable roots from which water will be pulled into the soil in an attempt to equal concentrations and volumes, to the detriment of plants and soil food web members.
Osmosis, which is the movement of water across a semi-permeable membrane from where it is in high concentration to where it is in lower concentration. The purpose of osmosis is to equalize the concentration of solutes inside a cell and outside a cell.
Mitochondria as the heart requires a lot of energy.
Glucose does not dissociate into charged ions in water solution, and the only water solutions with high conductivity are those with substantial concentrations of charged ions, such as the solutions of most salts, acids, and bases.
Yes, though measurement is not easily done (pH-potentiometry) in concentrated alkali solution. The pH can be greater than 14 or lower than 0 in solutions with very high concentrations of [OH]- or [H]+ (> 1.0 M). And it isn't that important to know how much over 14 or under 0, is it?