Apply concept of water potential and osmosis

If two solutions, A with water potential 0.2 MPa and B with water potential 0.1 MPa are separated by a selectively permeable membrane, then what will be the direction of movement of water?

(1) From A to B

(2) From B to A

(3) No net osmosis

(4) Cannot be predicted

(1) Hydrostatic Pressure

(2) Colloidal pressure

(3) Osmotic pressure

(4) Pressure potential

(1) Osmotic potential

(2) Solute concentration

(3) Solvent amount

(4) Water potential

(1) Pressure required to stop the water diffusing in

(2) Function of solute concentration

(3) More the solute, more is the pressure needed to stop endosmosis

(4) All of these

(1) Osmotic potential

(2) Solute potential

(3) Both A and B but sign is opposite

(4) Pressure potential

(1) A solution which is more concentrated than the cytoplasm

(2) A solution which is more dilute than the cytoplasm

(3) A solution which balances the osmotic pressure of the cytoplasm

(4) A solution which is less dilute than the cytoplasm

(1) solution which is more concentrated than the cytoplasm

(2) A solution which is more dilute than the cytoplasm

(3) A solution which balances the osmotic pressure of the cytoplasm

(4) A solution which is less dilute than the cytoplasm

(1) solution which is more concentrated than the cytoplasm

(2) A solution which is more dilute than the cytoplasm

(3) A solution which balances the osmotic pressure of the cytoplasm

(4) A solution which is equal to that of cytoplasm in terms of concentration

(1) External solution is hypertonic

(2) Water moves out of the cell

(3) Cell membrane shrinks away from it's cell wall

(4) Firstly cell sap comes out then cytoplasmic water.

(1) Hypertonic solution

(2) Hypotonic solution

(3) Water

(4) Cytoplasmic content