The osmotic pressure of a solution is calculated using the formula Π=MRT where Π is the osmotic pressure in atm, M is the molarity, R is the ideal gas constant, and T is the kelvin temperature. Part A What is the osmotic pressure of a solution made by dissolving 40.0 g of glucose, C6H12O6, in enough water to form 700.0 mL of solution at 37.0 ∘C ? Express your answer to three significant figures and include the appropriate units. nothing nothing

The osmotic pressure of a solution is calculated using the formula ΠMRT where Π is the osmotic pressure in atm M is the molarity R is the ideal gas constant and class=

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Answer:

Osmotic pressure of the solution will be 818.203 Pa.

Explanation:

Osmotic pressure of a solution is defined by the formula,

π = MRT

where π = Osmotic pressure

M = Molarity of the solution

R = Ideal gas constant

T = Temperature in °K

40 grams of glucose was dissolved in water so the Molarity of the solution will be,

M = [tex]\frac{\text{Number of moles of solute}}{\text{Volume of the solution in liters}}[/tex]

Moles of solute = [tex]\frac{\text{weight of the solute taken}}{\text{volume of the solution}}[/tex]

                          = [tex]\frac{40}{180}[/tex]

                          = [tex]\frac{2}{9}[/tex] moles

Morarity = [tex]\frac{\frac{2}{9}}{0.7}[/tex]

              = 0.3175 mole per liter

Value of ideal gas constant 'R' = 8.314 [tex]JK^{-1}\text{Mol}^{-1}[/tex]

T = 37°C = (273 + 37)° K

              = 310°K

Now by substituting these values in the formula,

π = [tex]0.3175\times 8.314\times 310[/tex]

  = 818.203 Pa

Therefore, osmotic pressure of the solution will be 818.203 Pa.