Calculate the osmotic pressure of a 1.3× 10−2 M C6H12O6 (a non electrolyte). Assume that the solution is at 298 K.

When 6.31 g of a certain nonvolatile solute is dissolved in 505 g of water, the freezing point of the resultant aqueous solution is 0.55˚C lower than that of pure water. The cryoscopic constant for water is Kf = 1.856. Given this information, what is the molar mass of the solute species, in g/mol?

V A student dissolves 10. g of aniline (C6H5NH₂) in 425. mL of a solvent with a density of 0.98 g/mL. The student notices that the volume of the solvent does not change when the aniline dissolves in it. Calculate the molarity and molality of the student's solution. Round both of your answers to 2 significant digits. esc = 10 molality = 0 molarity = Explanation Check 010 # 3 X 24 $ 4 0×0 3 % 5 MacBook Pro 6 & 7 2022 McGraw Hill LLC. All Rights Reserved. ● * 8 Terms of Use | Privacy Center | Accessibility 0 A + 11 olo Ar 18 ?

Do both, just one, or neither of the following solutions conductelectricity? If just one, which one?

What is the osmotic pressure of a solution with a molarity of 0.884 M at 16oC?

Calculate the osmotic pressure of 0.38 M KNO3 (electrolyte) at 25°C. Enter your answer in the provided box. atm

What will be the osmotic pressure exerted by an aqueous solution of 500ml volume at 25 degree celcius if it contains 2.33 dissolved sodium chloride?

Calculate the molality of a solution composed of 4.5g of AgNO3 in 250mL of aqueous solution.

Bovine serum albumin (BSA) is a biochemically useful protein. A 0.303 g0.303 g sample of bovine serum albumin is dissolved in water to make 0.137 L0.137 L of solution, and the osmotic pressure of the solution at 25 ∘C25⁢ ∘C is found to be 0.826 mbar.0.826 mbar. Calculate the molecular mass of bovine serum albumin.

A solution is formed by dissolving 0.86 g of a pure nonvolatile solute in liquid water (H2O, MW = 18.02 g/mol).  The final volume of the solution is V = 200.0 mL.  The osmotic pressure for the solution, measured at T = 30.0 °C, is P = 618. torr.                 a) Assuming the solute is non-ionizing (one mole of particles per mole of solute) find the molecular weight of the solute.