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Azeotropic mixtures can be separated by ...

Azeotropic mixtures can be separated by distillation of solution.

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Azeotropic mixtures are

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Which of the following mixtures cann be separated by using excess NH_(3) solution?

represents the distillation of mixture of liquid A and liquid B which gives both of pure liquid A and B . Represents the azeotropic mixture of HNO_(3) and H_(2)O which distillation gives an azeotropic mixture and either of pure liquid. We cannot separate both the pure liquid, i.e., H_(2)O and HNO_(3) . What is the result of distilling a mixture of 80% HNO_(3) and 20%H_(2)O ? (a)Pure H_(2)O and azeotropic mixture can be separated. (b)Pure H_(2)O and pure HNO_(3) can be separated. (c)Pure HNO_(3) and azeotropic mixture can be separated. (d)None of these

represents the distillation of mixture of liquid A and liquid B which gives both of pure liquid A and B . Represents the azeotropic mixture of HNO_(3) and H_(2)O which distillation gives an azeotropic mixture and either of pure liquid. We cannot separate both the pure liquid, i.e., H_(2)O and HNO_(3) . What is the result of distilling a mixture of 50% HNO_(3) and 50%H(2)O ? a.Pure water and azeotropic mixtue can be separated. b.Pure H_(2)O and pure HNO_(3) can be separated. c.Pure HNO_(3) and azeotropic mixture can be separated. d.None of these

The solution which boil at constant temperature like a pure liquid and possess same composition in liquid as well as vapour state are called azeotropes. The components of azetropes cannot be separated by fractional distillation. Only non-ideal solutions form azeotropes. Solutions with negative deviation form maximum boiling azeotrope and the solutions with positive deviation form minimum boiling azeotrope. The boiling point of an azeotrope is never equal to the boiling points of any of the components of the azeotrope. Answer the following question: The azeotropic solutions of two miscible liquids The azeotropic mixture of water and HCl boils at 108.5^(@)C . This solution is

The solution which boil at constant temperature like a pure liquid and possess same composition in liquid as well as vapour state are called azeotropes. The components of azetropes cannot be separated by fractional distillation. Only non-ideal solutions form azeotropes. Solutions with negative deviation form maximum boiling azeotrope and the solutions with positive deviation form minimum boiling azeotrope. The boiling point of an azeotrope is never equal to the boiling points of any of the components of the azeotrope. Answer the following question: The azeotropic solutions of two miscible liquids

The solution which boil at constant temperature like a pure liquid and possess same composition in liquid as well as vapour state are called azeotropes. The components of azetropes cannot be separated by fractional distillation. Only non-ideal solutions form azeotropes. Solutions with negative deviation form maximum boiling azeotrope and the solutions with positive deviation form minimum boiling azeotrope. The boiling point of an azeotrope is never equal to the boiling points of any of the components of the azeotrope. Answer the following question: The azeotropic solutions of two miscible liquids Solutions which distill without any change in composition or temperature are called

CENGAGE CHEMISTRY ENGLISH-SOLUTIONS-Exercise (True/False)
  1. For a solution of AlCl(3) in water, the Van't Hoff factor (i) is grea...

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  2. For a non-ideal solution, Delta(mix)V and Delta(mix)H are zero.

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  3. Mixture of HNO(3) and HCl is an example of maximum boiling point azeot...

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  4. Hypertonic solutions have same osmotic pressure.

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  5. The solubility of gas in liquid is directly proportional to the pressu...

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  6. Colligative properties depend on

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  7. Isotonic solutions have different osmotic pressure.

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  8. For the same solution the elevation in boiling point has higher values...

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  9. On hills, water boils quickly.

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  10. An ideal solution follows Raoult's law over all ranges of concentratio...

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  11. For electrolytic solution, the Van't Hoff factor (i) is always equals ...

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  12. The sum of mole fraction of all components of a solution is unity.

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  13. The liquid pair of acetone-chloroform shows a positive deviation form ...

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  14. The phenol-water system has a upper critical solution temperature.

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  15. A solution of ethyl alcohol and water shows positive deviation from Ra...

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  16. Addition of impurity into water lowers the freezing point of water.

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  17. Azeotropic mixtures can be separated by distillation of solution.

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  18. Raoult's law is for solvent and Henry's law is for solute.

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  19. In association of solute, the Van't Hoff factor is greater than unity.

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