Mass of each individual solute should be determined. Concept introduction: Freezing point depression is principally the colligative feature of an element. Colligative features rest on the number of elements present, and not on the sort of particles or else their mass. Freezing point depression happens when the freezing point of the liquid is brought down by adding an additional compound to it. The solution has a lesser freezing point compare to the pure solvent. For illustration, the freezing point of oceanwater is lesser than that of pure water. The freezing points of the solutions are directly proportional to the molality of the solute. ΔT f = T f ( solvent ) − T f ( solution ) = K f × m Here ∆Tf = the freezing point depression, Tf (solution) = the freezing point of the solution, Tf (solvent) = the freezing point of the solvent, Kf = the freezing point depression constant, and m = the molality.

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Answer 1

Question

Chapter 12, Problem 12.158CP

Interpretation Introduction

Interpretation:

Mass of each individual solute should be determined.

Concept introduction:

Freezing point depression is principally the colligative feature of an element. Colligative features rest on the number of elements present, and not on the sort of particles or else their mass. Freezing point depression happens when the freezing point of the liquid is brought down by adding an additional compound to it. The solution has a lesser freezing point compare to the pure solvent. For illustration, the freezing point of oceanwater is lesser than that of pure water.

The freezing points of the solutions are directly proportional to the molality of the solute.

$ΔTf = Tf(solvent) − Tf(solution)= Kf× m$

Here ∆Tf = the freezing point depression, Tf (solution) = the freezing point of the solution, Tf (solvent) = the freezing point of the solvent, Kf = the freezing point depression constant, and m = the molality.

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Answer 2

Question

Chapter 12, Problem 12.158CP

Interpretation Introduction

Interpretation:

Mass of each individual solute should be determined.

Concept introduction:

Freezing point depression is principally the colligative feature of an element. Colligative features rest on the number of elements present, and not on the sort of particles or else their mass. Freezing point depression happens when the freezing point of the liquid is brought down by adding an additional compound to it. The solution has a lesser freezing point compare to the pure solvent. For illustration, the freezing point of oceanwater is lesser than that of pure water.

The freezing points of the solutions are directly proportional to the molality of the solute.

$ΔTf = Tf(solvent) − Tf(solution)= Kf× m$

Here ∆Tf = the freezing point depression, Tf (solution) = the freezing point of the solution, Tf (solvent) = the freezing point of the solvent, Kf = the freezing point depression constant, and m = the molality.

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Answer 3

Question

Chapter 12, Problem 12.158CP

Interpretation Introduction

Interpretation:

Mass of each individual solute should be determined.

Concept introduction:

Freezing point depression is principally the colligative feature of an element. Colligative features rest on the number of elements present, and not on the sort of particles or else their mass. Freezing point depression happens when the freezing point of the liquid is brought down by adding an additional compound to it. The solution has a lesser freezing point compare to the pure solvent. For illustration, the freezing point of oceanwater is lesser than that of pure water.

The freezing points of the solutions are directly proportional to the molality of the solute.

$ΔTf = Tf(solvent) − Tf(solution)= Kf× m$

Here ∆Tf = the freezing point depression, Tf (solution) = the freezing point of the solution, Tf (solvent) = the freezing point of the solvent, Kf = the freezing point depression constant, and m = the molality.

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Answer 4

Question

Chapter 12, Problem 12.158CP

Interpretation Introduction

Interpretation:

Mass of each individual solute should be determined.

Concept introduction:

Freezing point depression is principally the colligative feature of an element. Colligative features rest on the number of elements present, and not on the sort of particles or else their mass. Freezing point depression happens when the freezing point of the liquid is brought down by adding an additional compound to it. The solution has a lesser freezing point compare to the pure solvent. For illustration, the freezing point of oceanwater is lesser than that of pure water.

The freezing points of the solutions are directly proportional to the molality of the solute.

$ΔTf = Tf(solvent) − Tf(solution)= Kf× m$

Here ∆Tf = the freezing point depression, Tf (solution) = the freezing point of the solution, Tf (solvent) = the freezing point of the solvent, Kf = the freezing point depression constant, and m = the molality.

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Answer 5

Chapter 12, Problem 12.158CP

Interpretation Introduction

Interpretation:

Mass of each individual solute should be determined.

Concept introduction:

Freezing point depression is principally the colligative feature of an element. Colligative features rest on the number of elements present, and not on the sort of particles or else their mass. Freezing point depression happens when the freezing point of the liquid is brought down by adding an additional compound to it. The solution has a lesser freezing point compare to the pure solvent. For illustration, the freezing point of oceanwater is lesser than that of pure water.

The freezing points of the solutions are directly proportional to the molality of the solute.

$ΔTf = Tf(solvent) − Tf(solution)= Kf× m$

Here ∆Tf = the freezing point depression, Tf (solution) = the freezing point of the solution, Tf (solvent) = the freezing point of the solvent, Kf = the freezing point depression constant, and m = the molality.

Answer 6

Chapter 12, Problem 12.158CP

Interpretation Introduction

Interpretation:

Mass of each individual solute should be determined.

Concept introduction:

Freezing point depression is principally the colligative feature of an element. Colligative features rest on the number of elements present, and not on the sort of particles or else their mass. Freezing point depression happens when the freezing point of the liquid is brought down by adding an additional compound to it. The solution has a lesser freezing point compare to the pure solvent. For illustration, the freezing point of oceanwater is lesser than that of pure water.

The freezing points of the solutions are directly proportional to the molality of the solute.

$ΔTf = Tf(solvent) − Tf(solution)= Kf× m$

Here ∆Tf = the freezing point depression, Tf (solution) = the freezing point of the solution, Tf (solvent) = the freezing point of the solvent, Kf = the freezing point depression constant, and m = the molality.

Answer 7

Chapter 12, Problem 12.158CP

Interpretation Introduction

Interpretation:

Mass of each individual solute should be determined.

Concept introduction:

Freezing point depression is principally the colligative feature of an element. Colligative features rest on the number of elements present, and not on the sort of particles or else their mass. Freezing point depression happens when the freezing point of the liquid is brought down by adding an additional compound to it. The solution has a lesser freezing point compare to the pure solvent. For illustration, the freezing point of oceanwater is lesser than that of pure water.

The freezing points of the solutions are directly proportional to the molality of the solute.

$ΔTf = Tf(solvent) − Tf(solution)= Kf× m$

Here ∆Tf = the freezing point depression, Tf (solution) = the freezing point of the solution, Tf (solvent) = the freezing point of the solvent, Kf = the freezing point depression constant, and m = the molality.

Answer 8

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Answer 11

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