Chapter 15, Problem 36QAP

Interpretation Introduction

(a)

Interpretation:

The molarity of the solution is to be calculated.

Concept Introduction:

There are many ways to determine the concentration of the solution. One of the most used methods is molarity. Molarity may be defined as the number of moles of the solute in one liter of the whole solution. Thus, the molarity can be calculated as,

$\text{M}=\frac{\text{moles}\text{of}\text{solute}\left(\text{mole}\right)}{\text{total}\text{volume}\text{of}\text{solution}\left(\text{L}\right)}$

The conversion of liter to milliliter is as follows.

$\text{1}\text{L}=1\text{000}\text{mL}$

Thus the formula of molarity becomes,

$\text{M}=\frac{\text{moles}\text{of}\text{solute}\left(\text{mole}\right)}{\text{total}\text{volume}\text{of}\text{solution}\left(\text{mL}\right)}\times 1000$.

Interpretation Introduction

(b)

Interpretation:

The molarity of the solution is to be calculated.

Concept Introduction:

There are many ways to determine the concentration of the solution. One of the most used methods is molarity. Molarity may be defined as the number of moles of the solute in one liter of the whole solution. Thus, the molarity can be calculated as:

$\text{M}=\frac{\text{moles}\text{of}\text{solute}\left(\text{mole}\right)}{\text{total}\text{volume}\text{of}\text{solution}\left(\text{L}\right)}$

The conversion of liter to milliliter is as follows.

$\text{1}\text{L}=1\text{000}\text{mL}$

Thus the formula of molarity becomes,

$\text{M}=\frac{\text{moles}\text{of}\text{solute}\left(\text{mole}\right)}{\text{total}\text{volume}\text{of}\text{solution}\left(\text{mL}\right)}\times 1000$.

(c)

Interpretation Introduction

Interpretation:

The molarity of the solution is to be calculated.

Concept Introduction:

There are many ways to determine the concentration of the solution. One of the most used methods is molarity. Molarity may be defined as the number of moles of the solute in one liter of the whole solution. Thus, the molarity can be calculated as:

$\text{M}=\frac{\text{moles}\text{of}\text{solute}\left(\text{mole}\right)}{\text{total}\text{volume}\text{of}\text{solution}\left(\text{L}\right)}$

The conversion of liter to milliliter is as follows.

$\text{1}\text{L}=1\text{000}\text{mL}$

Thus the formula of molarity becomes,

$\text{M}=\frac{\text{moles}\text{of}\text{solute}\left(\text{mole}\right)}{\text{total}\text{volume}\text{of}\text{solution}\left(\text{mL}\right)}\times 1000$.

Interpretation Introduction

(d)

Interpretation:

The molarity of the solution is to be calculated.

Concept Introduction:

There are many ways to determine the concentration of the solution. One of the most used methods is molarity. Molarity may be defined as the number of moles of the solute in one liter of the whole solution. Thus, the molarity can be calculated as:

$\text{M}=\frac{\text{moles}\text{of}\text{solute}\left(\text{mole}\right)}{\text{total}\text{volume}\text{of}\text{solution}\left(\text{L}\right)}$

The conversion of liter to milliliter is as follows.

$\text{1}\text{L}=1\text{000}\text{mL}$

Thus the formula of molarity becomes,

$\text{M}=\frac{\text{moles}\text{of}\text{solute}\left(\text{mole}\right)}{\text{total}\text{volume}\text{of}\text{solution}\left(\text{mL}\right)}\times 1000$.