Bundle: Introductory Chemistry: A Foundation, 8th + OWLv2 6-Months Printed Access Card
Bundle: Introductory Chemistry: A Foundation, 8th + OWLv2 6-Months Printed Access Card
8th Edition
ISBN: 9781305367333
Author: Steven S. Zumdahl, Donald J. DeCoste
Publisher: Cengage Learning
Question
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Chapter 15, Problem 55QAP
Interpretation Introduction

(a)

Interpretation:

The new molarity after the dilution of the solution is to be calculated.

Concept Introduction:

The atomic mass of an element is defined as the sum of number of protons and number of neutrons. Molar mass of an element is determined from atomic mass of an element.

The number of moles is calculated by the formula,

Moles=MassgMolarmass

The molarity is calculated by the formula,

Molarity=NumberofmolesofsoluteVolumeofsolutionL.

Expert Solution
Check Mark

Answer to Problem 55QAP

The new molarity of the given diluted solution is 3.75×102M.

Explanation of Solution

The initial volume and molarity of NaCl solution is given to be 25.0mL and 0.119M respectively.

The conversion of units of 25.0mL into L is done as,

25.0mL=25.01000L=0.025L

The number of moles of a solute is calculated by the formula,

Numberofmolesofsolute=Volumeofsolution×Molarity        (1)

Substitute the values of initial volume and molarity of NaCl solution in the equation (1).

Numberofmolesofsolute=0.025L×0.119M=0.002975moles=3.0×103moles

It is given that 55.0mL of water is added in the given solution. During the dilution, the amount of the solute particles in initial and final solution remains same, only the amount of solvent gets changed.

The conversion of units of 55.0mL into L is done as,

55.0mL=55.01000L=0.055L

Thus, the total volume is calculated by the formula,

Finalvolume=Initialvolume+Volumeofwateradded        (2)

Substitute the values of initial volume and volume of water added in the equation (2).

Finalvolume=0.025L+0.055L=0.08L

The new molarity of the solution is calculated by the formula,

Molarity=NumberofmolesofsoluteVolumeofsolutionL        (3)

Substitute the values of number of moles of solute and final volume in the equation (3).

Molarity=3.0×103moles0.08L=37.5×103M=3.75×102M

Therefore, the new molarity of the given diluted solution is 3.75×102M.

Interpretation Introduction

(b)

Interpretation:

The new molarity after the dilution of the solution is to be calculated.

Concept Introduction:

The atomic mass of an element is defined as the sum of number of protons and number of neutrons. Molar mass of an element is determined from atomic mass of an element.

The number of moles is calculated by the formula,

Moles=MassgMolarmass

The molarity is calculated by the formula,

Molarity=NumberofmolesofsoluteLitersofsolution.

Expert Solution
Check Mark

Answer to Problem 55QAP

The new molarity of the given diluted solution is 0.188M.

Explanation of Solution

The initial volume and molarity of NaOH solution is given to be 45.3mL and 0.701M respectively.

The conversion of units of 45.3mL into L is done as,

45.3mL=45.31000L=0.0453L

The number of moles of a solute is calculated by the formula,

Numberofmolesofsolute=Volumeofsolution×Molarity        (1)

Substitute the values of initial volume and molarity of NaOH solution in the equation (1).

Numberofmolesofsolute=0.0453L×0.701M=0.032moles

It is given that 125mL of water is added in the given solution. During the dilution, the amount of the solute particles in initial and final solution remains same, only the amount of solvent gets changed.

The conversion of units of 125mL into L is done as,

125mL=1251000L=0.125L

Thus, the total volume is calculated by the formula,

Finalvolume=Initialvolume+Volumeofwateradded        (2)

Substitute the values of initial volume and volume of water added in the equation (2).

Finalvolume=0.0453L+0.125L=0.1703L

The new molarity of the solution is calculated by the formula,

Molarity=NumberofmolesofsoluteVolumeofsolutionL        (3)

Substitute the values of number of moles of solute and final volume in the equation (3).

Molarity=0.032moles0.1703L=0.188M

Therefore, the new molarity of the given diluted solution is 0.188M.

Interpretation Introduction

(c)

Interpretation:

The new molarity after the dilution of the solution is to be calculated.

Concept Introduction:

The atomic mass of an element is defined as the sum of number of protons and number of neutrons. Molar mass of an element is determined from atomic mass of an element.

The number of moles is calculated by the formula,

Moles=MassgMolarmass

The molarity is calculated by the formula,

Molarity=NumberofmolesofsoluteLitersofsolution.

Expert Solution
Check Mark

Answer to Problem 55QAP

The new molarity of the given diluted solution is 0.558M.

Explanation of Solution

The initial volume and molarity of KOH solution is given to be 125mL and 3.01M respectively.

The conversion of units of 125mL into L is done as,

125mL=1251000L=0.125L

The number of moles of a solute is calculated by the formula,

Numberofmolesofsolute=Volumeofsolution×Molarity        (1)

Substitute the values of initial volume and molarity of KOH solution in the equation (1).

Numberofmolesofsolute=0.125L×3.01M=0.377moles

It is given that 550mL of water is added in the given solution. During the dilution, the amount of the solute particles in initial and final solution remains same, only the amount of solvent gets changed.

The conversion of units of 550.mL into L is done as,

550mL=5501000L=0.55L

Thus, the total volume is calculated by the formula,

Finalvolume=Initialvolume+Volumeofwateradded        (2)

Substitute the values of initial volume and volume of water added in the equation (2).

Finalvolume=0.125L+0.55L=0.675L

The new molarity of the solution is calculated by the formula,

Molarity=NumberofmolesofsoluteVolumeofsolutionL        (3)

Substitute the values of number of moles of solute and final volume in the equation (3).

Molarity=0.377moles0.675L=0.558M

Therefore, the new molarity of the given diluted solution is 0.558M.

Interpretation Introduction

(d)

Interpretation:

The new molarity after the dilution of the solution is to be calculated.

Concept Introduction:

The atomic mass of an element is defined as the sum of number of protons and number of neutrons. Molar mass of an element is determined from atomic mass of an element.

The number of moles is calculated by the formula,

Moles=MassgMolarmass

The molarity is calculated by the formula,

Molarity=NumberofmolesofsoluteLitersofsolution.

Expert Solution
Check Mark

Answer to Problem 55QAP

The new molarity of the given diluted solution is 0.380M.

Explanation of Solution

The initial volume and molarity of CaCl2 solution is given to be 75.3mL and 2.07M respectively.

The conversion of units of 75.3mL into L is done as,

75.3mL=75.31000L=0.0753L

The number of moles of a solute is calculated by the formula,

Numberofmolesofsolute=Volumeofsolution×Molarity        (1)

Substitute the values of initial volume and molarity of CaCl2 solution in the equation (1).

Numberofmolesofsolute=0.0753L×2.07M=0.156moles

It is given that 335mL of water is added in the given solution. During the dilution, the amount of the solute particles in initial and final solution remains same, only the amount of solvent gets changed.

The conversion of units of 335mL into L is done as,

335mL=3351000L=0.335L

Thus, the total volume is calculated by the formula,

Finalvolume=Initialvolume+Volumeofwateradded        (2)

Substitute the values of initial volume and volume of water added in the equation (2).

Finalvolume=0.0753L+0.335L=0.4103L

The new molarity of the solution is calculated by the formula,

Molarity=NumberofmolesofsoluteVolumeofsolutionL        (3)

Substitute the values of number of moles of solute and final volume in the equation (3).

Molarity=0.156moles0.4103L=0.380M

Therefore, the new molarity of the given diluted solution is 0.380M.

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Chapter 15 Solutions

Bundle: Introductory Chemistry: A Foundation, 8th + OWLv2 6-Months Printed Access Card

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Suppose 325 in L of 0.150 M NaOH is needed for...Ch. 15 - 61. How much water must be added w 500. mL of...Ch. 15 - An experiment calls for 100. mL of 1.25 M HC1. All...Ch. 15 - Prob. 63QAPCh. 15 - 64. Generally only the carbonates of the Group I...Ch. 15 - 65. Many metal ions are precipitated from solution...Ch. 15 - 66. Calcium oxalate, CaCO4, is very insoluble in...Ch. 15 - 67. When aqueous solutions of lead(II) ion are...Ch. 15 - 68. Aluminum ion may be precipitated from aqueous...Ch. 15 - 69. What volume of 0.502 M NaOH solution would be...Ch. 15 - 70. What volume of a 0.500 M NaOH solution would...Ch. 15 - 71. A sample of sodium hydrogen carbonate solid...Ch. 15 - 72. The total acidity in water samples can be...Ch. 15 - Prob. 73QAPCh. 15 - Prob. 74QAPCh. 15 - Prob. 75QAPCh. 15 - Prob. 76QAPCh. 15 - 77. 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