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Standard |
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R State Standard £Institutionally
Developed College: N/A |
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CHM 1112 – Chemistry II |
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Continues the exploration of basic chemical principles and concepts. Topics include: equilibrium theory; kinetics; thermodynamics; solution chemistry; acid-base theory; and nuclear chemistry. |
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Competency Areas |
Hours |
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Equilibrium Theory |
Class |
4 |
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Kinetics |
D. Lab |
0 |
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Thermodynamics |
P. Lab |
3 |
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Solution Chemistry |
Credit |
5 |
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Acid-Base Theory |
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Nuclear Chemistry |
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Prerequisite: |
CHM 1111 |
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Corequisite: |
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Course
Guide |
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Competency |
After
completing this section, the student will be able to: |
Hours |
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Class |
D.Lab
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P.Lab/ O.B.I. |
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Equilibrium Theory |
8 |
0
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6 |
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Thermodynamics |
Explain what is occurring in a chemical reaction, including bonding and energy changes. |
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Define the reversibility of reactions. |
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Discuss the underlying concepts of endothermic and exothermic reactions. |
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Define the role of enthalpy and entropy in these reaction types. |
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Kinetics |
4 |
0
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3 |
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Kinetics |
Describe the concept of reaction kinetics. Summarize the
primary factors that alter reaction rates. |
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Explain forward and reverse reaction rates. |
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Describe activation energy and catalysts. |
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Thermodynamics |
12 |
0
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6 |
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Equilibrium |
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Use equilibrium constants Keq, Ka, and Ksp in chemical calculations. |
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Explain the Law of Mass Action and Le Chatelier’s Principle. |
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Solution Chemistry |
6 |
0
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6 |
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Interactive forces |
Explain the interactive forces between solvent and solute particles in solution chemistry and the significance of these forces. |
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Describe the properties of electrolytes and non-electrolytes in solutions. |
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Solutions |
Specify and be able to calculate concentrations of solutions, including: percent w/w, percent w/v, molarity, and molality. |
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Explain the concept of colligative
properties and calculate changes in their values based on solute
concentrations, including the effects of ionic solutes and van't Hoff factors
where appropriate. |
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Osmosis |
Describe osmosis and reverse osmosis. |
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Illustrate osmosis and reverse osmosis. |
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6 |
0
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9 |
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Theories
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Define acid, base, and neutralization in terms of the Arrhenius theory and Bronsted-Lowry acid-base theory. |
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Apply thermodynamic equilibrium theory to acid-base dissociation. |
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Apply the Bronsted-Lowry acid-base theory to identify conjugate acid-base pairs in neutralization reactions. |
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Equations |
Write balanced molecular equations, total ionic equations, and net ionic equations for neutralization reactions of acids and bases to form salts. |
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Calculations
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Perform calculations for titrations and neutralizations. |
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Perform calculations involving pH and pOH. |
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Buffers |
Define an acid-base buffer system. Relate to Le Chatelier’s Principle. |
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Use the Henderson-Hasselbach equation to calculate the pH of a buffer. |
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4 |
0
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0 |
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Radioactive decay |
Describe the processes involved in radioactive decay. |
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Define the major radioactive decay products: alpha particles, beta particles, gamma radiation, x-rays. |
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Discuss neutron/proton ratios (magic numbers) and how these relate to decay. |
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Define half-life and calculate remaining activity in a radioactive sample. |
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Suggested
Resources |
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Media |
Author |
Year |
Title:
Subtitle |
Edition |
Location |
Publisher/ |
pp. |
|
Print |
Adamson, A. W |
1986 |
A textbook of physical chemistry. |
3rd ed, |
New York |
Elsevier |
971 |
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Bettelheim, B.,
et.al. |
2006 |
Introduction to general, organic, and
biochemistry. |
8th ed. |
Belmont, CA |
Brooks/Cole |
928 |
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Bettelheim, B.,
et.al. |
2006 |
Introduction to general, organic, and
biochemistry: Student solutions manual. |
8th ed. |
Clifton Park, NY |
Centage Delmar |
192 |
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Block and McKelvy |
2006 |
Lab experiments for general chemistry. |
5th ed. |
Clifton Park, NY |
Centage Delmar |
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Brady and Senese |
2007 |
Chemistry: The study of matter and Its change. |
5th ed. |
New York |
John Wiley &
Sons |
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Bretherick, L. |
1986 |
Hazards in the chemical laboratory. |
4th ed. |
London |
Royal Society of
Chemistry |
618 |
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Brown, LeMay and Bursten |
2005 |
Chemistry: The central
science. |
10th ed. |
New York |
Prentice Hall |
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Burns, Ralph |
2004 |
Fundamentals of Chemistry. |
4th ed. |
New York |
Prentice Hall |
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Chang, R. 5 |
2005 |
Chemistry. |
8th ed. |
New York |
Mc-Graw HIll |
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Cotton, F. A., & Wilkinson, G |
1999 |
Advanced
inorganic chemistry. |
6th ed. |
New York |
John Wiley &
Sons |
1376 |
|
|
CRC edition |
|
Handbook of C\chemistry
and Physics, any |
Any edition |
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CRC Press. |
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Davis, R. E |
1988 |
Study
guide to accompany general chemistry with qualitative analysis |
3rd ed. |
Philadelphia |
Saunders |
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Hein, M., et al. |
1988 |
College
chemistry: An introduction to general, organic, and biochemistry |
4th ed. |
Pacific Grove |
Brooks/Cole |
903 |
|
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Kanare, H. M. |
1985 |
Writing
the laboratory notebook. |
|
Washington, DC |
Oxford University
Press |
145 |
|
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Kotz Treichel & Wege |
2005 |
Chemistry
and chemistry reactivity. |
6th ed. |
Belmont, CA |
Brooks/Cole |
|
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Lefèvre, M. J. |
1990 |
First
aid manual for chemical accidents. |
2nd ed. |
New York |
John Wiley &
Son |
272 |
|
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Loebel, A. B. |
1987 |
Chemical
problem solving by dimensional analysis. |
3rd.
ed. |
Boston |
Centage Delmar |
417 |
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Masterton and Hurley |
2008 |
Chemistry: Principles and reactions. |
6th ed.
|
Belmont, CA |
Brooks/Cole |
|
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Moore, Stanitski and Jurs |
2007 |
Chemistry: The Molecular science. |
3rd ed. |
Boston |
Centage Delmar |
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Olmsted and Williams |
2004 |
Chemistry. |
4th ed.
|
New York |
John Wiley &
Son |
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Posted: 10/01/08