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Syllabus for Chemistry 101
General Chemistry 101 Sections 4220 and 4221
Fall 2005
Instructor: Dr. Nadene
Houser-Archield
Office: CH 310J
Phone: 301 386 7593
E-Mail: nhouser_archield@pgcc.edu
Office hours: MW 10:00am - 11:40am, T 4:00pm – 5:40pm
Class Meeting Times: Lec MW
1:00 - 2:15 CH 114
4220
Lab M 2:30 - 5:20 CH 312
4221
Lab W 2:30 - 5:20 CH 312
4220 Rec
W 12:00 - 12:50 CH 307
4221 Rec
M 12:00 - 12:50 CH 307
Final Exam:
Wednesday, December 14, 2004 1:00pm - 3:00pm, CH
114
Course Materials:
Textbook: Chemistry, McMurray and Fay, 4th Edition,
Prentice Hall, 2004
ISBN: 0-13-140221-8
Lab manual: Discovering the Chemical World (Lab Manual),
/Gage/Sinex/Basili 2003. The manual can be downloaded from
http://academic.pgcc.edu/psc
Scientific Calculator (Strongly suggest TI 83 or TI 83 Plus)
Blackboard
notes, exercises and handouts. For directions go to
http://www.pgcconline.com ; select Announcements for Students.
Visit the Department of Physical
Sciences and Engineering website at
http://academic.pgcc.edu/psc
Welcome to Chemistry 101!
This course is
designed to immerse you in the basic tenets of inorganic chemistry.
Laboratories, lectures, workshops and demonstrations will be the modes of
information dispersal and skill acquisition.
In order to be
successful, read the chapters (prior to lecture is best), attend each lab,
lecture and workshop, do the suggested homework problems and join/form a
regularly meeting study group. You
will need between 10 and 20 hours of study (outside of class time) per week!!!
I am available
during office hours and by appointment. Also, the College provides free tutoring
services by appointment on the third floor of Accokeek Hall. Stop in or call
322-0748 for an appointment. I strongly suggest forming study groups; those
students who are strong in chemistry enhance their knowledge by teaching others;
those who are weak in chemistry enhance their knowledge by being exposed to the
way others view the course concepts.
Quizzes, exams,
performance tasks, recitations, labs and the final exam will not be made up.
Cheating on an assessment will result in a grade of zero for that assessment;
the cheating will be reported to the Dean.
Bring your calculator
with you to lecture, recitation and lab.
Chemistry 101 course objectives:
Upon Successful
completion of this course a student will be able to:
1. Perform, analyze,
and report on a variety of laboratory measurements with appropriate
precision and accuracy.
2. Collect, process,
display, and evaluate data, employing scientific tools such as the graphing
calculator, spreadsheet and appropriate software.
3. Explain, and
analyze the energetics associated with physical and chemical processes.
4. Apply the correct
chemical symbolism and nomenclature to chemical species and reactions.
5. Compare the
characteristics and explain the behavior of matter on a microscopic scale;
analyze ideal gas systems qualitatively and quantitatively.
6. Explain the
concepts of chemical reactivity and apply these concepts to various chemical
systems; determine the stoichiometry of reactions and apply it to chemical
computations.
7. Characterize the
components and structures of atoms on the basis of historical and modern
research; analyze and explain atomic properties on the basis of periodic
trends.
8. Explain the
conditions and forces that govern chemical bonds and apply these concepts to
the formation of bonds, electron arrangements and molecular geometries and
in describing intermolecular interactions.
9.Characterize
electrolyte and non-electrolyte solutions; determine the solubilities of
solutes and the concentrations of solutions. |
Grading Scale:
A = 90-100%
B = 80-89%
C
= 70-79%
D
= 60-69%
F
= 59% and below or insufficient labs or final exam not taken
Note 1: All labs are required! If you
perform fewer than 90% of the labs you will receive a grade of F in the course.
Note 2: If you do not take the final
exam, you will receive a grade of F in the course.
Note 3: Assignments are due during the
first minute of class. Late assignments, if accepted, will be heavily
penalized.
Assessment
Percentage of grade
Exams
30%
Quizzes
20%
Performance Task
labs
20%
Final
Exam 20%
Personal Responses/homework/group work
10%
During in class and/or
laboratory assessments: You may not exit the room until you have completed and
handed in the assessment.You may not share calculators. You may not use cell
phones as calculators nor to receive calls.
Tentative Course Schedule
M W
Week 1
8/29-9/4 |
Lec:
Measurements
Text: 1.1, 1.5-1.13
Lab:
Measurements
Rec:
Excel |
Lec:
Measurements
Text: 1.1, 1.5-1.13
Lab: Measurements
Rec: Excel |
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Week 2
9/5-11 |
Labor Day
No Classes |
Lec:
Measurements
Text: 1.1, 1.5-1.13
Lab: Separations I, briefing for
PT 1
Rec: Graphing Calculator |
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Week 3
9/12-18 |
Lec:
Atomic structure
Text: 2.1-2.6, 5.2-5.6, 5.9
Lab: Separations I, briefing for
PT 1
Rec: Graphing Calculator |
Lec:
Atomic structure
Text: 2.1-2.6, 5.2-5.6, 5.9
Lab: Spectroscopy
Rec: Power Regressions |
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Week 4
9/19-25 |
Lec:
Exam 1
Lab: Spectroscopy
Rec: Power Regressions |
Lec:
The Mole Concept
Text: 3.2,3.3
Lab: Perform. Task 1
Rec: Moles and Atomic Structure
Exercise |
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Week 5
9/26-10/2 |
Lec:
Orbitals and Electron Configurations
Text: 5.7, 5.8, 5.10-5.12, 5.14
Lab: Perform. Task 1
Rec: Moles and Atomic Structure
Exercise |
Lec:
Orbitals and Electron Configurations
Text: 5.7, 5.8, 5.10-5.12, 5.14
Lab: An Investigation of Chemical
Reactions 1
Rec: FM/MM Exercise |
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Week 6
10/3-9 |
Lec:
Periodic Table
Text: 1.2-1.4, 5.1, 5.13, 5.15, 6.3-6.5, 7.4
Lab: An Investigation of Chemical
Reactions 1
Rec: FM/MM Exercise |
Lec:
Periodic Trends
Text: 1.2-1.4, 5.1, 5.13, 5.15, 6.3-6.5, 7.4
Lab: Moles, Molecules, Formulas
Rec: Orbitals and Electron
configurations Exercise |
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Week 7
10/10-16 |
Lec:
Exam 2
Lab: Moles, Molecules, Formulas
Rec: Orbitals and Electron
configurations Exercise
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Lec:
Empirical formulas, % Composition
Text: 3.3, 3.11-3.13
Lab: Investigation of Chemical
Reactions II, Briefing: PT 2
Rec: Stoichiometry Activity |
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Week 8
10/17-23 |
Lec:
Ions, the Octet Rule, Chemical Reactions
Text: 2.7-2.10, 3.1, 4.1-4.8
Lab: Investigation of Chemical
Reactions II; Briefing: PT 2
Rec: Stoichiometry Activity |
Lec:
Ions, the Octet Rule, Chemical Reactions
Text: 2.7-2.10, 3.1, 4.1-4.8
Lab: Investigating Solutions
Rec: Reactions Activity |
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Week 9
10/24-30 |
Lec:
Ions, the Octet Rule, Chemical Reactions
Text: 2.7-2.10, 3.1, 4.1-4.
Lab: Investigating Solutions
Rec: Reactions Activity
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Lec:
Stoichiometry
Text: 3.2-3.6
Lab: The Behavior of Gases
Rec: Reactions Activity
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Week 10
10/31-11/6 |
Lec:
Solutions and Solution Stoichiometry
Text: 3.7-3.10, 11.1-11.4
Lab: The Behavior of Gases
Rec: Reactions Activity
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Lec:
Solutions and Solution Stoichiometry
Text: 3.7-3.10, 11.1-11.4
Lab: Perform. Task 2
Rec: Solutions Spreadsheet
Activity |
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Week 11
11/7-13 |
Lec:
States of Matter
Text: Chapter 9
Lab: Perform. Task 2
Rec: Solutions Spreadsheet
Activity |
Lec: Gases
Text: Chapter 9
Lab: The Ins and Outs of Energy in
a System
Rec: Gas Law Activity
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Week 12
11/14-20 |
Lec: Gases
Text: Chapter 9
Lab: The Ins and Outs of Energy in
a System
Rec: Gas Law Activity
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Lec:
Exam 3
Lab: Perform. Task 3
Rec: Gas Law Activity
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Week 13
11/21-27 |
Lec:
Electrolytes/Acids and Bases
Text: 2.9, 15.1-15.7
Lab: Perform. Task 3
Rec: Gas Law Activity
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Thanksgiving
Holiday
No classes
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Week 14
11/28-12/4 |
Lec:
Electrolytes/Acids and Bases
Text: Text: 2.9, 15.1-15.7
Lab: Bonds/Molecular Geometry
Rec: Colligative Properties
exercise |
Lec:
Colligative Properties
Text: 11.5-11.9
Lab: Bonds/Molecular Geometry
Rec: Colligative Properties
exercise |
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Week 15
12/5-10 |
Lec: Polarity in
Bonds
Text: 2.8, 7.1-7.4
Lab: Bonds/Molecular
Geometry/Hybridization
Rec: Same as lab |
Lec:
Review
Lab: Bonds/Molecular
Geometry/Hybridization
Rec: Same as lab |
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Week 16
12/12-16 |
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Final Exam
1:00 – 3:00 CH 114 |
My Philosophy
The numbers of students majoring in STEM
(Science, Technology, Engineering and Math) disciplines is declining as
nationwide the dropout/failure rate in STEM courses, particularly in large
lecture courses, averages 50% or higher. This trend must be reversed or it will
harm our society, as we will have a shortage of qualified STEM professionals.
I combine elements of
Piaget, Arlin, Hebb, Bloom and Bruner’s theories with some of my own
reflections. I believe there are four domains of learning in order of increasing
importance:
1) the physical = 2) the cognitive = 3) the
emotional < 4) the spiritual.
It is important to guard
against sacrificing development in some domains in order to excel in other
domains; when such is done, the result is imbalanced people.
Although not everyone will
be a chemist, I want ours to be a literate and well educated society in which
everyone has a helpful understanding of chemistry. I’d also like ours to be a
progressive society in which one generation makes it easier for the next to
progress.
Because of the separation
of church and state, teachers in public institutions do not address the
spiritual; however, teachers must cultivate student development in the physical,
cognitive and emotional domains. If it is taught well, most undergraduate
chemistry students have the ability to flourish at Benjamin Bloom’s knowledge,
comprehension, application and analysis levels.
Vision:
Students will emerge from this course with
a) Critical thinking skills that allow them to confidently assess, develop
approaches to, and solve unfamiliar and familiar problems
b) A sense of belonging and community at PGCC and in society
c) Motivation to higher educational achievement (derived from successful
experiences in my course)
Mission:
Students will engage in hands-on/active/discovery and real learning problem
solving experiences, many of which involve collaboration with their peers.
Goals and objectives:
Goal 1: Develop Critical
Thinking Skills
Critical Thinking objectives:
Pertaining to a problem, students will
a) Employ
hands-on active learning and discovery exercises involving real models* that are
familiar parts of their life’s experience, to solve problems and subsequently
b) Construct their own knowledge/ arrive at their own conclusions
c)
Gather/research already known facts/information/data pertaining to a proble
d)
Define/describe/label/list/outline/state known
terms/facts/methods/procedures/concepts and principles associated with the
problem
e) Break problems/questions/situations down into
component smaller problems/questions/situations
f)
Generate/devise/formulate/design/organize/create and carry out
schemes/experiments/approaches/methods/procedures/tasks for generating
data/gathering information needed to solve problems/answer questions/assess
situations
g)
Compile/organize/categorize/outline gathered data/information/facts an
h) Analyze it by diagramming/
comparing/relating/differentiating/contrasting/discriminating/separating/sub-dividing
it in order to
i)
Discover/recognize/identify/interpret patterns/relationships among
narrative/listed/charted/graphed data/facts/information, then
j) Draw
mental/narrative/verbal conclusions: formulate or develop
generalizations/rules/principles/methods/procedures and/or
k)
Convert/translate them into mathematical formulas (and vice versa)
l)
Evaluate/test conclusions/ generalizations/rules/principles/methods/procedures
and mathematical formulas
m) Use valid
conclusions/ generalizations/rules/principles/methods/procedures and
mathematical formulas to
n)
Compute/calculate/determine/demonstrate/predict outcomes in familiar and
unfamiliar situations
Goal
2: Develop a Sense of Community
Objectives:
During and as a result of collaborative work, students will
a) Obtain a
sense of community/belonging/connectedness with lab and/or activity partners
subsequently/ultimately this will
b) Promote
their sense of community/belonging/connectedness at the college
c) Value collaborative exchange/brainstorming
d) Bounce
their perceptions and ideas off of others without fear of being ridiculed
Goal 3: Motivation
Objectives: Students will
a) Have repeated successful experiences solving challenging problems.
b) Acquire confidence from their successes.
c) Take on other challenging courses with confidence in their acquired problem
solving skills
* Real learning activities
incorporate familiar models (models that are a part of each student’s life’s
experience), as in the teaching of concepts.
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