6.
Minimum hours per week of independent work done
outside of class: 6
Course
Preparation – (Supplemental form B
required) |
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7a.
Prerequisite(s):
(Course and/or other preparation/experience that
is REQUIRED
to be completed previous to enrollment in this
course.) |
Intermediate algebra and
one year of high school geometry or Math. D and
B with grades of "C" or better, or placement by
matriculation assessment process
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7b.
Co-requisite(s): (Courses
and/or other preparation that is REQUIRED to be
taken concurrently with this
course.) |
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7c.
Advisory:
(Minimum preparation RECOMMENDED
in order to be successful in this
course. Also known as “Course
Advisory”.) |
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Catalog
Description And Other Catalog Information
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8.
Repeatability: |
Not Repeatable
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9a.
Grading Option: |
Standard Grade
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9b.
Catalog Description: |
Exploration of mathematical
patterns and relations, formulation of
conjectures based on them, proving (or
disproving) the conjectures. Includes different
problem solving techniques, number theory,
operations with sets, sequences and series, and
geometry. Intended for future elementary school
teachers.
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Course
Outline Information |
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10.
Student Performance Outcomes:
(Outcomes for all credit courses must
indicate that students will learn critical
thinking and will be able to apply concepts at
college level. Outcomes must be
related to items listed in Section 11.)
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For each topic, the
students will: 1. develop a strategy for
approaching problems with which they are
unfamiliar; 2. construct clear and logical
solutions or proofs for each problem; 3.
evaluate solutions for flaws and/or mistakes and
correct these flaws or mistakes.
I. A.
Examine and organize information in unfamiliar
problems as an initial approach to
solving; B. construct tables, graphs, and
diagrams and utilize as a problem solving
technique;
II. A. propose, test, debate,
and construct a clear, logical, and sound
solution to these problems in groups; B.
solve other problems using the Euclidean
Algorithm;
III.A. categorize information
in a problem into clear sets, subsets, and
complementary sets; B. calculate the number
of elements in intersections and unions of sets
using Venn Diagrams;
IV. A. propose,
test, debate, and construct a solution to the
Buffon Needle (Noodle) Problem based on
experimental data; B. solve problems using
counting techniques, such as combinations and
permutations; C. select the best solution to
a problem using probability and expected
values;
V. A. propose, test, debate, and
construct a solution to the Highway Inspector
Problem; B. design networks with given
numbers of vertices and test them for
transferability; C. propose, test, debate,
and construct solutions to open-ended problems
involving geometry;
VI. A. propose, test,
debate, and construct a solution to the
Handshake Problem; B. 1. predict the entries
in a sequence by following the pattern in a
sequence; 2. construct a series that
correctly represents information in a
problem.
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11.
Course Content Outline:
(Provides a comprehensive, sequential outline of
the course content, including all major subject
matter and the specific body of knowledge
covered.) |
Concepts of Mathematics is
a course designed to encourage critical thinking
skills in students as they explore various
investigation topics and open-ended questions.
Students will observe patterns, analyze data,
make conjectures about these observations and
test their conjectures. Their process and
results will be formally communicated in writing
and in oral presentations. This course is also
designed to show students the beauty of
Mathematics, along with providing them with an
opportunity to discover the joy and power of
mathematical thinking.
I. Problem Solving
Techniques A. Common approaches to problem
solving - look for a pattern, guess and
check, convert to algebra B. Organization of
information - making tables, draw a diagram,
use a graph
II. Number Theory A. The
Potato Balancing Problem, jug problems, stamp
problems B. The Euclidean
Algorithm
III. Set Theory A. Sets,
subsets, and complements B. Venn
Diagrams
IV. Probability A. The Buffon
needle (noodle) problem B. Theoretical
probability and various counting and
combinatoric techniques C. Expected value and
fair game problems
V. Geometry and
Networks A. The Highway Inspector
Problem B. Networks C. Geometry -
tessellation, polygons, polyhedra
VI.
Sequences and Series A. The Handshake, pizza
cutting, sidewalk dividing problems B.
Properties of Sequences and Series - Finding
sum formulas for various consecutive counting
number sequences
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12.
Typical Assignments:
(List types of assignments, including library
assignments.) |
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a.
Reading Assignments:
(Submit at least 2 examples)
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1. Find an internet
discussion of Venn Diagrams and come to class
prepared to discuss the logic of the Venn
Diagram.
2. Read the homework handouts to
determine the questions being asked and the work
that will need to be done to accomplish the
solution.
3. Read a solution to a problem
prepared by another group and analyze that
solution for correct logic or implied
flaws.
4. Read article "Teaching
Mathematics Requires special skills" by Debbie
Ball (or similar article on same topic). Write
journal entry and discuss in class.
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b.
Writing, Problem Solving or
Performance:
(Submit at least 2 examples)
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1. Working in groups,
develop a possible solution for the "Highway
Inspector" network problem. Test the conjecture
for accuracy and write up a clear, logical proof
for the solution.
2. Within a group that
has discovered a flaw with another group's
solution to a problem, write a paper indicating
how the solution was in error and a proposal on
how to fix that error.
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c.
Other
(Terms projects, research papers, portfolios,
etc.) |
1. Geometry Group Project-
Polyhedra building/investigation dualism,
stellating, truncating, and compounds
2.
Collection and organization of experimental data
for Buffon Needle (Noodle) problem.
3.
Researching historical math approaches to
various problems given in class, with use of a
library or internet.
4. Research
mathematicians past or present and give
presentation in class, with use of library or
internet.
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Program title - TOPS Code: |
Mathematics,
General- 170100
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SECTION
D |
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General
Education Information: |
1. College
Associate Degree GE
Applicability: |
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Communication
& Analytic Thinking Math
Competency
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2. CSU
GE Applicability (Recommended-requires CSU
approval): |
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B-4
Mathematics/Quantitative
Reasoning
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3. IGETC
Applicability (Recommended-requires CSU/UC
approval): |
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2:
Mathematical Concepts & Quantitative
Reasoning
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4.
CAN: |
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SECTION
E |
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Articulation
Information: (Required
for Transferable courses only)
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1. |
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CSU
Transferable. |
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UC
Transferable. |
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CSU/UC
major requirement. |
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If
CSU/UC major requirement, list campus and major.
(Note: Must be lower division) |
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2.
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List
at least one community college and its
comparable course. If requesting CSU
and/or UC transferability also list a CSU/UC
campus and comparable lower division
course. |
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SECTION
F |
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Resources: |
Please
consider the identified concerns below:
1.
Library: Please
identify the implications to the
library
2.
Computer Support Services: Please
identify the implications to Computer Support
Services:
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SECTION
G |
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1. Maximum
Class Size (recommended): 32
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2. If
recommended class size is not standard, then
provide rationale: |
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