6.
Hours per week of independent work done outside of
class: 12
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.) |
Completion of Math. 31 or
equivalent with a grade of "C" or
better
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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.) |
Math. 32
recommended
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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: |
First and second order
ordinary differential equations, linear
differential equations, numerical methods and
series solutions, Laplace transforms, modeling
and stability theory, systems or linear
equations, matrices, determinants, vector
spaces, linear transformations, orthogonality,
eigenvalues and eigenvectors. (CAN MATH
24)
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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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1. solve first order
differential equations with the variety
of classical methods; 2. solve higher
order differential equations by utilizing the
linear model; 3. recognize and construct
the solution space of a differential equation
as spanned by basis vectors of a vector
space; 4. understand and utilize the
practical and physical meaning and import
technical concepts such as linearity,
similarity, independence, orthogonality,
eigenspace, transformations, Greens'' functions,
null and column spaces, convolution,
Wronskian; 5. follow rigorous mathematical
proofs and the development of the theory
throughout the course measured by classroom
discussion; 6. be able to change basis,
diagonalize matrices, and
effect transformations to solve problems and
to become familiar with appropriate
representations, viz., principle axes
systems; 7. be able to chose an appropriate
method of solution for a particular problem
and solve it, i.e., Laplace transforms
for initial-value problems, power series for
non-constant coefficient differential
equations, etc.; 8. work linear algebra and
differential algebra problems as encountered
in science and engineering and other applied
fields; 9. be able to form determinants,
invert matrices, and solve systems of
equations using traditional methods; 10.
demonstrate ability to generalize from the
equation and its solution to insight and
patterns for general solutions measured by
classroom discussions, homework assignments and
exams; 11. be able to set-up the algorithms
for the numerical analysis of both
differential equations and linear algebra
problems and to use electronic technology to
solve problems; 12. be able to determine the
dimension of the solution space of
a differential equation based on linearity
and order, and to determine the dimension of
the solution space of a linear system using
the rank and nullity theorem; 13. become
familiar with special functions and orthogonal
polynomials differential equations, e.g.,
Bessel functions and
Legendre polynomials; 14. apply the
filtering and switching properties of Dirac
delta functions and Heavyside step functions
by homework assignments, exams, and classroom
discussions; and 15. acquire greater
understanding of applied problems measured
by homework assignments, exams and classroom
discussions.
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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.) |
I. First Order Differential
Equations II. Elements of Linear
Algebra III. Linear Transformations and
Linear Differential Operators IV. Linear
Differential Equations V. Equations with
Constant Coefficients VI. Laplace
Transformations VII. Series
Solutions VIII. Matrices and Systems of
Linear Equations IX. Systems of Linear
Differential Equations
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12.
Typical Assignments:
(Credit courses require two hours of
independent work outside of class per unit of
credit for each lecture hour. List types of
assignments, including library assignments.)
|
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a.
Reading Assignments:
(Submit at least 2 examples)
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b.
Writing, Problem Solving or
Performance:
(Submit at least 2 examples)
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c.
Other
(Terms projects, research papers, portfolios,
etc.) |
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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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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)
|
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.
|
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):
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2. If
recommended class size is not standard, then
provide rationale: |
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