| IV. |
Learning Objectives |
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A. Understand the concept of limit. |
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B. Understand the concept of continuity. |
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C. Understand the concept of derivative. |
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D. Evaluate derivatives of algebraic, trigonometric,
exponential, and logarithmic functions. |
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E. Use derivatives to solve optimization problems, motion
problems, and problems involving rates of change. |
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F. Use derivatives to analyze functions and their graphs. |
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G. Understand the concepts of indefinite integral and definite integral. |
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H. Evaluate indefinite and definite integrals. |
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I. Use definite integrals to find area, average functional value, distance
traveled, and total change. |
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J. Use of technology for finding limits, derivatives, and integrals. |
| V. |
Academic Integrity |
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The very nature of higher education requires that students
adhere to accepted standards of academic integrity. Therefore Oakton Community
College has adopted a Code of Academic Conduct and a Statement of Student
Academic Integrity. These may be found in the Student Handbook. You may
also find a summary of the Code of Academic Conduct on the College Catalog.
Among the violations of academic integrity listed and defined are: Cheating,
plagiarism, falsification and fabrication of records and official documents,
personal misrepresentation and proxy, and bribes, favors, and threats. |
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It is the student's responsibility to be aware of behaviors
that constitute academic dishonesty. |
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Pursuant to the due process guarantees contained in the
Policy and Procedures on Student Academic Integrity, the minimum punishment
for the first offense for a student found in violation of the standards
of academic integrity is failure in the assignment. In addition, a disciplinary
record will be established and kept on file in the office of the Vice-President
for Student Affairs for a period of 3 years. |
| VI. |
Outline of Topics |
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1. Functions and Limits |
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a. Functions and their graphs |
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b. Operations with functions |
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c. Limits |
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d. Infinity and limits |
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e. Continuity |
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2. The Derivative |
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a. Definition of the derivative |
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b. Differentiation rules for sums, products and quotients of functions |
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c. Algebraic, trigonometric, exponential and logarithmic functions
and their derivatives |
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d. The Chain Rule |
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e. Higher order derivatives |
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f. Implicit differentiation |
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g. Linear approximations of functions |
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3. Applications of the Derivative |
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a. Local extrema of functions |
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b. Increasing/decreasing functions and the first derivative |
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c. Concavity and the second derivative |
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d. Curve sketching |
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e. Graph the derivatives to find local extrema and inflection points |
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f. Optimization problems |
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g. Rate of change |
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h. Newton's Method |
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4. The Definite Integral |
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a. Rectangular and trapezoidal approximations for area undercurve |
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b. Sigma notation |
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c. Definition and properties of the definite integral |
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d. Evaluating of definite integrals |
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e. Evaluating antiderivates |
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f. The Fundamental Theorem of Calculus |
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g. Evaluating integrals by substitution |
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5. Applications of the Definite Integral |
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a. Area under curve |
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b. Average functional value |
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c. Distance and velocity |
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d. Area between two curves |
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6. Recommended Technology |
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a. Graphically, numericallyand/or symbolically find limits |
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b. Graphically, numerically and/or symbolically find derivatives |
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c. Evaluate integrals numerically and/or symbolically |