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MATHS 166: Calculus 2 (4)

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MATH <strong>166</strong>: <strong>Calculus</strong> 2 (4 hours)<br />

Syllabus<br />

1. Prerequisite: C- or better in MATH 165 or permission of the department chairperson.<br />

2. Course Description: Standard techniques of integration, applications of the integral, numerical<br />

integration, sequences and series. Includes the use of graphing calculators and computer software. Core<br />

Transfer Library: Mathematics (IMA 1603)<br />

3. Course Objectives: This course continues the study of calculus, which begins in MATH 165. Additional<br />

theory, techniques, and applications support the new mathematical concepts developed in this course.<br />

Applications to a wide variety of fields will be stressed to enhance the student’s appreciation and ability<br />

to apply the techniques of calculus to solve problems in the real world.<br />

4. Course Rationale: This course continues the study of calculus, which begins in MATH 165. Students<br />

planning to major in mathematics, engineering, physics, chemistry, or a related subject need this<br />

sequence.<br />

5. Course Content: The topics to be covered are listed in the course description. They constitute the<br />

standard second semester calculus course offered by nearly every college and university. The students<br />

are expected to attend class regularly and to study the material and examples in the text as well as those<br />

presented in class.<br />

It is expected that the student will master and utilize a graphing calculator and the computer algebra<br />

system Mathematica. Relevant portions of the Departmental Mathematica Tutorial will be incorporated<br />

into the course. Additional applications of Mathematica will be included. The program Mathematica, as<br />

well as the Departmental Mathematica Tutorial and sample Mathematica labs, are available on any<br />

Departmental lab computer.<br />

6. Course Format: The standard modes of instruction will include individual and group projects, including<br />

three required group computer projects common to every section of the course.<br />

7. Methods of Evaluating Student Performance: Course grades are determined primarily by student<br />

performance on tests, quizzes, and projects, as well as possibly homework and class participation. The<br />

evaluation and weight of these various components are at the discretion of the individual instructor.<br />

8. Evaluation of the Course: The instruction in the course is evaluated by departmental student evaluations<br />

and peer evaluations. The course is periodically reviewed, evaluated, and revised by the Departmental<br />

Undergraduate Programs Committee.


MATH <strong>166</strong> Learning Objectives<br />

Students will be able to:<br />

1. Compute exact values for integrals using the following techniques of integration:<br />

a. Integration by parts<br />

b. Trigonometric substitution<br />

c. Partial fractions<br />

2. Compute approximate values for integrals using numerical methods, including the<br />

Midpoint Rule, the Trapezoidal Rule, and Simpson’s Rule.<br />

3. Determine error bounds associated with numerical methods such as the Midpoint<br />

Rule, the Trapezoidal Rule, and Simpson’s Rule.<br />

4. Recognize and solve problems involving applications of the definite integral.<br />

Such applications include:<br />

a. Areas between curves<br />

b. Volumes of solids of revolution<br />

c. Surface areas of surfaces of revolution<br />

d. Work<br />

e. Average value of a function<br />

f. Arc length<br />

g. Hydrostatic force<br />

h. Center of mass<br />

i. Probability<br />

5. Compute exact values for improper integrals.<br />

6. Use the Comparison Test to determine whether an improper integral converges.<br />

7. Define the following:<br />

a. Infinite sequence<br />

b. Convergence of an infinite sequence<br />

c. Infinite series<br />

d. Alternating series<br />

e. Convergence of an infinite series<br />

f. Absolute convergence of an infinite series<br />

8. Compute the sum of a geometric series.<br />

9. Determine whether a positive-termed series converges using various tests,<br />

including:<br />

a. Integral Test<br />

b. Comparison Test<br />

10. Determine whether an alternating series converges using the Alternating Series<br />

Test.<br />

11. Determine absolute convergence using:<br />

a. Ratio Test<br />

b. Root Test<br />

12. Compute the radius of convergence and interval of convergence for a power<br />

series.<br />

13. Compute the Taylor series representation of a smooth function.<br />

14. Recognize a MacLaurin series as a special case of a Taylor series.


15. Use Taylor’s Theorem to:<br />

a. Show that the natural exponential function, the trigonometric functions,<br />

and polynomials are real analytic.<br />

b. Approximate functions using polynomials.<br />

16. Recognize and solve separable differential equations.<br />

17. Solve problems involving applications of separable differential equations, such as<br />

population growth.<br />

18. For curves defined by parametric equations, compute:<br />

a. Slopes of tangents<br />

b. Arc length<br />

c. Surface area of surfaces of revolution<br />

d. Volumes of solids of revolution<br />

19. Plot curves in polar coordinates.<br />

20. Convert between polar and rectangular coordinates.<br />

21. For curves defined by polar coordinates, compute:<br />

a. Arc length<br />

b. Area between curves<br />

[Fall 2005, M. Karls; December 2009, Assessment Committee, R. Bremigan, Chair;<br />

December 2008, M. Begum & J. Lorch; Oct 2012, UPC, R. Pierce Chair; Fall 2014,<br />

UPC, R. Pierce, Chair]

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