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The take-home final exam for a calculus ii course during spring 2000. The exam covers various topics including finding derivatives using rules, determining maximum values using derivatives, finding antiderivatives using techniques such as integration by parts, substitution, and a table of integrals, computing definite integrals using the fundamental theorem of calculus, simpson's rule, and taylor series approximation, and applying integration to compute volumes and work. The exam also includes a problem on a geometric series and a differential equation.
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MATH 172, Calculus II Name ___________________________________ Spring 2000 Final Exam, Take Home Part Date ____________________________________
At the end of a year’s sequence of Calculus there are some skills, procedures and ideas that you should be able to perform and/or understand. The questions below combine some material from Calculus I and Calculus II.
1. Some Derivative Rules from Calculus I Find the derivative for each of the following functions. Show each step used in the process of finding the derivative, stating the rule that you’re using, e. g., product rule, quotient rule, chain rule, etc. Then use Scientific Notebook to find the derivative and compare your results. a. f › x fi = e?^3 x^ cos› 2 x fi. b. g › x fi = (^2) x^32 x +? 45 x + 1 c. h › x fi = x^2 + ln› 1 + x^4 fi 2. Using Derivatives to find the Maximum ( from Calculus I ) Consider the function f › x fi = x › 1 + x fi e? bx , for x ≥ 0 , with b a positive constant. a. Use the first derivative function to find the x value(s) that give(s) a possible maximum for f › x fi. These x values will be in terms of the constant b. (Recall that a maximum or minimum might occur where the slope of the function is zero.) b. Then use the second derivative function to determine which x value will in fact give a maximum (and not a minimum). 3. Some Antiderivative Techniques ( from Calculus II ) Find the family of antiderivatives for each of the following functions using the specified technique. Show each step used in the process of finding the antiderivative. Then use Scientific Notebook to find the antiderivative and compare your results. a. f › x fi = x cos› 2 x fi, using integration by parts. b. g › x fi = 3 x 2 x^2 + 1
, using substitution.
c. h › x fi = (^) x (^22) + x 3? x^3? 4 , using a table of indefinite integrals. 4. Computing Definite Integrals ( from Calculus II ) Compute the following definite integrals using the specified technique. Show the steps used in the process of computing these definite integrals. Then use Scientific Notebook to compute the definite integral and compare your results.
2 4 xe? x
2 dx , using the Fundamental Theorem of Calculus.
2 4 e? x^3 dx , using Simpson’s rule. (Be sure to specify the number of subintervals used and why you chose that number.)
(^1 1)? e? x^2 x dx , using a Taylor series approximation for the integrand. (Be sure to specify the number of nonzero terms used in the series and why you chose that number.) 5. Applications of integration ( from Calculus II ) a. Computing a Volume
Let R represent the region in the plane bounded by the function y = 1? 2 x
2 and the x-axis. i. Sketch the region R. ii. Find the volume of the solid obtained by rotating the region R about the horizontal line y = 3. b. Computing Work Suppose water is stored in a tank that’s the shape of a pyramid with a square base, s ft. on each side, and a height of h ft. Compute the work done to pump a full tank of water out of the top.
6. A Geometric Series ( from Calculus II )
Consider the series e?^2 h^ + e?^4 h^ + e?^6 h^ + e?^8 h^ + e?^10 h^ + ... , where h is a general constant. Show that this series fits the pattern of a geometric series, and then find the sum of the series.
7. Differential Equations ( from Calculus II )
Use the separation of variables technique to solve the differential equation: dydt = y^2 › 1? e? t^ fi with the initial condition y › 0 fi = 1.