Chapter 5: Q. 83 (page 465)
Solve given definite integral.
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Chapter 5: Q. 83 (page 465)
Solve given definite integral.
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Show by differentiating (and then using algebra) that and are both antiderivatives of . How can these two very different-looking functions be an antiderivative of the same function?
Suppose . Calculate and compare the values of the following definite integrals:
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Solve each of the integrals in Exercises 39鈥74. Some integrals require trigonometric substitution, and some do not. Write your answers as algebraic functions whenever possible.
Why don鈥檛 we need to have a square root involved in order to apply trigonometric substitution with the tangent? In other words, why can we use the substitution when we see , even though we can鈥檛 use the substitution unless the integrand involves the square root of? (Hint: Think about domains.)
Explain why and are essentially the same integral after a change of variables.
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