Chapter 7: Q. 8 (page 624)
Explain how you could adapt the integral test to analyze a series in which the function is continuous, negative, and increasing.
Short Answer
By the integral test, the series is divergent.
Chapter 7: Q. 8 (page 624)
Explain how you could adapt the integral test to analyze a series in which the function is continuous, negative, and increasing.
By the integral test, the series is divergent.
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Get started for freeUse any convergence test from this section or the previous section to determine whether the series in Exercises 31–48 converge or diverge. Explain how the series meets the hypotheses of the test you select.
If and diverges, explain why we cannot draw any conclusions about the behavior of.
For each series in Exercises 44–47, do each of the following:
(a) Use the integral test to show that the series converges.
(b) Use the 10th term in the sequence of partial sums to approximate the sum of the series.
(c) Use Theorem 7.31 to find a bound on the tenth remainder,.
(d) Use your answers from parts (b) and (c) to find an interval containing the sum of the series.
(e) Find the smallest value of n so that
Improper Integrals: Determine whether the following improper integrals converge or diverge.
Given a series , in general the divergence test is inconclusive when . For a geometric series, however, if the limit of the terms of the series is zero, the series converges. Explain why.
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