Question

7. Show that the function determined by the terms of the given series satisfies the hypotheses of the Integral Test, and then use the Integral Test to determine whether the series sum converges or diverges $\sum_{k=1}^{\infty} \frac{1}{k^2 - 1}$ (a) Make a plot of: $f(x) = \frac{1}{x^2 - 1}$ (b) Is f(x) always positive and decreasing from 1 <= x < +inf ? (yes or no) (c) Perform the integral test. Does the series converge, diverge, or inconclusive? (d) Perform the p-test. Does the series converge, diverge, or inclusive. (e) If your answers to (c) and (d) are difference, how do you resolve the difference?

          7.
Show that the function determined by the terms of the given series
satisfies the hypotheses of the Integral Test, and then use the Integral Test to
determine whether the series sum converges or diverges
$\sum_{k=1}^{\infty} \frac{1}{k^2 - 1}$
(a) Make a plot of: $f(x) = \frac{1}{x^2 - 1}$
(b) Is f(x) always positive and decreasing from 1 <= x < +inf ? (yes or no)
(c) Perform the integral test. Does the series converge, diverge, or inconclusive?
(d) Perform the p-test. Does the series converge, diverge, or inclusive.
(e) If your answers to (c) and (d) are difference, how do you resolve the
difference?
        
Show more…
7.
Show that the function determined by the terms of the given series
satisfies the hypotheses of the Integral Test, and then use the Integral Test to
determine whether the series sum converges or diverges
∑k=1^∞(1)/(k^2 - 1)
(a) Make a plot of: f(x) = (1)/(x^2 - 1)
(b) Is f(x) always positive and decreasing from 1 <= x < +inf ? (yes or no)
(c) Perform the integral test. Does the series converge, diverge, or inconclusive?
(d) Perform the p-test. Does the series converge, diverge, or inclusive.
(e) If your answers to (c) and (d) are difference, how do you resolve the
difference?

Added by Courtney S.

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Calculus: Early Transcendentals
Calculus: Early Transcendentals
James Stewart 8th Edition
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7. Show that the function determined by the terms of the given series satisfies the hypotheses of the Integral Test, and then use the Integral Test to determine whether the series sum converges or diverges. 2 = 1/k^2 - 1 (b) Is f(x) always positive and decreasing from 1 <= x < +inf? (yes or no) (c) Perform the integral test. Does the series converge, diverge, or inconclusive? (d) Perform the p-test. Does the series converge, diverge, or inconclusive? (e) If your answers to (c) and (d) are different, how do you resolve the difference?
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Transcript

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0:00 Hello.
00:01 So from our given series, we let f of x be equal to 1 over 4x plus 7.
00:06 And then we just differentiate.
00:08 We can use the quotient rule here.
00:10 And we get that f prime of x is equal to, again, the bottom times the derivative times the top, minus the top, times the river of the bottom, all divided by the bottom squared.
00:19 And we get our derivative is going to be equal to negative 4 over the quantity, 4x plus 7 squared.
00:27 So we have that our function f.
00:30 We have positive terms, and we have that our function f is decreasing since the derivative here is negative.
00:36 So the conditions are satisfied...
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