Can you please so (a&b) from #2 and (b&e) from #1 2. Use the ratio test or the root test to find the open interval in which the series converges. No need to test for the end-point. (a) ζ...
(I point) (a) Check all of the following that are true for the series Σ 2-1 A. This series converges B. This series diverges C. The integral test can be used to determine convergence of this series. D. The comparison test can be used to determine convergence of this series. E. The ratio test can be used to determine convergence of this series. F. The alternating series test can be used to determine convergence of this series. (b) Check all...
1. Show the series convergent or not. (-1)" (In 2)" n=0 2. Use the root test for the series convergent or not. ~ n2 E (1-5) n=1 3. (x + 1)" 3n Examine the convergence of the power series. Find the convergence radius R and the convergence range. n=1
Find R, the radius of convergence, and the open interval of convergence for: Σ The series has the open interval of convergence of (-2,2). Determine if the series converges or diverges at each endpoint to find the full n=1 interval of convergence. n. .2" At x = -2 the series converges At x = 2 the series diverges The interval of convergence is M Find R, the radius of convergence, and the open interval of convergence for: (2x - 1)2n+1...
(1 point) This series converges Check all of the following that are true for the series 5 sin na n2 n-1 OA. This series converges OB. This series diverges C. The integral test can be used to determine convergence of this series. D. The comparison test can be used to determine convergence of this series. E. The limit comparison test can be used to determine convergence of this series. OF. The ratio test can be used to determine convergence of...
(1 point) Find the interval of convergence for the following power series: n (z +2)n n2 The interval of convergence is 1 point) Find the interval of convergence for the following power series n-1 The interval of convergence is: If power series converges at a single value z c but diverges at all other values of z, write your answer as [c, c 1 point) Find all the values of x such that the given series would converge. Answer. Note:...
Use the ratio test or the root test to determine whether the series converges or diverges. Do 2 problems. **(n+8)3" 2) (-8) 4) (-1)** (n°352 (n+1)*4*3
(1 point) Select the FIRST correct reason on the list why the given series converges. D-1)", n 6 E 1 sin2 (3n) 2. n2 00 (п+ 1)(15)" 3. B 42n n-1 OC 6(6)" A 4. 2n 11 n 1 00 (-1)" In(e") п° cos(пт) C 5. n-1 1 D 6. п(m(n))? п-2 A. Geometric series B. Ratio test C. Integral test D. Comparison with a convergent p series. E. Alternating series test c2 (1 point) Select the FIRST correct reason...
Use the Root Test to determine the convergence or divergence of the series. (If you need to use o or -o, enter INFINITY or -INFINITY, respectively.) n = 2 (In(n)) limla,l = n > converges diverges inconclusive
QUESTION 8.1 POINT Determine whether the following geometric series converges or diverges, and if it converges, find its sum. -4()** If the series converges, enter its sum. If it does not converge, enter Ø. Provide your answer below: P FEEDBACK Content attribution QUESTION 9.1 POINT Given 72 2 (n! Inn)" which of the following tests could be used to determine the convergence of the series Select all that apply. Select all that apply: The alternating series test. The ratio test....
(1 point) The series is an alternating series but we can apply the ratio test to to test for absolute convergence. Applying the ratio test for absolute convergence you would compute lim (k+1 = li k00 ak k- 00 Hence the series converges Note that you will have to simplify your answer for the limit or you will get an error message.