Q2. Induction. For each integer n > 1, define the sum S(n) as follows: 1 1 1 1 1 S(n) = (2i — 1)(2і + 1) 3.5 5- 7 (2n – 1)(2n + 1)* n=1 1 2 1 1 For example S(1) =E and S(2) = %3D %3D (2i – 1)(2i +1) 1.3 (2i – 1)(2i + 1) 1-3 3-5 n=1 i=1 - i. Compute each of the following values of S(n) and write your final answer as a fraction in lowest terms. S(3) = S(4) = S(5) = - ii. Do you see a general pattern for the simplified value of S(n)? Write your guess to complete the proposition P(n) below. For each integer n > 1, let P(n) be the proposition defined as follows: 1 P(n): S(n) = E (2i – 1)(2i + 1) i=1 – iii. Prove that the proposition P(n) is true for all n 21 using a Proof by induction.
Q2. Induction. For each integer n > 1, define the sum S(n) as follows: 1 1 1 1 1 S(n) = (2i — 1)(2і + 1) 3.5 5- 7 (2n – 1)(2n + 1)* n=1 1 2 1 1 For example S(1) =E and S(2) = %3D %3D (2i – 1)(2i +1) 1.3 (2i – 1)(2i + 1) 1-3 3-5 n=1 i=1 - i. Compute each of the following values of S(n) and write your final answer as a fraction in lowest terms. S(3) = S(4) = S(5) = - ii. Do you see a general pattern for the simplified value of S(n)? Write your guess to complete the proposition P(n) below. For each integer n > 1, let P(n) be the proposition defined as follows: 1 P(n): S(n) = E (2i – 1)(2i + 1) i=1 – iii. Prove that the proposition P(n) is true for all n 21 using a Proof by induction.
Advanced Engineering Mathematics
10th Edition
ISBN:9780470458365
Author:Erwin Kreyszig
Publisher:Erwin Kreyszig
Chapter2: Second-order Linear Odes
Section: Chapter Questions
Problem 1RQ
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Transcribed Image Text:Q2.
Induction. For each integer n > 1, define the sum S(n) as follows:
1
1
1
1
S(n) =
3.5+5.7
1.
+..+
(2i — 1)(2і + 1)
3
(2n – 1)(2n + 1)
n=1
1
1
1
1.
For example S(1) =L 2i – 1)(2i +1)
and S(2) =>
%3D
%3D
1.3
(2i – 1)(2i + 1)
1-3
3-5
n=1
i=1
- i. Compute each of the following values of S(n) and write your final answer as a fraction in
lowest terms.
S(3) =
S(4) =
S(5) =
%3D
- ii. Do you see a general pattern for the simplified value of S(n)? Write your guess to complete
the proposition P(n) below.
For each integer n > 1, let P(n) be the proposition defined as follows:
n
1
P(n) : S(n) = E
(2i – 1)(2i + 1)
i=1
iii. Prove that the proposition P(n) is true for all n > 1 using a Proof by induction.
You must clearly state your Induction Hypothesis and indicate when it is used during the proof of your Induction Step.
As usual you must declare what each variable in your solution represents and make it clear whether each step of your proof is
an assumption, something you are about to prove, or something that follows from a previous step or definition, etc. Attach
additional paper if necessary
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