Section 3.1 Homework 13 +23+... +n = 1n (n +1) for all natural numbers n. 1. 1 + ... + 1 1 1 + for all natural + 2. n(n+1) (n+1) 1(2) (2)3 3(4) 1-r* n 1 and any ne N for any r 3. Show thatr" 1-r k=0 1+2+22 +... + 2"- = 2" -1 for all natural numbers n. 4. 52 -1 is a multiple of 8 for all natural numbers n 5. 9" - 4" is a multiple of 5 for all natural numbers n 6. Use induction to prove Bernoulli's inequality: If 1 + x > 0, the 7. 1 Prove the Principle of Strong Induction: Let P(n) be a statement that is either true or false for each na Then P(n) is true for all n, provided that (a) P(1) is true (b) For each natural number k, if P(i) is true for all integers j s 8. 7444/ )2

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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Section 3.1 Homework
13 +23+... +n = 1n (n +1) for all natural numbers n.
1.
1
+ ... +
1
1
1
+
for all natural
+
2.
n(n+1) (n+1)
1(2) (2)3 3(4)
1-r*
n
1 and any ne N
for any r
3. Show thatr"
1-r
k=0
1+2+22 +... + 2"- = 2" -1 for all natural numbers n.
4.
52 -1 is a multiple of 8 for all natural numbers n
5.
9" - 4" is a multiple of 5 for all natural numbers n
6.
Use induction to prove Bernoulli's inequality: If 1 + x > 0, the
7.
1
Prove the Principle of Strong Induction:
Let P(n) be a statement that is either true or false for each na
Then P(n) is true for all n, provided that
(a) P(1) is true
(b) For each natural number k, if P(i) is true for all integers j s
8.
7444/ )2
Transcribed Image Text:Section 3.1 Homework 13 +23+... +n = 1n (n +1) for all natural numbers n. 1. 1 + ... + 1 1 1 + for all natural + 2. n(n+1) (n+1) 1(2) (2)3 3(4) 1-r* n 1 and any ne N for any r 3. Show thatr" 1-r k=0 1+2+22 +... + 2"- = 2" -1 for all natural numbers n. 4. 52 -1 is a multiple of 8 for all natural numbers n 5. 9" - 4" is a multiple of 5 for all natural numbers n 6. Use induction to prove Bernoulli's inequality: If 1 + x > 0, the 7. 1 Prove the Principle of Strong Induction: Let P(n) be a statement that is either true or false for each na Then P(n) is true for all n, provided that (a) P(1) is true (b) For each natural number k, if P(i) is true for all integers j s 8. 7444/ )2
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