The steps of proof by induction (steps 0-4).
What is
0) Define the Proposition
1) Test n=1 (or whatever n starts at)
2) Induction Hypothesis (assume proposition is true)
3) Test n=k+1
4) Conclusion
Define Divisibility
What is something that goes equally into another without a remainded
Define Matrix
Define Conjecture
a conclusion based upon incomplete information.
Prove that 1+3+5+7+...=n^2 for all n≥1.
0) Let p(n) be the proposition that 1+3+5+7+...=n^2 for all n≥1
1) Basis Step n=1. (1^2)=1.
2) Assume that p(n) is true for n=k.
1+3+5+7+...=k^2
3) n=k+1. Goal: (k+1)^2
LHS: 1+3+5+7...+(2k-1)+(2(k+1)-1)
RHS: (k^2)+2k+1=(k+1)^2
4) Since p(1) is true, and if p(k) is true, p(k+1) is true, then p(n) is true for all n≥1. aka SPITA(PIT^3)FAN
Prove by induction that (11^n) − 6 is divisible by 5 for all n≥1.
0) Let p(n) be the proposition that (11^n) − 6 is divisible by 5 for all n≥1.
1) Basis Step n=1
(11^1)-6=5, 11-6=5, 5=5
2) Assume p(n) is true for n=k
(11^k)-6=5m, where m is an integer
3) n=k+1
(11^(k+1))-6=11(11^K)-6
*11^k=5m+6*
11(5m+6)-6
55m+66-6=55m+60=5(11m+12), where 11m+12 is an integer.
4) SPITA(PIT^3) FAN
Let A = [1 0]
[7 1]
Prove that A^n= [1 0]
[7n 1]
See paper for details
Find a formula for 7, 11, 15, 19... and prove.
4 is being added to each term, so slope is 4. You can then solve for b (mx+b).
7=4(1)+b, b=3
f(n)=4n+3
0) Let p(n) be the proposition that f(n)=4n+3 for 7, 11, 15, 19 for n≥1.
1) Basis step n=1.
7=4(1)+3
7=7
2) Assume that p(n) is true for n=k
f(k)=4k+3
3) n=k+1. Goal: 4(k+1)+3
f(k+1)=4k+3+5
= 4(k+1)+3
4) SPITA(PIT^3)FAN
Inductive Reasoning is typically used in this subject.
What is science