- #1
BenGoodchild
Two conjectures (or are they?):
1. The order of an integer 'a' modulo P^m = P^(m-1)*(Order of a mod P); where P
is an odd prime .
2. If a, m, and n are elements of Z and (a,mn) = 1, then Order of a mod mn =
QR/(Q,R); where Q = Order of a mod m and R = Order of a mod n and (Q,R) is the
greatest common divisor function.
For example:
Example 1:Let a =2 and P=7. Then the order of 2 mod 7 = 3 and the order of 2
mod 7^3 = 7^2(3)= 147.
Example 2: The Order of 2 mod 11^2 = 11*(Order of 2 mod 11) = 110
Example 3: The Order of 2 mod (3*7) = (Order of 2 mod 3)*(Order of 2 mod
7)/(U,V) = 2*3/1 = 6; where U = Order of 2 mod 3 and V = Order of 2 mod 7.
Are any of these two statements known? If so, could one point me in the
direction? If not can anyone prove or disprove?
1. The order of an integer 'a' modulo P^m = P^(m-1)*(Order of a mod P); where P
is an odd prime .
2. If a, m, and n are elements of Z and (a,mn) = 1, then Order of a mod mn =
QR/(Q,R); where Q = Order of a mod m and R = Order of a mod n and (Q,R) is the
greatest common divisor function.
For example:
Example 1:Let a =2 and P=7. Then the order of 2 mod 7 = 3 and the order of 2
mod 7^3 = 7^2(3)= 147.
Example 2: The Order of 2 mod 11^2 = 11*(Order of 2 mod 11) = 110
Example 3: The Order of 2 mod (3*7) = (Order of 2 mod 3)*(Order of 2 mod
7)/(U,V) = 2*3/1 = 6; where U = Order of 2 mod 3 and V = Order of 2 mod 7.
Are any of these two statements known? If so, could one point me in the
direction? If not can anyone prove or disprove?