[PDF] Chinese Reminder Theorem The Chinese Remainder Theorem enables





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Math 127: Chinese Remainder Theorem

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https://www.math.tamu.edu/~stephen.fulling/chinese.pdf

Chinese Remainder Theorem

Example.Find a solution to

x88 (mod 6) x100 (mod 15) Solution 1:From the rst equation we know we wantx88 = 6kfor some integerk, so xis of the formx= 88 + 6k. So from the second equation, we also want 88 + 6k100 (mod 15), so we want 6k12 (mod 15). Use the extended Euclidean Algorithm to nd that 15(1)+6(2) = 3. Multiply through by 4 to get 15(4)+6(8) = 12. Thus 6(8)12 (mod 15), and we can takek=8. This results inx= 88 + 6(8) = 40.

Solution 2:Simplify the two equations rst, to:

x4 (mod 6) x10 (mod 15) From the rst equation we know we wantx4 = 6kfor some integerk, soxis of the form x= 4 + 6k. So from the second equation, we also want 4 + 6k10 (mod 15), so we want

6k6 (mod 15). Use the extended Euclidean Algorithm to nd that 15(1) + 6(2) = 3.

Multiply through by 2 to get 15(2) + 6(4) = 12. Thus 6(4)6 (mod 15), and we can takek=4. This results inx= 4 + 6(4) =20.

Solution 3:Simplify the two equations rst, to:

x4 (mod 6) x10 (mod 15) From the rst equation we know we wantx4 = 6kfor some integerk, soxis of the form x= 4 + 6k. So from the second equation, we also want 4 + 6k10 (mod 15), so we want

6k6 (mod 15). Observe thatk= 1 is an obvious solution.This results inx= 4+6(1) = 10.

Note:In order for the method of Solution 1 or Solution 2 to work in general for xa(modn) xb(modm) we must have (n;m)j(ab). 1quotesdbs_dbs3.pdfusesText_6
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