20
To simplify the fraction 105 over 280, you can divide both the numerator and the denominator by their greatest common divisor (GCD). The GCD of 105 and 280 is 35. Dividing both by 35 results in 3 over 8, so 105 over 280 simplified is 3/8.
GCD(125, 225) = 25 GCD(125, 225) = 25 GCD(125, 225) = 25 GCD(125, 225) = 25
To make identical bracelets using all the beads, we need to find the greatest common divisor (GCD) of the three numbers: 280, 200, and 240. The GCD of 280, 200, and 240 is 40. Therefore, using all the beads, we can make 40 identical bracelets. Each bracelet would have 7 green beads (280 ÷ 40 = 7), 5 yellow beads (200 ÷ 40 = 5), and 6 blue beads (240 ÷ 40 = 6).
GCD: 73
GCD: 21
280 56 * 5 = 280 70 * 4 = 280
The GCD (130, 140) = 10 The LCM (130, 140) = 1820
GCD: 14 LCM: 280
The GCF is 40. The LCM is 6720. The GCD is infinite.
LCM: 280 GCD: 10
GCD(125, 225) = 25 GCD(125, 225) = 25 GCD(125, 225) = 25 GCD(125, 225) = 25
Euclid's algorithm is a popular algorithm to compute the GCD of two numbers. Algorithm: Gcd(a,b) = Gcd(b, a mod b), where a>=b and Gcd(a,0) = a Say we want to find the GCD of 72 and 105. 105 mod 72 = 33, so GCD(72,105) = GCD(33,72) 72 mod 33 = 6, so GCD(33,72) = GCD(6,33) 33 mod 6 = 3 so GCD(6,33) = GCD(3,6) 6 mod 3 = 0 so GCD(3,6) = GCD(0,3) = 3. So the GCD of 72 and 105 is 3.
To make identical bracelets using all the beads, we need to find the greatest common divisor (GCD) of the three numbers: 280, 200, and 240. The GCD of 280, 200, and 240 is 40. Therefore, using all the beads, we can make 40 identical bracelets. Each bracelet would have 7 green beads (280 ÷ 40 = 7), 5 yellow beads (200 ÷ 40 = 5), and 6 blue beads (240 ÷ 40 = 6).
660 square = 660 x 660 = 435,600
GCD: 75
GCD: 4
GCD: 73