It is a pattern. Go up two numbers, go down two numbers.
There are no two real numbers that do. Using complex numbers, these two do: (-3/2 + i√151/2) & (-3/2 - i√151/2) Two numbers that add to -3 and multiply to -40 are -8 & 5 Two numbers that add to 3 and multiply to -40 are 8 & -5 Two complex numbers that add to 3 and multiply to 40 are (3/2 + i√151/2) & (3/2 - i√151/2)
The numbers are 3 and 3.5
42, 48 are the two numbers bigger than 40 that have 2 and 3 as their only prime factors.
The two numbers 18 and 27. Factorising the lcm and gcf gives: 54 = 2 × 3³ 9 = 3² There must be 3² in both numbers, but there must be a 3³ and a 2 which must appear in the prime factorisations of the two numbers. Putting a 2 with one 3² and a 3 with the other 3² leads to the two numbers: 2 × 3² = 18 3 × 3³ = 3³ = 27 as the two smallest numbers with gcf=9 and lcm=54. The other distribution of both 2 and 3 with one 3² results in the two number 3² = 9 and 2 × 3³ = 54, the latter of which is larger than both the 18 and 27 previously found.
It is a pattern. Go up two numbers, go down two numbers.
2 and 3.
2 and 3
2 & 3
2, 3, and 5 are the prime numbers that go into 30.
2, 3 and 5
There are only two and they are 3 and 2.
Prime factorization of 24: 2 * 2 * 2 * 3
The two numbers that go into 200301 are:200301 ÷ 3 = 66767200301 ÷ 179 = 1119
There are no two real numbers that do. Using complex numbers, these two do: (-3/2 + i√151/2) & (-3/2 - i√151/2) Two numbers that add to -3 and multiply to -40 are -8 & 5 Two numbers that add to 3 and multiply to -40 are 8 & -5 Two complex numbers that add to 3 and multiply to 40 are (3/2 + i√151/2) & (3/2 - i√151/2)
The two whole numbers that go into 48 (its factors) are 1, 2, 3, 4, 6, 8, 12, 16, 24, and 48.
The two numbers that go into 165 evenly are 1, 3, 5, 11, 15, 33, 55, and 165 .