1 x 48, 2 x 24, 3 x 16, 4 x 12, 6 x 8
16 and -3 are the numbers which gives -48 when multiplied and 13 when added
-35
Let the number 'm' & 'n' Hence # Multiplication mn = - 1344 Added m + n = 43 We have two unknowns , So we eliminate one of them . Hence mn = -1344 m = 43 - n Substitute (43 - n) n = -1344 43n - n^(2) = -1344 n^(2) - 43n - 1344 = 0 We now have quadratic eq;n to solve Hence n = { --43 +/- sqrt[(-43)^(2) - 4(1)(-1344)]} / 2(1) n = { 43 +-/ sqrt[ 1849 + 5376]} / 2 n = { 43 +/-sqrt[ 7225] } / 2 n = { 43 +/- 85}/2 n = 128/2 = 64 & n = - 42/2 = -21 Verification 64 X -21 = -1344 64 - 21 = 43 So the two numbers are '-21' & '64'.
The numbers are 47 and 48. (47 x 48 = 2,256)
When two numbers are multiplied, the answer is referred to as the product. The product of 23 and 48 is 1104.
No two prime numbers can do that. 2 x 2 x 2 x 2 x 3 = 48
You can use 12*4=48, 24*2=48, 1*48=48, 3*16=48, or 6*8=48.
-377
You can use 12*4=48, 24*2=48, 1*48=48, 3*16=48, or 6*8=48.
To find the number that you can multiply to get 48, you would look for its factors. For example, multiplying 6 by 8 gives you 48 (6 × 8 = 48). Additionally, 12 multiplied by 4 also results in 48 (12 × 4 = 48). There are several pairs of numbers that can be multiplied to achieve 48.
Ah, what a delightful question! Let's see, if we're looking for two numbers that multiply to 48, we can think of pairs like 6 and 8, or 4 and 12. Nature has a way of balancing things out, just like these numbers complement each other to create a beautiful equation.
The two numbers that can multiply to get -48 and add to get 8 are 12 and -4. When multiplied, 12 × -4 equals -48, and when added, 12 + (-4) equals 8.