To solve this problem, let's define the two unequal numbers that the merchant divides the coins into as x and y, with x > y.
According to the given condition:
"48 times the difference between the two numbers equals the difference between the squares of the two numbers."
This translates to the equation:
\(48(x-y) = x^2 - y^2\)
We know that the difference between the squares of two numbers can be expressed as:
\(x^2 - y^2 = (x-y)(x+y)\)
Substituting this into the original equation gives:
\(48(x-y) = (x-y)(x+y)\)
Assuming \(x \neq y\), we can factor out \(x-y\) from both sides:
\(48 = x+y\)
This implies that the sum of the two numbers is 48. The total number of coins is therefore:
\(x + y = 48\)
Given that the two sums should add up to the total number of coins,
Let's check the options provided to determine whether they can yield such a division:
Since none of these options can produce a sum of 48 for x and y, none of the given options fit. Therefore, the correct answer is "None of these."
Find the missing code:
L1#1O2~2, J2#2Q3~3, _______, F4#4U5~5, D5#5W6~6
Find the missing number in the table.