To find an equivalent system of equations, we can manipulate and simplify the original system, which consists of the following equations:
- \(4x + 9y = 10\)
- \(2x + 3y = 12\)
Let's look at the second equation, \(2x + 3y = 12\). If we multiply this equation by 2, it will provide us with a new equation that is still equivalent to the second equation:
\[ 2(2x + 3y) = 2(12) \ 4x + 6y = 24 \]
Now we have a new equivalent system:
- \(4x + 9y = 10\) (unchanged)
- \(4x + 6y = 24\) (transformed from the original second equation)
Now let’s see which of the responses matches this system.
- Response: \(4x + 9y = 10\) and \(4x + 3y = 24\) (not matched)
- Response: \(4x + 9y = 10\) and \(2x + 9y = 36\) (not matched)
- Response: \(4x + 9y = 10\) and \(2x + 3y = 12\) (match original, but not manipulated)
- Response: \(4x + 9y = 10\) and \(4x + 6y = 24\) (this is a match)
- Response: \(4x + 9y = 10\) and \(4x + 6y = 24\) (this is a match)
Therefore, the equivalent system of equations is:
\[ \text{System: } 4x + 9y = 10 \text{ and } 4x + 6y = 24 \]
So, the correct choice is:
Response: \(4x + 9y = 10\) and \(4x + 6y = 24\)