To find the values of \(x\) and \(y\) given the relationships in the problem, we need to use the fact that lines \(x\) and \(y\) are parallel. This condition implies that certain angles or relationships hold true.
From the expressions provided, we have:
- \(B = 9x + 16\)
- \(F = 5x + 24\)
- \(H = 2y + 16\)
It's not explicitly stated how \(B\), \(F\), and \(H\) are related, but since lines \(x\) and \(y\) are parallel, we can assume we need to set \(B\) equal to \(H\) or \(F\) equal to \(H\) or some other relation.
One common scenario with parallel lines is that their corresponding angles are equal. If we assume that \(B\) and \(F\) are corresponding angles related to parallel lines, we can set \(B\) = \(F\):
\[ 9x + 16 = 5x + 24 \]
Now solve for \(x\):
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Subtract \(5x\) from both sides: \[ 4x + 16 = 24 \]
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Subtract 16 from both sides: \[ 4x = 8 \]
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Divide by 4: \[ x = 2 \]
Next, to find \(y\), we relate \(H\) back to either \(B\) or \(F\). Let's set \(H\) equal to \(B\):
\[ 2y + 16 = 9x + 16 \]
Now substitute \(x = 2\):
\[ 2y + 16 = 9(2) + 16 \]
This simplifies to:
\[ 2y + 16 = 18 + 16 \] \[ 2y + 16 = 34 \]
Now solve for \(y\):
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Subtract 16 from both sides: \[ 2y = 18 \]
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Divide by 2: \[ y = 9 \]
Thus, the final values are:
\[ x = 2, \quad y = 9 \]