To simplify the expression \( 12(x+4) + 14(4x - 2) \), follow these steps:
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Distribute the numbers outside the parentheses:
- \( 12(x + 4) = 12x + 48 \)
- \( 14(4x - 2) = 56x - 28 \)
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Combine the results: \[ 12x + 48 + 56x - 28 \]
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Combine the like terms:
- Combine \( 12x \) and \( 56x \): \[ 12x + 56x = 68x \]
- Combine \( 48 \) and \( -28 \): \[ 48 - 28 = 20 \]
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The expression simplifies to: \[ 68x + 20 \]
To express this as a mixed number, we can assume we want to express \( 20 \) in a fractional component relative to \( 68x \) assuming \( x = 1 \) when needed. However, the question does not require a specific \( x \) value.
For conciseness, if you're looking for a way to express this in a mixed number form, we see \( 20 \) can be expressed in a fraction relative to \( 68x \).
Therefore, unless a specific value for \( x \) is provided to convert coefficients into mixed numbers, the simplified polynomial is:
\[ 68x + 20 \]
If \( x = 1 \) for instance, \[ 68(1) + 20 \] \[ = 68 + 20 = 88 \] As a mixed fraction: \[ = 88 = 88/1 = (88/1) \text{ which is already in simplest form as an integer} \]
Itβs worth clarifying further with the specifics of representing mixed numbers in terms of polynomial coefficients. Let me know if you require details on that or something else!