Let's analyze the expression \( -4(3 + 120) + 150 \).
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First, simplify the expression inside the parentheses: \[ 3 + 120 = 123 \]
Now we rewrite the expression: \[ -4(123) + 150 \]
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Next, multiply: \[ -4 \times 123 = -492 \]
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Finally, add 150: \[ -492 + 150 = -342 \]
Now, comparing this with the responses given, it appears that none directly reaches the calculation of the original expression \( -4(3 + 120) + 150 \) correctly using the Zero Power Rule or a simplified calculation.
However, using the Zero Power Rule, which states that any non-zero number raised to the power of 0 is 1 (i.e., \( a^0 = 1 \)), we can correctly interpret \( 12^0 \) and \( 15^0 \) as 1. When applied, this would lead us to simplify \( 3 + 120 \) as \( 3 + 1 \) and \( 150 \) as \( 1 \), but that seems conceptually incorrect as they should equal their numerical values.
Let’s check each response:
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Response 1: \( -4(3 + 1) + 1 \) This incorrectly applies the Zero Power Rule; it simplifies incorrectly.
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Response 2: \( -4(15) + 15 = -60 + 15 = -45 \) The calculation here seems mistaken in its handling of the inputs.
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Response 3: Similar errors in simplifications lead to incorrect results.
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Response 4: This leads to \( -60 + 1 = -59 \), which is also incorrect.
Since all responses contain mistakes or misinterpretations, the correct procedure to solve \( -4(3 + 120) + 150 \) does not match any of the provided options clearly.
Thus, I would conclude that none of the responses correctly demonstrate the correct process to solve the expression \( -4(3 + 120) + 150 \).