The Commutative Property states that the order in which you add or multiply numbers does not change the result. In the context of multiplication, this means that \( a \cdot b = b \cdot a \).
Let's analyze the provided expressions:
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\( 3x \cdot 9y \cdot 6 = 9y + 6 + 3x \): This is incorrect because the left side is a product, while the right side is a sum.
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\( 3x \cdot 9y \cdot 6 = 9y \cdot 6 \cdot 3x \): This is correct. It demonstrates the Commutative Property because the product remains the same regardless of the order of the factors.
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\( 3x(9y + 6) = (3x + 9y) \cdot 6 \): This does not demonstrate the Commutative Property; instead, it applies the distributive property incorrectly.
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\( 3x \cdot 9y \cdot 6 = 162xy \): While this is mathematically correct (since \( 3 \cdot 9 \cdot 6 = 162 \)), it doesn't demonstrate the Commutative Property.
The only expression that correctly demonstrates the Commutative Property is:
\( 3x \cdot 9y \cdot 6 = 9y \cdot 6 \cdot 3x \).