The Commutative Property of Multiplication states that changing the order of the factors does not change the product. In other words, \( a \cdot b = b \cdot a \).
Looking at the options provided:
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\( z^{11} \cdot 2 = z^{11} + 2 \): This is incorrect because it incorrectly equates multiplication and addition.
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\( 3(b^{10}+4)=3(4+b^{10}) \): This illustrates the Commutative Property of Addition since it rearranges the terms inside the parentheses, but it doesn't apply to multiplication as a whole.
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\( 2(b^{10}+z^{11})=(b^{10}+z^{11}) \cdot 2 \): This demonstrates the Commutative Property of Multiplication, as it shows that multiplying by 2 can be applied to the expression in either order.
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\( 11(b+z)=11b+11z \): This demonstrates the Distributive Property, not the Commutative Property.
Based on these analyses, the correct response that demonstrates the use of the Commutative Property of Multiplication is \( 2(b^{10}+z^{11})=(b^{10}+z^{11}) \cdot 2 \).