The commutative property of multiplication states that the order in which two numbers are multiplied does not change the product. In other words, \( a \times b = b \times a \).
To determine which of the options correctly demonstrates the commutative property of multiplication, let's analyze each response:
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\(2(b^{10}+z^{11})=(b^{10}+z^{11})\cdot 2\)
This correctly demonstrates the commutative property because it shows that multiplying \( (b^{10} + z^{11}) \) by 2 is the same as multiplying 2 by \( (b^{10} + z^{11}) \). -
\(3(b^{10}+4)=3(4+b^{10})\)
This does not clearly demonstrate the commutative property because it is more about the associativity of addition and multiplication, not strictly multiplication. -
\(3(b^{10}+4)=3(4+b^{10})\)
Similar to the previous one, this concerns the rearrangement of terms in addition, rather than multiplication as defined by the commutative property. -
\(3z^{11}\cdot 2=z^{11}+2z^{11}\)
This equation is incorrect in context as it does not represent the commutative property. -
\(11(b+z)=11b+11z\)
This shows the distributive property rather than the commutative property.
Based on this analysis, the correct response demonstrating the use of the commutative property of multiplication is:
Response 1: \(2(b^{10}+z^{11})=(b^{10}+z^{11})\cdot 2\).