To follow Theresa's plan, we can start with a general expression that includes variables with exponents. For the sake of this example, let's use:
\( a^m \times a^n \times (a^p)^q \times a^{-r} \)
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Apply the Product of a Product Exponent Law: The Product of a Product Exponent Law states that when multiplying like bases, you add the exponents. Additionally, for the power of a power, you multiply the exponents. For the expression, we can group the first two terms together and the third term separately.
\( a^m \times a^n = a^{m+n} \)
So now we have:
\( a^{m+n} \times (a^p)^q \times a^{-r} \)
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Apply the Product of a Power Exponent Law: The Product of a Power Law states that when raising a power to a power, you multiply the exponents.
Applying this gives us:
\( a^{m+n} \times a^{p \cdot q} \times a^{-r} \)
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Combine all factors using the Product of Powers Law: This means we can now combine all the terms:
\( a^{(m+n) + (p \cdot q) - r} \)
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Use the Negative Exponent Law: The Negative Exponent Law states that \( a^{-x} = \frac{1}{a^x} \). If \( (m+n) + (p \cdot q) - r \) is negative, we can express it as:
\( \frac{1}{a^{-( (m+n) + (p \cdot q) - r )}} \) if necessary. However, we'll keep it as a positive exponent if already positive.
Thus, putting it all together according to Theresa's steps, we arrive at the final expression:
\( a^{(m+n) + (p \cdot q) - r} \)
If you have a specific expression to work with instead of the general form above, please provide that, and I'll apply the steps accordingly.