Problem 46
Question
Use the power rule and the power of a product or quotient rule to simplify each expression. $$ \left(\frac{q}{t}\right)^{11} $$
Step-by-Step Solution
Verified Answer
\( \frac{q^{11}}{t^{11}} \)
1Step 1: Apply the Power of a Quotient Rule
The Power of a Quotient Rule states that \( (\frac{a}{b})^n = \frac{a^n}{b^n} \). Apply this rule to the expression \( \left(\frac{q}{t}\right)^{11} \). This simplifies to \( \frac{q^{11}}{t^{11}} \).
2Step 2: Simplify the Expression
There are no further simplifications or operations to perform on \( \frac{q^{11}}{t^{11}} \), as the expression is now in its simplest form.
Key Concepts
Power RulePower of a QuotientSimplifying Expressions
Power Rule
Exponents are a crucial part of mathematics, helping us express repeated multiplications in a compact form. The power rule for exponents greatly simplifies expressions involving exponents. The rule states that when you take a power to another power, you multiply the exponents. For example,
Understanding this rule is essential when you are dealing with complex calculations. It helps reduce the number of steps required to solve an expression and prevents errors. However, in some problems, like in our exercise, it might not apply directly.
Still, knowing this rule supports your understanding of other related rules.
- If you have \, \( (x^m)^n \), then using the power rule, it becomes \, \( x^{m \times n} \).
Understanding this rule is essential when you are dealing with complex calculations. It helps reduce the number of steps required to solve an expression and prevents errors. However, in some problems, like in our exercise, it might not apply directly.
Still, knowing this rule supports your understanding of other related rules.
Power of a Quotient
The power of a quotient is a fundamental concept when dealing with fractions raised to an exponent. The rule defines how to handle division under a single exponent. It states that:
In our example, the expression \, \( (\frac{q}{t})^{11} \) simplifies to \, \( \frac{q^{11}}{t^{11}} \), which is much easier to handle.
Recognizing when to apply the power of a quotient is key to efficiently simplifying expressions.
- The numerator and the denominator should be raised individually to the power.
- Mathematically, this rule is defined as \, \( (\frac{a}{b})^n = \frac{a^n}{b^n} \).
In our example, the expression \, \( (\frac{q}{t})^{11} \) simplifies to \, \( \frac{q^{11}}{t^{11}} \), which is much easier to handle.
Recognizing when to apply the power of a quotient is key to efficiently simplifying expressions.
Simplifying Expressions
Once you've applied all your rules with exponents, like the power of a quotient, next comes simplification. Simplifying an expression often means putting it in its most straightforward, readable form. For example:
Understanding simplification is more about recognizing when an expression really is as simple as it can be.
It saves time and confusion when dealing with more extensive problems later on.
- Reducing expressions to the lowest possible terms.
- Ensuring there are no unnecessary operations left.
Understanding simplification is more about recognizing when an expression really is as simple as it can be.
It saves time and confusion when dealing with more extensive problems later on.
Other exercises in this chapter
Problem 46
Add or subtract as indicated. $$ \left(-m^{2}+3\right)-\left(m^{2}-13\right)+\left(6 m^{2}-m+1\right) $$
View solution Problem 46
Simplify each expression. Write each result using positive exponents only. $$ \frac{-8 x a^{2} b^{0}}{-5 x a^{5} b} $$
View solution Problem 46
Multiply. $$ \left(a^{2}+6\right)\left(a^{2}-6\right) $$
View solution Problem 46
Multiply. \((x+3)\left(x^{2}+5 x-8\right)\)
View solution