Problem 32
Question
Simplify. $$\frac{x^{26}}{x^{13}}$$
Step-by-Step Solution
Verified Answer
The short answer is: \(\frac{x^{26}}{x^{13}} = x^{13}\).
1Step 1: Identify the rule for dividing terms with the same base
Recall the rule for dividing terms with the same base: \(a^m / a^n = a^{m-n}\). In our case, the base is x, m is 26, and n is 13.
2Step 2: Apply the rule to the given expression
Using the rule, \(\frac{x^{26}}{x^{13}} = x^{26-13}\).
3Step 3: Simplify the expression
Now, subtract the exponents: \(x^{26-13} = x^{13}\).
So, the simplified expression is: \(x^{13}\).
Key Concepts
Understanding Exponent RulesSteps Involved in SimplificationAlgebra Basics: A Quick Refresher
Understanding Exponent Rules
Exponent rules are like magic tricks for simplifying expressions in algebra. They allow you to manipulate and simplify terms that involve similar bases.
When you divide two expressions with the same base, you subtract the exponents. Sounds simple enough, right?
For instance:
This rule is very handy, especially when dealing with large or composite exponents, as it saves you from extensive multiplication or division.
Intuitively, this makes sense, because if we have, say, \(x^3\) (which is \(x \times x \times x\)) divided by \(x^2\) (which is \(x \times x\)), we are left with one 'x' which is simply \(x^1\) or \(x\). Embrace the power of exponent rules to make your mathematical journey smoother and more efficient!
When you divide two expressions with the same base, you subtract the exponents. Sounds simple enough, right?
For instance:
- Given \[a^m / a^n = a^{m-n}\]
This rule is very handy, especially when dealing with large or composite exponents, as it saves you from extensive multiplication or division.
Intuitively, this makes sense, because if we have, say, \(x^3\) (which is \(x \times x \times x\)) divided by \(x^2\) (which is \(x \times x\)), we are left with one 'x' which is simply \(x^1\) or \(x\). Embrace the power of exponent rules to make your mathematical journey smoother and more efficient!
Steps Involved in Simplification
Simplification is all about making an expression easier to work with. By applying rules like those of exponents, you can reduce complex expressions into simpler forms.
Think of simplification as cleaning up or tidying a room - it's about getting rid of what's unnecessary and retaining only what you need.
For the expression \(\frac{x^{26}}{x^{13}}\), simplification involves removing the common factors found in the expression by applying exponent rules.
Always look to simplify expressions when possible; they are easier to understand and quicker to compute with during problem-solving.
Think of simplification as cleaning up or tidying a room - it's about getting rid of what's unnecessary and retaining only what you need.
For the expression \(\frac{x^{26}}{x^{13}}\), simplification involves removing the common factors found in the expression by applying exponent rules.
- First, recognize that the base 'x' is the same for both numerator and denominator.
- Then apply the exponent rule: \(x^{26} / x^{13} \).
- This translates into \(x^{26-13} = x^{13}\).
Always look to simplify expressions when possible; they are easier to understand and quicker to compute with during problem-solving.
Algebra Basics: A Quick Refresher
Algebra is like the foundation of a math-building - stable and important. Every math student needs a good grasp of the basics to proceed forward.
In algebra, variables like 'x' or 'y' are used to represent numbers whose values can vary. Operations performed on these variables follow certain rules, and exponents are one such operation.
Keen attention to rules simplifies algebraic manipulations greatly.
In algebra, variables like 'x' or 'y' are used to represent numbers whose values can vary. Operations performed on these variables follow certain rules, and exponents are one such operation.
Keen attention to rules simplifies algebraic manipulations greatly.
- Variables: Represent changeable numbers and are often used to formalize patterns or solve equations.
- Exponents: Indicate how many times a number, the base, is multiplied by itself.
- Dividing Variables: Simplified using the subtracting principle for exponents as seen with terms like \(x^m / x^n\).
Other exercises in this chapter
Problem 32
Solve the logarithmic equation algebraically. Then check using a graphing calculator. $$\log _{2} x=-3$$
View solution Problem 32
Solve. $$\sqrt{4 x+1}=3$$
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Solve each inequality. $$(4 d-3)^{2}>-1$$
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Identify the center of each hyperbola and graph the equation. $$\frac{(y-1)^{2}}{36}-\frac{(x+1)^{2}}{9}=1$$
View solution