Problem 10
Question
Write each expression in radical form. $$ x^{\frac{1}{6}} $$
Step-by-Step Solution
Verified Answer
The radical form of the expression \(x^{\frac{1}{6}}\) is \(\sqrt[6]{x}\)
1Step 1: Understanding the Terms
In the expression \(x^{\frac{1}{6}}\), \(x\) is referred to as the base and \(\frac{1}{6}\) is the exponent. This is currently in the exponential form.
2Step 2: Interpreting the Exponent as a Root
In a fraction, the numerator denotes the power which the base is raised to, whereas the denominator specifies the root of the base. Therefore, the denominator 6 in this case implies a sixth root.
3Step 3: Writing in Radical Form
According to the rules of exponents, \(x^{\frac{1}{6}}\) is equivalent to the sixth root of \(x\). This can be represented as \(\sqrt[6]{x}\) in radical form.
Key Concepts
Exponential FormRadical FormRoots and Exponents
Exponential Form
Exponential form is a mathematical notation that allows us to express numbers using a base and an exponent. The base is the number being multiplied, while the exponent indicates how many times the base is used as a factor. For instance, in the expression \(x^{\frac{1}{6}}\), the base is \(x\) and the exponent is \(\frac{1}{6}\).
Exponents can be whole numbers, fractions, or even negative numbers. Fractional exponents, like \(\frac{1}{6}\), offer a compact way to express roots. Understanding exponential form is essential as it appears frequently in algebra and higher mathematics. It simplifies the notation and makes calculations involving repeated multiplication more manageable.
Exponents can be whole numbers, fractions, or even negative numbers. Fractional exponents, like \(\frac{1}{6}\), offer a compact way to express roots. Understanding exponential form is essential as it appears frequently in algebra and higher mathematics. It simplifies the notation and makes calculations involving repeated multiplication more manageable.
- In \(x^{\frac{1}{6}}\), \(x\) is the base.
- \(\frac{1}{6}\) is the exponent.
- Exponential form simplifies the representation of large calculations.
Radical Form
Radical form is another way of writing expressions that involve roots. Instead of using fractional exponents, radical form employs the radical sign (\(\sqrt{}\)) to denote the root. This notation directly indicates the operation of taking the root.
For example, the expression \(x^{\frac{1}{6}}\) in exponential form can be converted to radical form as \(\sqrt[6]{x}\). The number 6, located in the index position of the radical, represents the root being calculated, which is the sixth root in this instance.
This form is particularly useful in simplifying expressions for easier computation:
For example, the expression \(x^{\frac{1}{6}}\) in exponential form can be converted to radical form as \(\sqrt[6]{x}\). The number 6, located in the index position of the radical, represents the root being calculated, which is the sixth root in this instance.
This form is particularly useful in simplifying expressions for easier computation:
- \(\sqrt[6]{x}\) means finding the sixth root of \(x\).
- The radical symbol indicates that we are applying an operation of finding a root.
- This form helps to visually understand the operation of rooting.
Roots and Exponents
Roots and exponents are interconnected concepts in mathematics. They represent different ways to perform operations on numbers but can be transformed from one to the other.
Exponents indicate repeated multiplication. When an exponent is a fraction, the numerator indicates how many times to multiply the base, while the denominator translates into the root. This dual characteristic makes them versatile in mathematical expressions.
For example, the exponent \(\frac{1}{6}\) represents that the root operation is taking place. Specifically, it means we must find the sixth root of the base, which gives the same result as raising the base to the power of one sixth.
Here's how they relate and transform each other:
Exponents indicate repeated multiplication. When an exponent is a fraction, the numerator indicates how many times to multiply the base, while the denominator translates into the root. This dual characteristic makes them versatile in mathematical expressions.
For example, the exponent \(\frac{1}{6}\) represents that the root operation is taking place. Specifically, it means we must find the sixth root of the base, which gives the same result as raising the base to the power of one sixth.
Here's how they relate and transform each other:
- Fractional exponent \(\frac{1}{n}\) translates to the nth root in radical form.
- The base remains constant in both forms.
- Root operations and exponentiation are inverse processes.
Other exercises in this chapter
Problem 10
Simplify. $$ \sqrt[3]{54}+\sqrt[3]{16} $$
View solution Problem 10
Simplify. Assume that all variables are positive. $$ \sqrt[3]{81 x^{2}} $$
View solution Problem 11
Graph each function. \(y=\frac{1}{3} \sqrt{x}\)
View solution Problem 11
Find the inverse of each function. Is the inverse a function? $$ y=(x+1)^{2} $$
View solution