Problem 64
Question
Simplify each expression. $$ 23^{0} $$
Step-by-Step Solution
Verified Answer
The expression simplifies to 1.
1Step 1: Understanding the Zero Exponent Rule
The zero exponent rule states that any non-zero number raised to the power of zero is equal to 1. This is a fundamental rule in algebra and helps simplify expressions involving exponents.
2Step 2: Apply the Zero Exponent Rule
Since the base 23 is a non-zero number and the exponent is zero, use the zero exponent rule: \(23^{0} = 1\).
3Step 3: Confirm the Result
Double-check the rule application: Remember, the zero exponent rule applies regardless of the base provided it is not zero. Since 23 is non-zero, the calculation \(23^{0} = 1\) is correct.
Key Concepts
Understanding ExponentsBasic Algebra ConceptsSimplifying Expressions
Understanding Exponents
Exponents are a way to express repeated multiplication. When you see a number with an exponent, the exponent tells you how many times to multiply the base by itself. For example, if we have the expression \(5^3\), this means \(5 \times 5 \times 5\), which equals 125. Exponents follow various rules that make calculations easier, and understanding these rules is crucial for simplifying expressions in algebra.
One fundamental exponent rule is the zero exponent rule. It states that any non-zero number raised to the power of zero equals one. So, no matter how large or small a number is, if you raise it to the power of zero, the result is always 1. This is because the zero exponent indicates that the base is used zero times in a multiplication, which means you are left with the identity element for multiplication, which is 1.
One fundamental exponent rule is the zero exponent rule. It states that any non-zero number raised to the power of zero equals one. So, no matter how large or small a number is, if you raise it to the power of zero, the result is always 1. This is because the zero exponent indicates that the base is used zero times in a multiplication, which means you are left with the identity element for multiplication, which is 1.
Basic Algebra Concepts
Algebra is a branch of mathematics dealing with symbols and the rules for manipulating those symbols. In algebra, these symbols (often letters) represent numbers and are used to express equations and formulas. The primary goal is to solve for unknowns or to simplify expressions. Understanding the basics like variables, constants, coefficients, and the principles governing the operations on these elements is essential.
In the context of exponents in algebra, it is vital to grasp these rules and properties to manipulate equations effectively. Applying the zero exponent rule, for example, simplifies the algebraic process by reducing the expression \(a^0\) to 1, provided \(a\) is not zero. This simplification is crucial in making complex algebraic expressions more manageable, allowing for easier interpretation and solution of algebra-related problems.
In the context of exponents in algebra, it is vital to grasp these rules and properties to manipulate equations effectively. Applying the zero exponent rule, for example, simplifies the algebraic process by reducing the expression \(a^0\) to 1, provided \(a\) is not zero. This simplification is crucial in making complex algebraic expressions more manageable, allowing for easier interpretation and solution of algebra-related problems.
Simplifying Expressions
Simplifying expressions is one of the core tasks in algebra. It involves reducing a mathematical expression to its simplest form by applying various arithmetic and algebraic rules. When you simplify an expression, you are essentially making it shorter and easier to read or evaluate.
For expressions with exponents, using the rules of exponents like the zero exponent rule is key. The zero exponent rule allows you to simplify expressions immediately when you encounter an exponent of zero, turning a potentially complicated-looking portion of an expression into the number 1. This leads to less cluttered and more straightforward expressions. For example, simplifying \(23^0\) gives you 1, making it easy to handle as you progress in solving algebraic equations. By consistently applying this rule, you ensure that all parts of the expression contribute meaningfully to the solution process.
For expressions with exponents, using the rules of exponents like the zero exponent rule is key. The zero exponent rule allows you to simplify expressions immediately when you encounter an exponent of zero, turning a potentially complicated-looking portion of an expression into the number 1. This leads to less cluttered and more straightforward expressions. For example, simplifying \(23^0\) gives you 1, making it easy to handle as you progress in solving algebraic equations. By consistently applying this rule, you ensure that all parts of the expression contribute meaningfully to the solution process.
Other exercises in this chapter
Problem 64
Mixed Practice Multiply. $$ (x-10)(x+10) $$
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Multiply. \((3 y+4)(y+11)\)
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Write each polynomial in descending powers of the variable and with no missing powers. See Example 15. $$ 8 y+2 y^{4} $$
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Simplify each expression. Write each result using positive exponents only. $$ \frac{\left(x y^{3}\right)^{5}}{(x y)^{-4}} $$
View solution