Problem 6
Question
Determine the value of each expression. \(0^{3}\)
Step-by-Step Solution
Verified Answer
The value of the expression is 0.
1Step 1: Recognize the Base and Exponent
In the expression given, the base is 0 and the exponent is 3. This means we have the expression \(0^3\).
2Step 2: Understand the Meaning of Exponents
An exponent indicates how many times the base is multiplied by itself. For \(a^n\), it means \(a\) is multiplied by itself \(n\) times. Therefore, \(0^3 = 0 \times 0 \times 0\).
3Step 3: Calculate the Expression
Now, calculate the expression by multiplying 0 by itself 3 times: \(0 \times 0 = 0\) and then \(0 \times 0 = 0\). The result is 0.
Key Concepts
Base and ExponentMultiplicationZero Exponentiation
Base and Exponent
Every expression with an exponent involves a base and an exponent. The **base** is the number that is being multiplied. In the expression \(0^3\), the base is 0. The **exponent** tells you how many times you multiply the base by itself. Here, the exponent is 3.
Using an exponent is like telling someone how many times to "repeat" the base in a multiplication string. For example, \(2^4\) means you multiply 2 by itself four times: \(2 \times 2 \times 2 \times 2\). This makes working with large numbers much simpler. Understanding this can help break down and simplify calculations.
To sum up, in any expression like \(a^n\):
Using an exponent is like telling someone how many times to "repeat" the base in a multiplication string. For example, \(2^4\) means you multiply 2 by itself four times: \(2 \times 2 \times 2 \times 2\). This makes working with large numbers much simpler. Understanding this can help break down and simplify calculations.
To sum up, in any expression like \(a^n\):
- "a" is the base.
- "n" is the exponent (how many times "a" is used in multiplication).
Multiplication
Now, let's recall some basics of **multiplication**, our second core concept. Multiplication is just repeated addition of the same number. When we say \(5 \times 3\), it really means adding 5 three times (\(5 + 5 + 5\)).
With exponents, multiplication involves the base being multiplied repeatedly. In our example, for \(0^3\), it means taking 0 and multiplying it by itself three times. Here's how it plays out:
This shows that multiplying zero with itself or any other number will always result in zero which is a key characteristic of the number zero.
With exponents, multiplication involves the base being multiplied repeatedly. In our example, for \(0^3\), it means taking 0 and multiplying it by itself three times. Here's how it plays out:
- Multiply 0 by 0: \(0 \times 0 = 0\)
- Then multiply that result by 0 again: \(0 \times 0 = 0\)
- So, the total operation \(0^3\) becomes 0.
This shows that multiplying zero with itself or any other number will always result in zero which is a key characteristic of the number zero.
Zero Exponentiation
**Zero exponentiation** can sometimes be confusing, but it plays an important role in mathematics. In cases where the base is not zero, such as \(a^0\) where \(a eq 0\), it means that any non-zero number raised to the power of zero equals one, like \(7^0 = 1\).
However, zero exponentiation involving a base of zero, like our example \(0^3\), means something different. Here, zero is multiplied by itself multiple times, and since zero times any number is always zero, the result is also zero. This is straightforward because no matter how many times you multiply zero, the result remains zero.
This principle underlines the simplicity but also the unique nature of zero in multiplication and exponentiation, making zero a special number in mathematics. Remember:
However, zero exponentiation involving a base of zero, like our example \(0^3\), means something different. Here, zero is multiplied by itself multiple times, and since zero times any number is always zero, the result is also zero. This is straightforward because no matter how many times you multiply zero, the result remains zero.
This principle underlines the simplicity but also the unique nature of zero in multiplication and exponentiation, making zero a special number in mathematics. Remember:
- Zero to any positive power is always zero: \(0^n = 0\) for \(n > 0\).
Other exercises in this chapter
Problem 5
Determine the value of each of the following. $$(33 \div 3)-11$$
View solution Problem 5
Write each number without exponents. \(4^{7}\)
View solution Problem 6
Find the first five common multiples of the following numbers. 2 and 4
View solution Problem 6
Find the greatest common factor (GCF) of the numbers. 6 and 8
View solution