Problem 13
Question
Simplify \(a^{3} b^{2} c \times a b^{3} c^{5}\)
Step-by-Step Solution
Verified Answer
The simplified expression is \(a^4 b^5 c^6\).
1Step 1: Identify Like Terms
In the expression \(a^3 b^2 c \times a b^3 c^5\), identify the like terms. We can see there are common base variables: \(a\), \(b\), and \(c\).
2Step 2: Apply the Product Rule for Exponents
The product rule states that when multiplying like bases, you add the exponents. Apply this to each variable: \(a^{3+1} = a^4\), \(b^{2+3} = b^5\), and \(c^{1+5} = c^6\).
3Step 3: Write the Simplified Expression
Combine the results from the previous step to write the expression: \(a^4 b^5 c^6\).
Key Concepts
ExponentsProduct RuleLike Terms
Exponents
Exponents represent repeated multiplication of a base number. For example, in the term \(a^3\), \(a\) is the base and 3 is the exponent, indicating that \(a\) is multiplied by itself three times: \(a \times a \times a\). Exponents make it easier to work with large numbers and simplify expressions.
When working with exponents, it's important to remember:
When working with exponents, it's important to remember:
- "Power" refers to the exponent.
- The "base" is the number multiplied by itself.
- Raising a number to an exponent of 0 always results in 1, regardless of the base (except if the base is 0).
- Multiplying exponents with the same base follows specific rules such as the product rule.
Product Rule
The product rule for exponents is a fundamental rule in algebra. It simplifies the multiplication of terms that have the same base by adding their exponents.
Here's how it works:
Here's how it works:
- When multiplying terms like \(a^m\) and \(a^n\), the exponents are added: \(a^{m+n}\).
- This rule applies to each variable or number with the same base.
- For \(a\): \(a^{3+1} = a^4\)
- For \(b\): \(b^{2+3} = b^5\)
- For \(c\): \(c^{1+5} = c^6\)
Like Terms
"Like terms" are terms in an algebraic expression that have identical variable parts, even if their coefficients differ. Recognizing like terms is vital as it allows you to combine and simplify expressions efficiently.
For example:
Identifying like terms is crucial for simplifying expressions and making them more manageable. It can drastically reduce the complexity of solving algebraic problems and ensure you achieve the simplest form possible.
For example:
- In the expression \(3a + 2a\), both terms have the variable \(a\) making them like terms, and they can be combined: \(5a\).
- "Like" does not mean identical; \(4b^2\) and \(7b^2\) are like terms because they share the same variable part \(b^2\).
Identifying like terms is crucial for simplifying expressions and making them more manageable. It can drastically reduce the complexity of solving algebraic problems and ensure you achieve the simplest form possible.
Other exercises in this chapter
Problem 11
Simplify \(\frac{x^{3}+y^{3}}{x+y}\)
View solution Problem 12
Divide \(4 a^{3}-6 a^{2} b+5 b^{3}\) by \(2 a-b\)
View solution Problem 14
Simplify \(a^{1 / 2} b^{2} c^{-2} \times a^{1 / 6} b^{1 / 2} c\)
View solution Problem 15
Simplify \(\frac{a^{3} b^{2} c^{4}}{a b c^{-2}}\) and evaluate when \(a=3\), \(b=\frac{1}{8}\) and \(c=2\)
View solution