Problem 58
Question
For the following problems, use the distributive property to expand the quantities. $$(1+d) e$$
Step-by-Step Solution
Verified Answer
Question: Expand the expression \((1 + d)e\) using the distributive property.
Answer: \(e + ed\)
1Step 1: Identify the terms
Let's identify the terms in the expression \((1+d)e\).
Here, the real number \(e\) is being multiplied by the quantity inside the parentheses, which consists of \(1\) and \(d\). So, we have:
- \(a = e\)
- \(b = 1\)
- \(c = d\)
Now, we need to apply the distributive property to these terms.
2Step 2: Apply the distributive property
According to the distributive property, \(a(b+c) = ab + ac\). So, we will multiply \(e\) by each term inside the parentheses and add the results:
$$e(1+d) = e\cdot 1 + e \cdot d$$
3Step 3: Simplify the expression
Now, we will simplify the expression. Since \(e \cdot 1 = e\), the simplified expression is:
$$e(1+d) = e + ed$$
The expanded quantity using the distributive property is \(e + ed\).
Key Concepts
Algebraic ExpressionsExpanding ExpressionsSimplifying ExpressionsElementary Algebra
Algebraic Expressions
Understanding algebraic expressions is crucial in the study of algebra. These expressions are combinations of numbers, variables (like \(d\) and \(e\) in our exercise), and arithmetic operations such as addition, subtraction, multiplication, and division. In the context of our exercise \((1+d)e\), the expression consists of a variable \(d\), a constant \(1\), and a multiplication operation involving the variable \(e\). The key to working with algebraic expressions is recognizing the parts and knowing the rules that govern how these parts can interact or be transformed.
For instance, when we multiply \(e\) by the quantity inside the parentheses, we're combining the constant and variable to form a new expression. Keeping track of each part ensures we apply the correct algebraic principles, like the distributive property, to expand and simplify the expressions accurately.
For instance, when we multiply \(e\) by the quantity inside the parentheses, we're combining the constant and variable to form a new expression. Keeping track of each part ensures we apply the correct algebraic principles, like the distributive property, to expand and simplify the expressions accurately.
Expanding Expressions
Expanding expressions involves rewriting an algebraic expression in an equivalent form where all possible multiplication has been carried out. The distributive property is often used in this process. It allows us to remove parentheses by distributing a single term over a sum or difference inside the parentheses, as seen in the step-by-step solution for the expression \((1+d)e\).
By doing so, it becomes easier to combine like terms or further manipulate the expression for solving equations or inequalities. Expanding expressions is a fundamental skill in algebra, as it sets the stage for understanding more complex operations and solving various types of algebraic problems.
By doing so, it becomes easier to combine like terms or further manipulate the expression for solving equations or inequalities. Expanding expressions is a fundamental skill in algebra, as it sets the stage for understanding more complex operations and solving various types of algebraic problems.
Simplifying Expressions
Once an expression has been expanded, the next step in the process is typically to simplify it. Simplifying an algebraic expression means to rewrite it in its most basic or compact form, combining like terms and reducing coefficients as much as possible. In our exercise, after expanding \((1+d)e\) to \(e + ed\), no further simplification is necessary because there are no like terms to combine or coefficients to reduce. However, in more complex expressions, simplification could involve combining several terms, factoring, or even canceling terms to achieve the simplest form possible.
To simplify effectively, knowledge of the order of operations is vital, as it guides us on which steps to take first when reducing an expression.
To simplify effectively, knowledge of the order of operations is vital, as it guides us on which steps to take first when reducing an expression.
Elementary Algebra
Elementary algebra encompasses the basic concepts of algebra, including understanding and manipulating algebraic expressions using foundational properties such as the distributive property. It's these principles that form the basis of algebra and allow us to solve equations, work with inequalities, and analyze functions.
Through exercises like the one presented, \((1+d)e\), students learn to apply these rules systematically, developing an intuition for how algebraic expressions can be transformed and simplified. This foundational knowledge is imperative as it paves the way for tackling more sophisticated mathematical concepts and problems in the future.
Through exercises like the one presented, \((1+d)e\), students learn to apply these rules systematically, developing an intuition for how algebraic expressions can be transformed and simplified. This foundational knowledge is imperative as it paves the way for tackling more sophisticated mathematical concepts and problems in the future.
Other exercises in this chapter
Problem 58
Use the power rules for exponents to simplify the following problems. Assume that all bases are nonzero and that all variable exponents are natural numbers. $$
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Find the value of \(6+3(15-8)-4\).
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Determine whether the statements for the following problems are true or false. $$2[6(1+4)-8]>3(11+6)$$
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