Problem 25
Question
Identify the rule(s) of algebra illustrated by the statement.\(-15+15=0\)
Step-by-Step Solution
Verified Answer
The algebraic rule illustrated by the equation \(-15+15=0\) is the Additive inverse rule.
1Step 1: Recognize the Type of Numbers in the Equation
In the equation, both the numbers are integers and they are additive inverses of each other. An additive inverse is defined as the number that when added to the original number results in zero.
2Step 2: Apply the Algebraic Rule
The given equation proves the Additive inverse rule. The additive inverse rule states that any number plus its opposite equals zero. In this case, \(-15\) is the opposite of \(15\), and when they are added together, they equal zero.
3Step 3: State the Rule Illustrated
So the algebra rule illustrated by the given statement \(-15+15=0\) is the Additive Inverse Rule.
Key Concepts
Algebraic RulesIntegersAdditive InverseEquations
Algebraic Rules
Algebraic rules form the foundation of algebra, which is a branch of mathematics that deals with symbols and the rules for manipulating these symbols. These symbols represent numbers and quantities in formulae and equations. One fundamental rule that we often encounter is the Additive Inverse Rule.
This rule is a simple yet powerful concept that helps to simplify complex equations by eliminating terms to isolate variables. In essence, it allows us to balance equations and solve for unknowns. To understand this rule in the context of algebra, it's crucial to comprehend how numbers interact within equations, which brings us to the concept of integers and their properties.
This rule is a simple yet powerful concept that helps to simplify complex equations by eliminating terms to isolate variables. In essence, it allows us to balance equations and solve for unknowns. To understand this rule in the context of algebra, it's crucial to comprehend how numbers interact within equations, which brings us to the concept of integers and their properties.
Integers
Integers are a set of numbers that include all whole numbers and their negatives. It does not include fractions or decimals. Integers are crucial in everyday mathematics and fall on a number line infinitely in both directions. They can be positive, negative, or zero.
Understanding integers is essential in algebra because they are the backbone of many algebraic structures. When working with equations, it's important to note how these whole numbers behave under different operations like addition, subtraction, multiplication, and division. Their predictable behavior under these operations makes solving algebraic equations more systematic.
Understanding integers is essential in algebra because they are the backbone of many algebraic structures. When working with equations, it's important to note how these whole numbers behave under different operations like addition, subtraction, multiplication, and division. Their predictable behavior under these operations makes solving algebraic equations more systematic.
Additive Inverse
An additive inverse is a number that when added to a given number yields zero. This is a key concept in algebra that is used to solve equations. For any integer 'a', the additive inverse is '-a', and vice versa. Thus, the formula defining this relationship is: \( a + (-a) = 0 \).
In the context of our exercise \( -15+15=0 \) both -15 and 15 are additive inverses of each other. When dealing with equations, the additive inverse is used to eliminate terms, allowing us to isolate and solve for the desired variable. It is this principle that often simplifies the process of balancing equations.
In the context of our exercise \( -15+15=0 \) both -15 and 15 are additive inverses of each other. When dealing with equations, the additive inverse is used to eliminate terms, allowing us to isolate and solve for the desired variable. It is this principle that often simplifies the process of balancing equations.
Equations
Equations are statements that assert the equality of two expressions. They are composed of two sides separated by an equal sign, such as \( a + b = c \). In algebra, equations are solved to find the value(s) of the unknown variable(s).
The solution process involves applying algebraic rules, like the additive inverse, to simplify the equation and isolate the variable. It's akin to a balance scale where both sides must remain equal as we perform operations. As seen in the exercise \( -15+15=0 \), equations can be simple, yet they illustrate fundamental principles crucial for understanding more complex algebraic concepts. By mastering basic equations and their underlying rules, students build a strong foundation in algebra.
The solution process involves applying algebraic rules, like the additive inverse, to simplify the equation and isolate the variable. It's akin to a balance scale where both sides must remain equal as we perform operations. As seen in the exercise \( -15+15=0 \), equations can be simple, yet they illustrate fundamental principles crucial for understanding more complex algebraic concepts. By mastering basic equations and their underlying rules, students build a strong foundation in algebra.
Other exercises in this chapter
Problem 25
Factor the trinomial.\(x^{2}+x-2\)
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Simplify the expression.\((-5 z)^{3}\)
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Write the rational expression in simplest form.\(\frac{x^{2}-25}{5-x}\)
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Perform the indicated operation(s) and write the resulting polynomial in standard form.\(-4 x\left(3-x^{3}\right)\)
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