Problem 90
Question
Answer the question with an algebraic expression. If \(n\) represents a whole number, what represents the next larger whole number?
Step-by-Step Solution
Verified Answer
The expression is \(n + 1\).
1Step 1: Understanding the Problem
We need to find an algebraic expression for the immediate whole number that follows a given whole number, represented by the variable \(n\).
2Step 2: Identify the Pattern
For any whole number \(n\), the next whole number is found by adding 1. For example, if \(n = 3\), the next number is 4, which is \(3 + 1\).
3Step 3: Write the Algebraic Expression
To write the next larger whole number in terms of \(n\), simply add 1 to \(n\). The expression is \(n + 1\).
4Step 4: Verify the Expression
Test the expression with a few examples: if \(n = 0\), then \(n + 1 = 1\); if \(n = 5\), then \(n + 1 = 6\). In each case, \(n + 1\) indeed represents the next larger whole number.
Key Concepts
Whole NumbersIncrementing NumbersVariable Manipulation
Whole Numbers
Whole numbers are the most basic and familiar set of numbers that we use in everyday counting. They include all the numbers starting from zero and go on indefinitely: 0, 1, 2, 3, and so forth.
Whole numbers do not include negative numbers or fractions. Understanding whole numbers is crucial because they form the foundation for more complex mathematical concepts. They are used in a variety of situations, such as counting objects, telling the time, or even keeping score in a game. One important point to remember is that whole numbers are always non-negative. This makes them unique compared to other number systems like integers or rational numbers. They're also used to represent quantities that can only be complete; for instance, you cannot have half a whole number of people or books.
Whole numbers do not include negative numbers or fractions. Understanding whole numbers is crucial because they form the foundation for more complex mathematical concepts. They are used in a variety of situations, such as counting objects, telling the time, or even keeping score in a game. One important point to remember is that whole numbers are always non-negative. This makes them unique compared to other number systems like integers or rational numbers. They're also used to represent quantities that can only be complete; for instance, you cannot have half a whole number of people or books.
Incrementing Numbers
Incrementing numbers is an essential concept in math that refers to increasing the value of a number by a certain amount. In algebra, when you're dealing with whole numbers, incrementing typically means adding one to the current number.
This simple operation is crucial because it helps us to explore sequences and patterns involving numbers.When you increment a number, you're essentially moving to the next number in a sequence. If you start with a given number represented by a variable, let's say \( n \), then the next number in this sequence would be \( n + 1 \).
This idea of incrementing by one is particularly useful in understanding how to construct algebraic expressions to solve problems, like determining the next whole number in a sequence.
This simple operation is crucial because it helps us to explore sequences and patterns involving numbers.When you increment a number, you're essentially moving to the next number in a sequence. If you start with a given number represented by a variable, let's say \( n \), then the next number in this sequence would be \( n + 1 \).
This idea of incrementing by one is particularly useful in understanding how to construct algebraic expressions to solve problems, like determining the next whole number in a sequence.
Variable Manipulation
Variable manipulation in algebra involves manipulating symbols that represent numbers, usually by performing operations like addition or subtraction. These symbols, known as variables, allow us to create general expressions that are applicable to a wide range of problems.In many cases, a variable is represented by a letter such as \( n \) and can stand for any number. This makes variables incredibly versatile in problem-solving.
In the exercise given, the variable \( n \) is used to represent a whole number and is manipulated by adding 1 to it. This is a basic form of variable manipulation illustrating how you can express dynamic changes in value.By understanding how to manipulate variables, you gain the ability to construct meaningful mathematical expressions that are not only concise but also powerful in solving algebraic equations and modeling real-world scenarios.
In the exercise given, the variable \( n \) is used to represent a whole number and is manipulated by adding 1 to it. This is a basic form of variable manipulation illustrating how you can express dynamic changes in value.By understanding how to manipulate variables, you gain the ability to construct meaningful mathematical expressions that are not only concise but also powerful in solving algebraic equations and modeling real-world scenarios.
Other exercises in this chapter
Problem 89
Answer the question with an algebraic expression. Tina has \(c\) cents, which is all in quarters. How many quarters does she have?
View solution Problem 89
Simplify each numerical expression. $$3\left(\frac{1}{2}\right)+4\left(\frac{2}{3}\right)-2\left(\frac{5}{6}\right)$$
View solution Problem 90
Simplify each numerical expression. $$2\left(\frac{3}{8}\right)-5\left(\frac{1}{2}\right)+6\left(\frac{3}{4}\right)$$
View solution Problem 91
Answer the question with an algebraic expression. If \(n\) represents an odd integer, what represents the next larger odd integer?
View solution