Problem 334
Question
In the following exercises, simplify. $$ 100(0.01 p) $$
Step-by-Step Solution
Verified Answer
\( p \)
1Step 1 - Understand the Problem
The expression to simplify is given as \( 100(0.01p) \). The task is to simplify the expression.
2Step 2 - Identify the Multiplication
Identify that \( 100 \) needs to be multiplied by \( 0.01p \). This can be done by treating \( 0.01p \) as a product where \( 0.01 \) and \( p \) are multiplied together.
3Step 3 - Multiply Constants
First, multiply the constants: \( 100 \) and \( 0.01 \). The multiplication yields: \[ 100 \times 0.01 = 1 \]
4Step 4 - Simplify the Expression
After multiplying the constants, incorporate the variable \( p \). The expression becomes: \[ 1 \times p = p \]
Key Concepts
Multiplication of ConstantsVariable MultiplicationAlgebraic Simplification
Multiplication of Constants
When simplifying algebraic expressions, one of the first steps is to handle the multiplication of constants.
Constants are numbers on their own, without any variables attached.
In our example, we start with the constants 100 and 0.01.
To multiply these two constants, we simply perform the arithmetic calculation:
100 multiplied by 0.01 equals 1, which is shown mathematically as: \( 100 \times 0.01 = 1 \)
Once the constants are multiplied, we can move on to the next part of the expression.
Constants are numbers on their own, without any variables attached.
In our example, we start with the constants 100 and 0.01.
To multiply these two constants, we simply perform the arithmetic calculation:
100 multiplied by 0.01 equals 1, which is shown mathematically as: \( 100 \times 0.01 = 1 \)
Once the constants are multiplied, we can move on to the next part of the expression.
Variable Multiplication
After handling the constants, the next step is to incorporate any variables involved.
Variables are symbols that represent unknown values, typically letters like \( x \), \( y \), or in our case, \( p \).
In our example, we are multiplying 0.01 by \( p \)::
0.01 is already included in our earlier step as part of the constant multiplication. So, we just need to attach \( p \) to our result.
After the constants are handled, we simply multiply the result by the variable:
\( 1 \times p \)
The multiplication of a constant with a variable is straightforward: We keep the variable as it is and place it next to the resulting constant.
Variables are symbols that represent unknown values, typically letters like \( x \), \( y \), or in our case, \( p \).
In our example, we are multiplying 0.01 by \( p \)::
0.01 is already included in our earlier step as part of the constant multiplication. So, we just need to attach \( p \) to our result.
After the constants are handled, we simply multiply the result by the variable:
\( 1 \times p \)
The multiplication of a constant with a variable is straightforward: We keep the variable as it is and place it next to the resulting constant.
Algebraic Simplification
The final step is the algebraic simplification.
Algebraic simplification involves condensing the expression to its simplest form.
In the earlier steps, we found that 100 multiplied by 0.01 gives us 1, and we multiplied that result by the variable \( p \).
This results in the simplified expression: \( 1p \), which is typically written as just \( p \).
Remember, in algebra, when a variable is multiplied by 1, we can omit the 1 for simplicity.
Thus, \( 100(0.01p) \) simplifies neatly to \( p \).
By following steps of multiplying constants, managing variable multiplication, and finally simplifying algebraically, we attain the simplest form of the given expression.
Algebraic simplification involves condensing the expression to its simplest form.
In the earlier steps, we found that 100 multiplied by 0.01 gives us 1, and we multiplied that result by the variable \( p \).
This results in the simplified expression: \( 1p \), which is typically written as just \( p \).
Remember, in algebra, when a variable is multiplied by 1, we can omit the 1 for simplicity.
Thus, \( 100(0.01p) \) simplifies neatly to \( p \).
By following steps of multiplying constants, managing variable multiplication, and finally simplifying algebraically, we attain the simplest form of the given expression.
Other exercises in this chapter
Problem 332
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