Problem 17
Question
For the following problems, write each of the quantities using exponential notation. 5 times \(s\) squared
Step-by-Step Solution
Verified Answer
Question: Rewrite the expression "5 times s squared" using exponential notation.
Answer: \(5 \times s^2\)
1Step 1: Identify the expression to rewrite
The given expression is: 5 times s squared.
2Step 2: Rewrite "5 times s squared" as a product
We can rewrite this expression as: \(5 \times s^2\).
3Step 3: Simplify the product using exponential notation
In this case, there is no additional simplification needed, as 5 is already a constant and s squared is written in exponential notation as \(s^2\).
So the final expression in exponential notation is:
\(5 \times s^2\)
Key Concepts
Algebraic ExpressionsExponentsSimplifying Expressions
Algebraic Expressions
An algebraic expression is a mathematical phrase that can contain ordinary numbers, variables (like s in our example), and operators (such as addition, subtraction, multiplication, and division). In algebra, we often use these expressions to describe quantities in a more generalized way. For instance, '5 times s squared' incorporates three key components: the numerical coefficient (5), the variable (s), and the exponent (squared).
Creating an algebraic expression is like crafting a recipe; each ingredient must be combined in a particular order to achieve the desired result. The beauty of these expressions lies in their ability to represent complex relationships within a concise form, much like a mathematical shorthand. By using algebraic expressions, we can model real-world problems and find solutions through manipulation of the expressions' parts.
Creating an algebraic expression is like crafting a recipe; each ingredient must be combined in a particular order to achieve the desired result. The beauty of these expressions lies in their ability to represent complex relationships within a concise form, much like a mathematical shorthand. By using algebraic expressions, we can model real-world problems and find solutions through manipulation of the expressions' parts.
Exponents
Exponents are the 'shorthand' for expressing repeated multiplication of the same factor. Much like how multiplication saves us from having to add the same number repeatedly, exponents allow us further simplicity by condensing repeated multiplication into a small, yet powerful notation. The expression s squared is written as s to the power of 2, or s2, signifying s multiplied by itself.
This form of notation isn't just about saving space - it also provides a clearer understanding of the magnitude of numbers. Large numbers and small fractions alike can be expressed neatly with exponents. Understanding the role of exponents is crucial, as they are fundamental in various fields of math and science, such as calculating areas, volumes, and deciphering the growth patterns of populations or investments.
This form of notation isn't just about saving space - it also provides a clearer understanding of the magnitude of numbers. Large numbers and small fractions alike can be expressed neatly with exponents. Understanding the role of exponents is crucial, as they are fundamental in various fields of math and science, such as calculating areas, volumes, and deciphering the growth patterns of populations or investments.
Simplifying Expressions
Simplifying expressions means rewriting them in the most compact or simplest form without changing their value. This might involve combining like terms, reducing fractions, or applying the properties of exponents. In the example of '5 times s squared', there is no further simplification to be done because it's already in its simplest form. Simplification is an art in itself, one that requires understanding both the rules of algebra and the objectives of the specific problem at hand.
Simplification can also lead to easier computations and a better grasp of the underlying relationships between the elements of the expression. For instance, when working with exponents, knowing that s to the power of 2 is just s multiplied by itself can save time and prevent potential errors when you're dealing with more complicated algebraic expressions.
Simplification can also lead to easier computations and a better grasp of the underlying relationships between the elements of the expression. For instance, when working with exponents, knowing that s to the power of 2 is just s multiplied by itself can save time and prevent potential errors when you're dealing with more complicated algebraic expressions.
Other exercises in this chapter
Problem 17
Find each quotient $$ \frac{26 x^{4} y^{6} z^{2}}{13 x^{2} y^{2} z} $$
View solution Problem 17
Make use of the power rule for quotients, the power rule for products, the power rule for powers, or a combination of these rules to simplify each expression. $
View solution Problem 17
Use the distributive property to rewrite each of the following quantities. $$4(a+y)$$
View solution Problem 17
For the following problems, use the order of operations to find each value. $$(8)(5)+2(14)+(1)$$
View solution