Problem 25
Question
If there are 360 degrees per revolution, how many degrees are there in 4.863 revolutions?
Step-by-Step Solution
Verified Answer
There are \(4.863 \times 360 = 1750.68\) degrees in 4.863 revolutions.
1Step 1: Understand the Relationship Between Revolutions and Degrees
There are 360 degrees in one full revolution. This means that the number of degrees 'd' in a certain number of revolutions 'r' can be found by multiplying the number of revolutions by 360.
2Step 2: Calculate the Degrees in 4.863 Revolutions
To find the number of degrees in 4.863 revolutions, multiply 4.863 by 360 degrees. This is calculated as follows: \(d = r \times 360\) Where 'r' is the number of revolutions. In this case, \(d = 4.863 \times 360\).
Key Concepts
Angular MeasurementUnit ConversionMathematical RelationshipsProblem-Solving in Mathematics
Angular Measurement
Angular measurement is a fundamental concept in various fields, including mathematics, physics, engineering, and navigation. It refers to the measurement of the size of an angle or the amount of rotation an object makes around a central point. The most common unit of angular measurement is the degree. A full rotation around a circle amounts to 360 degrees.
To understand angular measurements, it's crucial to visualize a circle. Imagine a pizza is sliced into 360 equal pieces; the angle from the center of the pizza to the edge on one piece represents one degree. Just as the pizza can be split into various portions, rotations can be broken down into smaller units, known as degrees, to quantify the extent of turn or rotation of an object.
To understand angular measurements, it's crucial to visualize a circle. Imagine a pizza is sliced into 360 equal pieces; the angle from the center of the pizza to the edge on one piece represents one degree. Just as the pizza can be split into various portions, rotations can be broken down into smaller units, known as degrees, to quantify the extent of turn or rotation of an object.
Unit Conversion
Unit conversion is the process of converting a measurement from one unit to another. In mathematics and science, it's often necessary to convert measurements to perform calculations effectively or to communicate findings in a standardized form. For example, converting centimeters to inches or kilograms to pounds requires an understanding of the conversion factors between the two units.
When dealing with angular measurements, it's common to convert between degrees and revolutions, or to other units such as radians. Since 1 revolution equals 360 degrees, if you know the number of revolutions, you can find degrees by multiplying by 360. It's a simple but essential mathematical operation to comprehend when working with rotational movements or angles.
When dealing with angular measurements, it's common to convert between degrees and revolutions, or to other units such as radians. Since 1 revolution equals 360 degrees, if you know the number of revolutions, you can find degrees by multiplying by 360. It's a simple but essential mathematical operation to comprehend when working with rotational movements or angles.
Mathematical Relationships
Mathematical relationships express the correlation between two or more quantities or values. Understanding these relationships is key to solving mathematical problems because it allows us to create equations that can describe how quantities interact with each other.
In the exercise on revolutions and degrees, the relationship is direct and proportional: as the number of revolutions increases, the number of degrees increases at a constant rate. Specifically, the relationship is dictated by the equation \(d = r \times 360\), which shows that the degree measure (\
In the exercise on revolutions and degrees, the relationship is direct and proportional: as the number of revolutions increases, the number of degrees increases at a constant rate. Specifically, the relationship is dictated by the equation \(d = r \times 360\), which shows that the degree measure (\
Problem-Solving in Mathematics
Problem-solving in mathematics is about understanding a problem, devising a plan to solve it, carrying out the plan, and then checking the results for accuracy. It involves a series of systematic steps that help uncover the solution to a given problem.
In the context of the revolutions and degrees problem, it begins by comprehending the relationship between degrees and revolutions. The plan involves the implementation of a unit conversion as the problem-solving strategy. It's executed by multiplying the given number of revolutions by the fixed number of degrees per revolution. Finally, checking the work includes verifying the multiplication for accuracy and ensuring the final units (degrees) are correct.
In the context of the revolutions and degrees problem, it begins by comprehending the relationship between degrees and revolutions. The plan involves the implementation of a unit conversion as the problem-solving strategy. It's executed by multiplying the given number of revolutions by the fixed number of degrees per revolution. Finally, checking the work includes verifying the multiplication for accuracy and ensuring the final units (degrees) are correct.
Other exercises in this chapter
Problem 25
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