The Function F ( X F(x F ( X ] Is To Be Graphed On A Coordinate Plane:${ F(x) = \begin{cases} -x, & X \ \textless \ 0 \ 1, & X \geq 0 \end{cases} }$At What Point Should An Open Circle Be Drawn?A. ( − 1 , 0 (-1,0 ( − 1 , 0 ]B. ( 0 , 0 (0,0 ( 0 , 0 ]C.
Introduction
In this article, we will delve into the world of mathematical functions and explore the graphical representation of the function . The function is defined as a piecewise function, with two different rules for and . Our goal is to determine the point at which an open circle should be drawn on the coordinate plane.
The Piecewise Function
The function is defined as:
This means that for any value of less than 0, the function will take on the value of . On the other hand, for any value of greater than or equal to 0, the function will take on the value of 1.
Graphing the Function
To graph the function , we need to consider two cases: and .
Case 1:
For , the function takes on the value of . This means that as decreases, the value of will increase. We can graph this by plotting a line with a negative slope.
Case 2:
For , the function takes on the value of 1. This means that for all values of greater than or equal to 0, the function will be constant at 1. We can graph this by plotting a horizontal line at .
Determining the Point for an Open Circle
Now that we have graphed the function , we need to determine the point at which an open circle should be drawn. An open circle is used to indicate a point that is not included in the graph.
Looking at the graph, we can see that there is a discontinuity at . This means that the function is not defined at . Therefore, an open circle should be drawn at the point .
Conclusion
In conclusion, the function is a piecewise function that is defined differently for and . We have graphed the function and determined that an open circle should be drawn at the point .
Answer
The correct answer is:
- B.
This is because the function is not defined at , and an open circle should be drawn at the point .
Discussion
The function is a classic example of a piecewise function. It is defined differently for and , and it has a discontinuity at . This makes it a great example for illustrating the concept of piecewise functions and discontinuities.
Additional Examples
Here are a few additional examples of piecewise functions:
These functions can be graphed and analyzed in a similar way to the function .
Conclusion
Introduction
In our previous article, we explored the graphical representation of the function . The function is defined as a piecewise function, with two different rules for and . We determined that an open circle should be drawn at the point . In this article, we will answer some frequently asked questions about the function .
Q&A
Q: What is the domain of the function ?
A: The domain of the function is all real numbers, except for . This is because the function is not defined at .
Q: What is the range of the function ?
A: The range of the function is all real numbers, except for . This is because the function takes on the value of for , and the value of 1 for .
Q: Is the function continuous?
A: No, the function is not continuous. It has a discontinuity at .
Q: What is the value of the function at ?
A: The value of the function at is . This is because , so the function takes on the value of , which is .
Q: What is the value of the function at ?
A: The value of the function at is . This is because , so the function takes on the value of 1.
Q: Can we simplify the function ?
A: Yes, we can simplify the function by writing it as:
This is because the two cases are mutually exclusive, and the function takes on the value of for , and the value of 1 for .
Conclusion
In conclusion, the function is a piecewise function that is defined differently for and . We have answered some frequently asked questions about the function , and we have simplified the function by writing it as:
This is a classic example of a piecewise function and discontinuity, and it is a great example for illustrating these concepts.
Additional Resources
Conclusion
In conclusion, the function is a piecewise function that is defined differently for and . We have answered some frequently asked questions about the function , and we have simplified the function by writing it as:
This is a classic example of a piecewise function and discontinuity, and it is a great example for illustrating these concepts.