Question
Graph the function by using transformations of the graph of
. Plot all necessary asymptotes. For vertical
asymptotes, make sure there are at least two points on each side.
asymptotes, make sure there are at least two points on each side.
Ask by Mckenzie Mcfarlane. in the United States
Mar 22,2025
Upstudy AI Solution
Tutor-Verified Answer
Answer
To graph
, reflect the graph of
across the x-axis. The vertical asymptote is at
and the horizontal asymptote is at
. Plot points like
,
,
, and
, and draw the asymptotes.
Solution
To graph the function
using transformations of the graph of
, we can follow these steps:
-
Identify the basic function: The graph of
has a vertical asymptote at and a horizontal asymptote at . -
Apply transformations:
- The negative sign in front of the function indicates a reflection across the x-axis. Therefore, the graph of
will be a reflection of in the x-axis.
- The negative sign in front of the function indicates a reflection across the x-axis. Therefore, the graph of
-
Determine asymptotes:
- The vertical asymptote remains at
. - The horizontal asymptote also remains at
.
- The vertical asymptote remains at
-
Plot points:
- For
, we can choose a few values of to find corresponding values: - If
, then . - If
, then . - If
, then . - If
, then .
- If
- For
-
Graph the function:
- We will plot the points and draw the asymptotes.
Now, let’s proceed to graph the function
and include the necessary asymptotes.
Function by following steps:
Function by following steps:
- step0: Find the range:
- step1: Evaluate:
Analyze the extrema of the function
Function by following steps: - step0: Find the local extrema:
- step1: Find the domain:
- step2: Find the derivative:
- step3: Find the domain:
- step4: Substitute
- step5: Swap the sides:
- step6: Cross multiply:
- step7: Simplify the equation:
- step8: The statement is false:
- step9: The function has no local extrema:
Analyze the critical points of the function
Function by following steps: - step0: Find the critical numbers:
- step1: Find the domain:
- step2: Find the derivative:
- step3: Find the domain:
- step4: Substitute
- step5: Swap the sides:
- step6: Cross multiply:
- step7: Simplify the equation:
- step8: The statement is false:
- step9: Evaluate:
It seems there was an issue retrieving the graph directly. However, I can summarize the characteristics of the functionbased on transformations and asymptotes:
-
Domain: The function is defined for all real numbers except
. Thus, the domain is . -
Range: The range of the function is also all real numbers except
. Therefore, the range is . -
Asymptotes:
- Vertical Asymptote:
- Horizontal Asymptote:
- Vertical Asymptote:
-
Critical Points and Extrema: There are no critical points or local extrema for this function.
Points to Plot:
Graphing Instructions:
- Plot the points mentioned above.
- Draw the vertical asymptote at
(dashed line). - Draw the horizontal asymptote at
(dashed line). - The graph will approach these asymptotes but never touch them.
If you have graphing software or a graphing calculator, you can input the function
to visualize it. The graph will show two branches: one in the second quadrant and one in the fourth quadrant, reflecting the behavior of the function across the x-axis.
Answered by UpStudy AI and reviewed by a Professional Tutor
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Extra Insights
To graph the function
, we start with the base function
, which has a vertical asymptote at
and a horizontal asymptote at
. The transformation to
involves a reflection across the x-axis due to the negative sign. This means that all points that were above the x-axis now fall below it. Thus, the vertical asymptote remains at
, and the horizontal asymptote stays at
.
Now, to plot the function, choose a few values of
: for
,
; for
,
. On the negative side, for
,
; for
,
. This gives you points to mark:
,
,
, and
. Connect those points gently approaching the asymptotes! Voilà! You’ve transformed and graphed
!
Don’t forget to observe the behavior as
approaches the vertical asymptote. As
approaches
from the left,
heads towards negative infinity, while from the right, it approaches positive infinity. This mirrored behavior around asymptotes creates a distinct “crossing the x-axis” pattern showcasing the transformations in action!