In Problems 21-32, graph the function f by starting with the graph of y = x 2 and using transformations (shifting, compressing, stretching, and/or reflection). Verify your results using a graphing utility. [ Hint: If necessary, write f in the form f ( x ) = a ( x − h ) 2 + k .] f ( x ) = − x 2 − 2 x
In Problems 21-32, graph the function f by starting with the graph of y = x 2 and using transformations (shifting, compressing, stretching, and/or reflection). Verify your results using a graphing utility. [ Hint: If necessary, write f in the form f ( x ) = a ( x − h ) 2 + k .] f ( x ) = − x 2 − 2 x
Solution Summary: The author explains how to graph the given function by transforming the graph of f (x ) = a x 2. The given equation can be written in the standard form by using the square completion technique.
In Problems 21-32, graph the function
by starting with the graph of
and using transformations (shifting, compressing, stretching, and/or reflection). Verify your results using a graphing utility.
[
Hint:
If necessary, write
in the form
.]
Expert Solution & Answer
To determine
To graph: The transformation of the function .
Answer to Problem 27AYU
Explanation of Solution
Given:
We have to graph the function .
Graph:
The graph of the given function is
Interpretation:
The graph of is
Now, we can graph the given function by transforming the above graph.
The given function is .
The general form of a quadratic function is .
Here, if , the graph opens upward otherwise the graph opens downwards.
If is closer to 0, then the graph is shorter and wider.
If is large, then the graph is tall and narrow.
Then, the graph of is the graph of with units shifted horizontally and units shifted vertically.
Here, we can convert the given equation into the standard form by using the square completion technique.
The given equation can also be written as
Therefore, let us now add and subtract the square of half of the in the given equation.
Therefore, we get
Thus, the given equation can be written in the standard form as .
Since, is positive, the graph opens downwards.
In the given function, we have and , therefore, the graph is the graph of opening downwards with 1 units shifted horizontally left and 1 units shifted vertically upwards.
Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, calculus and related others by exploring similar questions and additional content below.
Area Between The Curve Problem No 1 - Applications Of Definite Integration - Diploma Maths II; Author: Ekeeda;https://www.youtube.com/watch?v=q3ZU0GnGaxA;License: Standard YouTube License, CC-BY