Consider the function f(x)=2sin(π2(x−3))+4. State the amplitude A, period P, and midline. State the phase shift and vertical translation. In the full period [0, P], state the maximum and minimum y-values and their corresponding x-values. Hints for the maximum and minimum values of f(x): The maximum value of y=sin(x) is y=1 and the corresponding x values are x=π2 and multiples of 2π less than and more than this x value. You may want to solve π2(x−3)=π2. The minimum value of y=sin(x) is y=−1 and the corresponding x values are x=3π2 and multiples of 2π less than and more than this x value. You may want to solve π2(x−3)=3π2. If you get a value for x that is less than 0, you could add multiples of P to get into the next cycles. If you get a value for x that is more than P, you could subtract multiples of P to get into the previous cycles. For x in the interval [0, P], the maximum y-value and corresponding x-value is at: x= y= For x in the interval [0, P], the minimum y-value and corresponding x-value is at: x= y=
Consider the function f(x)=2sin(π2(x−3))+4. State the amplitude A, period P, and midline. State the phase shift and vertical translation. In the full period [0, P], state the maximum and minimum y-values and their corresponding x-values. Hints for the maximum and minimum values of f(x): The maximum value of y=sin(x) is y=1 and the corresponding x values are x=π2 and multiples of 2π less than and more than this x value. You may want to solve π2(x−3)=π2. The minimum value of y=sin(x) is y=−1 and the corresponding x values are x=3π2 and multiples of 2π less than and more than this x value. You may want to solve π2(x−3)=3π2. If you get a value for x that is less than 0, you could add multiples of P to get into the next cycles. If you get a value for x that is more than P, you could subtract multiples of P to get into the previous cycles. For x in the interval [0, P], the maximum y-value and corresponding x-value is at: x= y= For x in the interval [0, P], the minimum y-value and corresponding x-value is at: x= y=
Advanced Engineering Mathematics
10th Edition
ISBN:9780470458365
Author:Erwin Kreyszig
Publisher:Erwin Kreyszig
Chapter2: Second-order Linear Odes
Section: Chapter Questions
Problem 1RQ
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Consider the function f(x)=2sin(π2(x−3))+4. State the amplitude A, period P, and midline. State the phase shift and vertical translation. In the full period [0, P], state the maximum and minimum y-values and their corresponding x-values.
Hints for the maximum and minimum values of f(x):
- The maximum value of y=sin(x) is y=1 and the corresponding x values are x=π2 and multiples of 2π less than and more than this x value. You may want to solve π2(x−3)=π2.
- The minimum value of y=sin(x) is y=−1 and the corresponding x values are x=3π2 and multiples of 2π less than and more than this x value. You may want to solve π2(x−3)=3π2.
- If you get a value for x that is less than 0, you could add multiples of P to get into the next cycles.
- If you get a value for x that is more than P, you could subtract multiples of P to get into the previous cycles.
For x in the interval [0, P], the maximum y-value and corresponding x-value is at:
x=
y=
For x in the interval [0, P], the minimum y-value and corresponding x-value is at:
x=
y=
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