Part D dy Use the results from Parts B and C in the product rule of differentiation to find a simplified expression for the vertical velocity of the car, vy(t) = dt ► View Available Hint(s) vy(t) = Submit dy dt Part E yoe-at (cos(wt) + aw cos(wt)) -ayo²e-2at-w cos(wt) sin(wt) -yoeat (a cos(wt) + w sin(wt)) awy²e-2at cos(wt) sin(wt) Correct In this example we used both the chain and product rules of differentiation to obtain an expression for the (vertical) velocity-time relationship for the car from its position-time relationship. Previous Answers vy(0.25 s) = Evaluate the numerical value of the vertical velocity of the car at time t = 0.25 s using the expression from Part D, where yo = 0.75 m, a = 0.95 1/s, and w = 6.3 rad/s. ► View Available Hint(s) μÀ Value Units ?
Part D dy Use the results from Parts B and C in the product rule of differentiation to find a simplified expression for the vertical velocity of the car, vy(t) = dt ► View Available Hint(s) vy(t) = Submit dy dt Part E yoe-at (cos(wt) + aw cos(wt)) -ayo²e-2at-w cos(wt) sin(wt) -yoeat (a cos(wt) + w sin(wt)) awy²e-2at cos(wt) sin(wt) Correct In this example we used both the chain and product rules of differentiation to obtain an expression for the (vertical) velocity-time relationship for the car from its position-time relationship. Previous Answers vy(0.25 s) = Evaluate the numerical value of the vertical velocity of the car at time t = 0.25 s using the expression from Part D, where yo = 0.75 m, a = 0.95 1/s, and w = 6.3 rad/s. ► View Available Hint(s) μÀ Value Units ?
College Physics
11th Edition
ISBN:9781305952300
Author:Raymond A. Serway, Chris Vuille
Publisher:Raymond A. Serway, Chris Vuille
Chapter1: Units, Trigonometry. And Vectors
Section: Chapter Questions
Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...
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Question
![Part D
dy
Use the results from Parts B and C in the product rule of differentiation to find a simplified expression for the vertical velocity of the car, vy(t): dt
► View Available Hint(s)
vy(t)
=
Submit
Part E
dy
dt
-at (cos(wt) + aw cos(wt))
w cos(wt) sin(wt)
-yoe-at (a cos(wt) + w sin(wt))
awy²e-2 cos(wt) sin(wt)
Yoe
-ayo²e-2at
Previous Answers
-2at
Correct
In this example we used both the chain and product rules of differentiation to obtain an expression for the (vertical) velocity-time relationship for the car from its position-time relationship.
Evaluate the numerical value of the vertical velocity of the car at time t
-
= 0.25 s using the expression from Part D, where yo = 0.75 m, a = 0.95 1/s, and w = 6.3 rad/s.
► View Available Hint(s)
μÀ
Vy(0.25 s) = Value
Units
?](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F160e110e-0605-48f5-87d6-7df540ee4abb%2F42d4f962-1d6f-43e2-bacc-b5a6313008d0%2Fvjmldf_processed.png&w=3840&q=75)
Transcribed Image Text:Part D
dy
Use the results from Parts B and C in the product rule of differentiation to find a simplified expression for the vertical velocity of the car, vy(t): dt
► View Available Hint(s)
vy(t)
=
Submit
Part E
dy
dt
-at (cos(wt) + aw cos(wt))
w cos(wt) sin(wt)
-yoe-at (a cos(wt) + w sin(wt))
awy²e-2 cos(wt) sin(wt)
Yoe
-ayo²e-2at
Previous Answers
-2at
Correct
In this example we used both the chain and product rules of differentiation to obtain an expression for the (vertical) velocity-time relationship for the car from its position-time relationship.
Evaluate the numerical value of the vertical velocity of the car at time t
-
= 0.25 s using the expression from Part D, where yo = 0.75 m, a = 0.95 1/s, and w = 6.3 rad/s.
► View Available Hint(s)
μÀ
Vy(0.25 s) = Value
Units
?
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Follow-up Question
![An engineer is considering possible trajectories to use for emergency descent of a lunar module from low moon orbit to the lunar surface and decides to investigate one for which the vertical component of velocity as a function of time is described by vy(t) = voe
0.49 km/s, to = 390 s, and σ = 65 s.
U0 =
Part F
For this trajectory, what would the vertical component of acceleration for the module be at time tm = too = 325 s? Recall that acceleration is the derivative of velocity with respect to time.
► View Available Hint(s)
0
O
μÃ
dây (325 s) = Value
dt
Units
?
(t-to)²
202 where](https://content.bartleby.com/qna-images/question/160e110e-0605-48f5-87d6-7df540ee4abb/0f6448c5-3797-402e-bd79-88f8d61eebb5/yh57d3_thumbnail.png)
Transcribed Image Text:An engineer is considering possible trajectories to use for emergency descent of a lunar module from low moon orbit to the lunar surface and decides to investigate one for which the vertical component of velocity as a function of time is described by vy(t) = voe
0.49 km/s, to = 390 s, and σ = 65 s.
U0 =
Part F
For this trajectory, what would the vertical component of acceleration for the module be at time tm = too = 325 s? Recall that acceleration is the derivative of velocity with respect to time.
► View Available Hint(s)
0
O
μÃ
dây (325 s) = Value
dt
Units
?
(t-to)²
202 where
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