Exercise 3.2.3 Apply the improved Euler's method to the ODE u' (t) = u(t)-t+1 with u(0) = 0, to estimate u(1) using step sizes h= 1,0.1, and 0.01. Then find the analytical solution and compute the error for each step size. Why does this make perfect sense? Exercise 3.2.4 (Compare the results here to Exercise 3.1.5.) Apply the improved Euler's method to the ODE u' (t) = u²(t) with u(0) = 1 to estimate u(2) using step sizes h = 1,0.1,0.01, and 0.001. Explain what's going on. Hint: compute the analytical solution using separation of variables. Then recall Definition 2.4.1 and the notion of the maximum domain of a solution from Section 2.4.2. Exercise 3.2.5 (Compare the results here to Exercise 3.1.6.) Consider the linear ODE u' (t) = u(t) - sin(t) + cos(t).
Exercise 3.2.3 Apply the improved Euler's method to the ODE u' (t) = u(t)-t+1 with u(0) = 0, to estimate u(1) using step sizes h= 1,0.1, and 0.01. Then find the analytical solution and compute the error for each step size. Why does this make perfect sense? Exercise 3.2.4 (Compare the results here to Exercise 3.1.5.) Apply the improved Euler's method to the ODE u' (t) = u²(t) with u(0) = 1 to estimate u(2) using step sizes h = 1,0.1,0.01, and 0.001. Explain what's going on. Hint: compute the analytical solution using separation of variables. Then recall Definition 2.4.1 and the notion of the maximum domain of a solution from Section 2.4.2. Exercise 3.2.5 (Compare the results here to Exercise 3.1.6.) Consider the linear ODE u' (t) = u(t) - sin(t) + cos(t).
Algebra & Trigonometry with Analytic Geometry
13th Edition
ISBN:9781133382119
Author:Swokowski
Publisher:Swokowski
Chapter7: Analytic Trigonometry
Section7.6: The Inverse Trigonometric Functions
Problem 92E
Related questions
Question
![Exercise 3.2.3 Apply the improved Euler's method to the ODE u' (t) = u(t)-t+1 with
u(0) = 0, to estimate u(1) using step sizes h= 1,0.1, and 0.01. Then find the analytical solution
and compute the error for each step size. Why does this make perfect sense?
Exercise 3.2.4 (Compare the results here to Exercise 3.1.5.) Apply the improved Euler's
method to the ODE u' (t) = u²(t) with u(0) = 1 to estimate u(2) using step sizes h = 1,0.1,0.01,
and 0.001. Explain what's going on. Hint: compute the analytical solution using separation of
variables. Then recall Definition 2.4.1 and the notion of the maximum domain of a solution
from Section 2.4.2.
Exercise 3.2.5 (Compare the results here to Exercise 3.1.6.) Consider the linear ODE
u' (t) = u(t)- sin(t) + cos(t).
tv
C
NT
all Z A
KE](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F590efbb4-bfa3-48e4-b7a4-ba8d0f00ec23%2F82daf478-9e17-4732-a016-6d1d4d715a57%2Fjwjdm2w_processed.jpeg&w=3840&q=75)
Transcribed Image Text:Exercise 3.2.3 Apply the improved Euler's method to the ODE u' (t) = u(t)-t+1 with
u(0) = 0, to estimate u(1) using step sizes h= 1,0.1, and 0.01. Then find the analytical solution
and compute the error for each step size. Why does this make perfect sense?
Exercise 3.2.4 (Compare the results here to Exercise 3.1.5.) Apply the improved Euler's
method to the ODE u' (t) = u²(t) with u(0) = 1 to estimate u(2) using step sizes h = 1,0.1,0.01,
and 0.001. Explain what's going on. Hint: compute the analytical solution using separation of
variables. Then recall Definition 2.4.1 and the notion of the maximum domain of a solution
from Section 2.4.2.
Exercise 3.2.5 (Compare the results here to Exercise 3.1.6.) Consider the linear ODE
u' (t) = u(t)- sin(t) + cos(t).
tv
C
NT
all Z A
KE
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