A spring-mass-damper system has the following equilibrium equation: d²y dy 4 +3 +40y = 0, t>0 dt? dt where y(t) = displacement in meters, and t = time in seconds. (3-a) Determine the general solution of y(t). (3-b) Assuming y(0) = 0 and y'(0) = 1, determine the particular solution of y(t). (3-c) Use Laplace transform to solve the given differential equation with the same initial conditions in (3-6)

icon
Related questions
Question

***NOTE*** PLEASE ONLY SOLVE ( 3-F) ****

***NOTE*** PLEASE ONLY SOLVE ( 3-F) ****

***NOTE*** PLEASE ONLY SOLVE ( 3-F) ****

***NOTE*** PLEASE ONLY SOLVE ( 3-F) ****

***NOTE*** PLEASE ONLY SOLVE ( 3-F) ****

***NOTE*** PLEASE ONLY SOLVE ( 3-F) ****

***NOTE*** PLEASE ONLY SOLVE ( 3-F) ****

(3-f) Assuming that the right hand side of the given equilibrium equation is changed from 0 to 5,
repeat parts (3-a,b,c,
Transcribed Image Text:(3-f) Assuming that the right hand side of the given equilibrium equation is changed from 0 to 5, repeat parts (3-a,b,c,
A spring-mass-damper system has the following equilibrium equation:
d²y
dt2
+3 + 40y = 0 , t>0
dy
dt
4
where y(t) = displacement in meters, and t = time in seconds.
(3-a) Determine the general solution of y(t).
(3-b) Assuming y(0) = 0 and y'(0) = 1, determine the particular solution of y(t).
(3-c) Use Laplace transform to solve the given differential equation with the same initial conditions
in (3-6)
Transcribed Image Text:A spring-mass-damper system has the following equilibrium equation: d²y dt2 +3 + 40y = 0 , t>0 dy dt 4 where y(t) = displacement in meters, and t = time in seconds. (3-a) Determine the general solution of y(t). (3-b) Assuming y(0) = 0 and y'(0) = 1, determine the particular solution of y(t). (3-c) Use Laplace transform to solve the given differential equation with the same initial conditions in (3-6)
Expert Solution
steps

Step by step

Solved in 3 steps

Blurred answer