k F X m (a) Figure Q1 Figure Q1 shows a forced spring-mass system with damping, where mass m = 1 kg, spring constant k = 0.2 N/m, and damping coefficient c = 0.3 N-s/m. This forced spring-mass system with damping can be described by the following differential equation: dx(t) c dx(t), k + +. m dt m x(t) = F(1) m dt² Determine: (i) Laplace Transfer Function of this system, (ii) This system's steady state gain, damping ratio and natural frequency.

Calculus For The Life Sciences
2nd Edition
ISBN:9780321964038
Author:GREENWELL, Raymond N., RITCHEY, Nathan P., Lial, Margaret L.
Publisher:GREENWELL, Raymond N., RITCHEY, Nathan P., Lial, Margaret L.
Chapter11: Differential Equations
Section11.1: Solutions Of Elementary And Separable Differential Equations
Problem 54E: Plant Growth Researchers have found that the probability P that a plant will grow to radius R can be...
Question
k
F
X
m
(a)
Figure Q1
Figure Q1 shows a forced spring-mass system with damping, where
mass m = 1 kg, spring constant k = 0.2 N/m, and damping coefficient c
= 0.3 N-s/m.
This forced spring-mass system with damping can be described
by the following differential equation:
dx(t) c dx(t), k
+
+.
m dt m
x(t) = F(1)
m
dt²
Determine:
(i)
Laplace Transfer Function of this system,
(ii)
This system's steady state gain, damping ratio and natural
frequency.
Transcribed Image Text:k F X m (a) Figure Q1 Figure Q1 shows a forced spring-mass system with damping, where mass m = 1 kg, spring constant k = 0.2 N/m, and damping coefficient c = 0.3 N-s/m. This forced spring-mass system with damping can be described by the following differential equation: dx(t) c dx(t), k + +. m dt m x(t) = F(1) m dt² Determine: (i) Laplace Transfer Function of this system, (ii) This system's steady state gain, damping ratio and natural frequency.
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ISBN:
9780321964038
Author:
GREENWELL, Raymond N., RITCHEY, Nathan P., Lial, Margaret L.
Publisher:
Pearson Addison Wesley,