5. Consider the inverted pendulum in Fig. 1 In this case, the input to the system is the torque x(t) at time t exerted by the motor connected to the end of the pendulum. The output y(t) is the angle of the pendulum from the vertical line. The following differential equation, describes a linearization for the input-output characterization of such a pendulum around = 0 (for simplicity, parameters of the system including pendulum mass, pendulum length, and g are all assumed to be 1): d²y(t) dy(t) + - y(t) = x(t). dt2 dt Compute the transfer function H(jw) of this linearized system. y(t x(t) Figure 1: The schematic view of an inverted pendulum system connected to a motor.

Power System Analysis and Design (MindTap Course List)
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Author:J. Duncan Glover, Thomas Overbye, Mulukutla S. Sarma
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Chapter11: Transient Stability
Section: Chapter Questions
Problem 11.18P
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Try to use eigenfunctions to solve please

5. Consider the inverted pendulum in Fig. 1 In this case, the input to the system is the torque x(t) at time t
exerted by the motor connected to the end of the pendulum. The output y(t) is the angle of the pendulum from
the vertical line.
The following differential equation, describes a linearization for the input-output characterization of such a
pendulum around = 0 (for simplicity, parameters of the system including pendulum mass, pendulum length,
and g are all assumed to be 1):
d²y(t) dy(t)
+
- y(t) = x(t).
dt2
dt
Compute the transfer function H(jw) of this linearized system.
y(t
x(t)
Figure 1: The schematic view of an inverted pendulum system connected to a motor.
Transcribed Image Text:5. Consider the inverted pendulum in Fig. 1 In this case, the input to the system is the torque x(t) at time t exerted by the motor connected to the end of the pendulum. The output y(t) is the angle of the pendulum from the vertical line. The following differential equation, describes a linearization for the input-output characterization of such a pendulum around = 0 (for simplicity, parameters of the system including pendulum mass, pendulum length, and g are all assumed to be 1): d²y(t) dy(t) + - y(t) = x(t). dt2 dt Compute the transfer function H(jw) of this linearized system. y(t x(t) Figure 1: The schematic view of an inverted pendulum system connected to a motor.
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