1. Consider the differential equation d x(1) = -x³. First, use a geometric argument to show that x = 0 is a locally stable equilibrium. Next, perform linear stability analysis of x = 0. What, if anything, can you conclude regarding the rate of convergence of x(t) towards x = 0? Finally, solve the differential equation explicitly and show that lim x(t) = 0 for any initial condition. Does the analytical solution of the ODE agree with your linear stability analysis?

Advanced Engineering Mathematics
10th Edition
ISBN:9780470458365
Author:Erwin Kreyszig
Publisher:Erwin Kreyszig
Chapter2: Second-order Linear Odes
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1. Consider the differential equation
d
x(t) = -x³.
First, use a geometric argument to show that x = 0 is a locally stable equilibrium. Next,
perform linear stability analysis of x = 0. What, if anything, can you conclude regarding
the rate of convergence of x(t) towards x = 0?
Finally, solve the differential equation explicitly and show that
lim x(t) = 0
for any initial condition. Does the analytical solution of the ODE agree with your linear
stability analysis?
Transcribed Image Text:1. Consider the differential equation d x(t) = -x³. First, use a geometric argument to show that x = 0 is a locally stable equilibrium. Next, perform linear stability analysis of x = 0. What, if anything, can you conclude regarding the rate of convergence of x(t) towards x = 0? Finally, solve the differential equation explicitly and show that lim x(t) = 0 for any initial condition. Does the analytical solution of the ODE agree with your linear stability analysis?
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