Dynamical systems with large number of attractors and their dependence on the parameters?
Clash Royale CLAN TAG#URR8PPP
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It is much important to study the attractors in a dynamical system as these indicate how the system behaves once the initial transients are discarded.
Also, the study of systems with many numbers of attractors are interesting as the parameters are varied.
I am looking for such examples of systems where there are many attractors in the dynamical systems and their dependence on the parameters.
soft-question dynamical-systems intuition visualization motivation
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up vote
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down vote
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It is much important to study the attractors in a dynamical system as these indicate how the system behaves once the initial transients are discarded.
Also, the study of systems with many numbers of attractors are interesting as the parameters are varied.
I am looking for such examples of systems where there are many attractors in the dynamical systems and their dependence on the parameters.
soft-question dynamical-systems intuition visualization motivation
If the attractor means the equilibrium point of the system. Then, consider the system: $dotx_1=omega x_2$, $dotx_2=-omega x_1$. The system is marginally stable, whose solution is periodic and a circle on the 2D plane. The radius of the circle is given by $sqrtx_1(0)^2+x_2(0)^2$. The number of the attractors is infinite because it is a set.
â guluzhu
Aug 22 at 6:54
Could the "Ueda-Duffing equation with forcing" like in this question be an example for your question?
â LutzL
Aug 22 at 7:36
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up vote
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up vote
0
down vote
favorite
It is much important to study the attractors in a dynamical system as these indicate how the system behaves once the initial transients are discarded.
Also, the study of systems with many numbers of attractors are interesting as the parameters are varied.
I am looking for such examples of systems where there are many attractors in the dynamical systems and their dependence on the parameters.
soft-question dynamical-systems intuition visualization motivation
It is much important to study the attractors in a dynamical system as these indicate how the system behaves once the initial transients are discarded.
Also, the study of systems with many numbers of attractors are interesting as the parameters are varied.
I am looking for such examples of systems where there are many attractors in the dynamical systems and their dependence on the parameters.
soft-question dynamical-systems intuition visualization motivation
edited Aug 22 at 7:03
iadvd
5,37992555
5,37992555
asked Aug 22 at 6:26
BAYMAX
2,55021021
2,55021021
If the attractor means the equilibrium point of the system. Then, consider the system: $dotx_1=omega x_2$, $dotx_2=-omega x_1$. The system is marginally stable, whose solution is periodic and a circle on the 2D plane. The radius of the circle is given by $sqrtx_1(0)^2+x_2(0)^2$. The number of the attractors is infinite because it is a set.
â guluzhu
Aug 22 at 6:54
Could the "Ueda-Duffing equation with forcing" like in this question be an example for your question?
â LutzL
Aug 22 at 7:36
add a comment |Â
If the attractor means the equilibrium point of the system. Then, consider the system: $dotx_1=omega x_2$, $dotx_2=-omega x_1$. The system is marginally stable, whose solution is periodic and a circle on the 2D plane. The radius of the circle is given by $sqrtx_1(0)^2+x_2(0)^2$. The number of the attractors is infinite because it is a set.
â guluzhu
Aug 22 at 6:54
Could the "Ueda-Duffing equation with forcing" like in this question be an example for your question?
â LutzL
Aug 22 at 7:36
If the attractor means the equilibrium point of the system. Then, consider the system: $dotx_1=omega x_2$, $dotx_2=-omega x_1$. The system is marginally stable, whose solution is periodic and a circle on the 2D plane. The radius of the circle is given by $sqrtx_1(0)^2+x_2(0)^2$. The number of the attractors is infinite because it is a set.
â guluzhu
Aug 22 at 6:54
If the attractor means the equilibrium point of the system. Then, consider the system: $dotx_1=omega x_2$, $dotx_2=-omega x_1$. The system is marginally stable, whose solution is periodic and a circle on the 2D plane. The radius of the circle is given by $sqrtx_1(0)^2+x_2(0)^2$. The number of the attractors is infinite because it is a set.
â guluzhu
Aug 22 at 6:54
Could the "Ueda-Duffing equation with forcing" like in this question be an example for your question?
â LutzL
Aug 22 at 7:36
Could the "Ueda-Duffing equation with forcing" like in this question be an example for your question?
â LutzL
Aug 22 at 7:36
add a comment |Â
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If the attractor means the equilibrium point of the system. Then, consider the system: $dotx_1=omega x_2$, $dotx_2=-omega x_1$. The system is marginally stable, whose solution is periodic and a circle on the 2D plane. The radius of the circle is given by $sqrtx_1(0)^2+x_2(0)^2$. The number of the attractors is infinite because it is a set.
â guluzhu
Aug 22 at 6:54
Could the "Ueda-Duffing equation with forcing" like in this question be an example for your question?
â LutzL
Aug 22 at 7:36