- #1
glebovg
- 164
- 1
The defining equations are:
dx/dt = -(y + z)
dy/dt = x + ay
dz/dt = b + z(x - c)
where a = b = 0.2 and 2.6 ≤ c ≤ 4.2.
Is there an analytic way of showing that by changing the parameter c, we can get period-1 orbit, period-2 orbit, period-4 oribt, period-8 orbit, etc. and for c > 4.2 we get a chaotic attractor? I know you can construct a bifurcation diagram or use a projection onto the xy-plane and change c, but is there an analytic approach to this problem?
dx/dt = -(y + z)
dy/dt = x + ay
dz/dt = b + z(x - c)
where a = b = 0.2 and 2.6 ≤ c ≤ 4.2.
Is there an analytic way of showing that by changing the parameter c, we can get period-1 orbit, period-2 orbit, period-4 oribt, period-8 orbit, etc. and for c > 4.2 we get a chaotic attractor? I know you can construct a bifurcation diagram or use a projection onto the xy-plane and change c, but is there an analytic approach to this problem?