In this paper, we propose a continuous-time nonautonomous three-dimensional dynamical system, which was obtained from the original Lorenz system by introducing a parametric sinusoidal excitation. We show that, depending on the magnitude of the angular frequency of the sinusoidal excitation, two independent phenomena may occur: (i) the complete suppression of the periodic structures embedded in the chaotic region of the $$(r,\sigma )$$ parameter plane of the original Lorenz system, resulting in a chaos region completely free from periodic windows, and (ii) the appearance of other periodic structures, this time organized in period-adding sequences, embedded in the chaotic region of this same parameter plane
It is found that Lorenz systems can be unidirectionally coupled such that the chaos expands from the...
We consider the effect of discrete-time signal or periodically pulsed forcing on chaotic dynamical s...
The butterfly-like Lorenz attractor is one of the best known images of chaos. The computations in th...
Periodic forcing is introduced into the Lorenz model to study the effects of time-dependent forcing ...
This letter suggests a new way to investigate 3-D chaos in spatial and frequency domains simultaneou...
Another approach is developed for generating two-wing hyperchaotic attractor, four-wing chaotic attr...
The mechanism responsible for the emergence of chaotic behavior has been singled out analytically wi...
Windows of periodicity are common in chaotic regions of discrete- and continuous-time nonlinear dyna...
The effect of applying a periodic perturbation to an accessible parameter of a high-dimensional (cou...
We report on the dynamics in a parameter plane of a continuous-time damped system driven b...
Control of chaos present in the Lorenz system was realized numerically by using an unstable periodic...
We present theoretical and numerical evidence for a new route, strange nonchaotic behavior $\longlef...
Two Lorenz systems working in different chaotic ranges can be stabilized simultaneously in different...
This article introduces a novel three-dimensional continuous autonomous chaotic system with six term...
AbstractA new method of detection of chaos in dynamical systems generated by time-periodic nonautono...
It is found that Lorenz systems can be unidirectionally coupled such that the chaos expands from the...
We consider the effect of discrete-time signal or periodically pulsed forcing on chaotic dynamical s...
The butterfly-like Lorenz attractor is one of the best known images of chaos. The computations in th...
Periodic forcing is introduced into the Lorenz model to study the effects of time-dependent forcing ...
This letter suggests a new way to investigate 3-D chaos in spatial and frequency domains simultaneou...
Another approach is developed for generating two-wing hyperchaotic attractor, four-wing chaotic attr...
The mechanism responsible for the emergence of chaotic behavior has been singled out analytically wi...
Windows of periodicity are common in chaotic regions of discrete- and continuous-time nonlinear dyna...
The effect of applying a periodic perturbation to an accessible parameter of a high-dimensional (cou...
We report on the dynamics in a parameter plane of a continuous-time damped system driven b...
Control of chaos present in the Lorenz system was realized numerically by using an unstable periodic...
We present theoretical and numerical evidence for a new route, strange nonchaotic behavior $\longlef...
Two Lorenz systems working in different chaotic ranges can be stabilized simultaneously in different...
This article introduces a novel three-dimensional continuous autonomous chaotic system with six term...
AbstractA new method of detection of chaos in dynamical systems generated by time-periodic nonautono...
It is found that Lorenz systems can be unidirectionally coupled such that the chaos expands from the...
We consider the effect of discrete-time signal or periodically pulsed forcing on chaotic dynamical s...
The butterfly-like Lorenz attractor is one of the best known images of chaos. The computations in th...