Chaos Control

Comparative analysis of chaos control methods: A mechanical system case study

Mechanical Engineering / Civil Engineering / Applied Mathematics / Time Series / Control / Robustness Analysis / Noise / Case Study / Chaos Control / Time Delay / Non Linear Dynamics / Comparative Analysis / Pendulum / Mechanical systems / Dynamic System / Control Method / Robustness Analysis / Noise / Case Study / Chaos Control / Time Delay / Non Linear Dynamics / Comparative Analysis / Pendulum / Mechanical systems / Dynamic System / Control Method

A multiparameter chaos control method applied to maps

Mathematical Sciences / Chaos Control / Physical sciences

Comparative analysis of chaos control methods: A mechanical system case study

Mechanical Engineering / Civil Engineering / Applied Mathematics / Time Series / Control / Robustness Analysis / Noise / Case Study / Chaos Control / Time Delay / Non Linear Dynamics / Comparative Analysis / Pendulum / Mechanical systems / Dynamic System / Control Method / Robustness Analysis / Noise / Case Study / Chaos Control / Time Delay / Non Linear Dynamics / Comparative Analysis / Pendulum / Mechanical systems / Dynamic System / Control Method

Evolving artificial neural networks to control chaotic systems

Neural Network / Chaos Control / Training Algorithm / Logistic Map

Real-time experimental control of a system in its chaotic and nonchaotic regimes

Time Series / System Dynamics / Dynamic control / Higher Order Thinking / Chaos Control / Feedback Control / Real Time / Dynamic System / Feedback Control / Real Time / Dynamic System

Comparative analysis of chaos control methods: A mechanical system case study

Mechanical Engineering / Civil Engineering / Applied Mathematics / Time Series / Robustness Analysis / Case Study / Chaos Control / Time Delay / Non Linear Dynamics / Comparative Analysis / Mechanical systems / Dynamic System / Control Method / Case Study / Chaos Control / Time Delay / Non Linear Dynamics / Comparative Analysis / Mechanical systems / Dynamic System / Control Method

A multiparameter chaos control method applied to maps

Mathematical Sciences / Chaos Control / Physical sciences

Optimal control in a noisy system

Applied Mathematics / Algorithms / Optimal Control / Fuzzy Logic / Nonlinear dynamics / Optimization Problem / Chaos / Computer Simulation / Singular value decomposition / Chaos Control / Spectrum / Lyapunov exponent / Control Strategy / Numerical Analysis and Computational Mathematics / Low Noise / Control of Chaos / Control Method / Optimization Problem / Chaos / Computer Simulation / Singular value decomposition / Chaos Control / Spectrum / Lyapunov exponent / Control Strategy / Numerical Analysis and Computational Mathematics / Low Noise / Control of Chaos / Control Method

Chaos control in AFM systems using nonlinear delayed feedback via sliding mode control

Applied Mathematics / AFM / Chaos Control / Feedback Control / Sliding mode control / First-Order Logic / System Simulation / High performance / Numerical Analysis and Computational Mathematics / Atomic Force Microscope / Sliding Mode / Parameter Uncertainty / First-Order Logic / System Simulation / High performance / Numerical Analysis and Computational Mathematics / Atomic Force Microscope / Sliding Mode / Parameter Uncertainty

Chaos control in AFM systems using nonlinear delayed feedback via sliding mode control

Applied Mathematics / AFM / Chaos Control / Feedback Control / Sliding mode control / First-Order Logic / System Simulation / High performance / First Order Logic / Numerical Analysis and Computational Mathematics / Atomic Force Microscope / Sliding Mode / Parameter Uncertainty / First-Order Logic / System Simulation / High performance / First Order Logic / Numerical Analysis and Computational Mathematics / Atomic Force Microscope / Sliding Mode / Parameter Uncertainty

Chaos control in AFM systems using nonlinear delayed feedback via sliding mode control

Applied Mathematics / AFM / Chaos Control / Feedback Control / Sliding mode control / First-Order Logic / System Simulation / High performance / First Order Logic / Numerical Analysis and Computational Mathematics / Atomic Force Microscope / Sliding Mode / Parameter Uncertainty / First-Order Logic / System Simulation / High performance / First Order Logic / Numerical Analysis and Computational Mathematics / Atomic Force Microscope / Sliding Mode / Parameter Uncertainty

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