Artificial Neural Network-Based Experimental Investigations for Sliding Mode Control of an Induction Motor in Power Steering Applications

Abstract

Sliding mode control (SMC) of induction motor is a new concept in the current scenario, as it seeks to improve torque control accuracy and power steering efficiency through the use of pulse width modulation schemes. Furthermore, artificial neural network-based sliding mode control is applied to a squirrel cage induction motor, which is used in the steering control of automobiles. The artificial neural network (ANN)-based SMC is more popular due to its robustness and good stability in external parameter variation. Additionally, an SMC and an ANN-based SMC are employed to compute the torque and flux, improving performance for power steering applications. The performance of the designed model is validated through MATLAB/Simulink and experimental models with different controllers under various operating conditions. The controller has been embedded into a TMS320F28335 controller, and performances have been evaluated. The performance analyses of induction motor using different controllers are performed. The transient performances of induction motor such as delay time, rise time, settling time, and steady-state error are investigated. The proposed work is analysed by using a mathematical model and implemented in a test-bench model for validation.

A dSPACE-based implementation of ANFIS and predictive current control for a single phase boost power factor corrector

“…In addition, since the characteristics in Figs. 19,20,21 are almost non-variable, it can be confirmed that the PFC system is able to maintain the CCM operation despite the occurrence of variations in the input inductor when using the suggested predictive technique.…”

“…Steady-state waveforms without PFC Figures 20,21 show the experimental steady-state waveforms without PFC system for constant-load and AC input voltage of 115Vrms. The AC input voltage in Fig.…”

“…These control methods were employed to control the output voltage of the AC-DC rectifier, including sliding mode control (SMC) 6,14,15 , fuzzy logic 16,17 , fractional control 18 , and artificial intelligent control 19 . Sliding Mode Control, known for its simplicity and model-free implementation, requires high control efforts, potentially leading to excessive switching, increased losses, and component stress [20][21][22] . Advanced sliding regulators have been developed to mitigate these issues, but they often involve complex design and implementation processes.…”