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Proceedings ArticleDOI

Implementing fuzzy PI scalar control of induction motor

TLDR
The performance of a scalar V/F controlled induction motor drive is evaluated using closed loop PI (Proportional Integral) controller and closed loop fuzzy controller and the results are compared.
Abstract
In Industrial applications of Induction motors the need for efficient controlling techniques is necessary. To fulfil this high efficiency controllers such as Fuzzy logic controllers (FLC's) should be utilised. These controllers have the following advantages over the conventional controllers: they are economical, they encompass a broader range of operating conditions, and they are more readily customizable in natural language terms. Another advantage of such a controller (a self organizing FLC) is its ability to provide an initial approximate set of fuzzy rules. In this paper the performance of a scalar V/F controlled induction motor drive is evaluated using closed loop PI (Proportional Integral) controller and closed loop fuzzy controller and the results are compared. Using Mamdani's method fuzzy control has been designed. Fuzzy approach has advantages over conventional techniques as demonstrated by the results obtained using both technique.

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Citations
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Journal ArticleDOI

Analysis of the effectiveness of using the block for limiting the vibrations of the load on the mechanism of movement of the bogie with various control systems

TL;DR: The paper analyzes the efficiency of using the vibration damping unit when using different control systems on the movement mechanism of the bridge crane trolley.
Proceedings ArticleDOI

Methods for Reducing Electromechanical Oscillations in Conveyor Control Systems

TL;DR: In this paper, the authors discuss methods of damping oscillations in the conveyor control system with scalar control of an induction motor, and discuss the damping of electromechanical vibrations arising at metallurgical facilities.
Journal ArticleDOI

Nonlinear Current-Mode Control of SCIG Wind Turbines

TL;DR: A nonlinear controller is proposed to manage the rotational speed of a full-variable Squirrel Cage Induction Generator wind turbine by removing the need for a rotor flux observer and utilizing a current-based control in place of traditional voltage-mode control.
Journal ArticleDOI

A Review of Various Controller Techniques Designed for the Operational Control of DC and Servo Motors

TL;DR: In this article , a variety of different types of motor controllers in relation to previous work done with them are classified and analyzed, and the shift from conventional to more intelligent adaptive controllers is highlighted along with their respective principles.
Book ChapterDOI

Use of Forcing Algorithms in Search Methods in Systems with Direct Moment Control

TL;DR: In this paper, the authors proposed to use search algorithms, the advantage of which is independence from the properties of the object, which is controlled, and reliability, in order to achieve energy saving mode by reducing power consumption.
References
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Book

Fuzzy Logic with Engineering Applications

TL;DR: This chapter discusses Fuzzy Systems Simulation, specifically the development of Membership Functions and the Extension Principle, and some of the methods used to derive these functions.
Book

Modern Power Electronics And Ac Drives

Bimal K. Bose
TL;DR: In this paper, the authors present a simulation of a six-step Thyristor Inverter with three-level Inverters and three-phase Bridge Invergers. And they present a Neural Network in Identification and Control toolbox.
Book

Modern Power Electronics And Ac Drives

Bose
Journal ArticleDOI

Simulation of Symmetrical Induction Machinery

TL;DR: The effectiveness of an analog computer in studying the performance of induction machinery is demonstrated with computer results which show the dynamic behavior of 2-phase and 3-phase machines during balanced and unbalanced operation.
Journal ArticleDOI

Electric motors and drives

TL;DR: In this article, the peak power and torque produced by an electric motor are calculated using the following parameters: motor supply voltage, V s [V], peak motor current, I s [amps] • peak motor velocity, N [rpm] The power produced by the motor can be calculated as: P [watts] = V s[volts] * I s[amps] (Eq.