Design and Control of Electrical Motor Drives

Dear Colleagues, I am very happy to have this Special Issue of the journal Energies on the topic of Design and Control of Electrical Motor Drives published. Electrical motor drives are widely used in the industry, automation, transportation, and home appliances. Indeed, rolling mills, machine tools,...

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Bibliographic Details
Other Authors: Liu, Tian-Hua (Editor)
Format: Book Chapter
Published: Basel, Switzerland MDPI - Multidisciplinary Digital Publishing Institute 2021
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Online Access:Get Fullteks
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041 0 |a English 
042 |a dc 
072 7 |a TB  |2 bicssc 
100 1 |a Liu, Tian-Hua  |4 edt 
700 1 |a Liu, Tian-Hua  |4 oth 
245 1 0 |a Design and Control of Electrical Motor Drives 
260 |a Basel, Switzerland  |b MDPI - Multidisciplinary Digital Publishing Institute  |c 2021 
300 |a 1 electronic resource (258 p.) 
506 0 |a Open Access  |2 star  |f Unrestricted online access 
520 |a Dear Colleagues, I am very happy to have this Special Issue of the journal Energies on the topic of Design and Control of Electrical Motor Drives published. Electrical motor drives are widely used in the industry, automation, transportation, and home appliances. Indeed, rolling mills, machine tools, high-speed trains, subway systems, elevators, electric vehicles, air conditioners, all depend on electrical motor drives.However, the production of effective and practical motors and drives requires flexibility in the regulation of current, torque, flux, acceleration, position, and speed. Without proper modeling, drive, and control, these motor drive systems cannot function effectively.To address these issues, we need to focus on the design, modeling, drive, and control of different types of motors, such as induction motors, permanent magnet synchronous motors, brushless DC motors, DC motors, synchronous reluctance motors, switched reluctance motors, flux-switching motors, linear motors, and step motors.Therefore, relevant research topics in this field of study include modeling electrical motor drives, both in transient and in steady-state, and designing control methods based on novel control strategies (e.g., PI controllers, fuzzy logic controllers, neural network controllers, predictive controllers, adaptive controllers, nonlinear controllers, etc.), with particular attention to transient responses, load disturbances, fault tolerance, and multi-motor drive techniques. This Special Issue include original contributions regarding recent developments and ideas in motor design, motor drive, and motor control. The topics include motor design, field-oriented control, torque control, reliability improvement, advanced controllers for motor drive systems, DSP-based sensorless motor drive systems, high-performance motor drive systems, high-efficiency motor drive systems, and practical applications of motor drive systems. I want to sincerely thank authors, reviewers, and staff members for their time and efforts. Prof. Dr. Tian-Hua Liu Guest Editor 
540 |a Creative Commons  |f https://creativecommons.org/licenses/by/4.0/  |2 cc  |4 https://creativecommons.org/licenses/by/4.0/ 
546 |a English 
650 7 |a Technology: general issues  |2 bicssc 
653 |a rotor position observer 
653 |a predictive speed controller 
653 |a digital-signal processor 
653 |a synchronous reluctance motor 
653 |a field-excited flux-switching motor 
653 |a high-frequency injection 
653 |a predictive controller 
653 |a digital signal processor 
653 |a current deviation 
653 |a SVPWM 
653 |a IPMSM 
653 |a wide-adjustable speed 
653 |a sensorless drive 
653 |a backstepping control 
653 |a Lyapunov stability theorem 
653 |a grey wolf optimization 
653 |a permanent-magnet synchronous motor 
653 |a Sieved-Pollaczek polynomials neural network 
653 |a high-speed motor 
653 |a permanent magnet motor 
653 |a variable-frequency drive 
653 |a optimal control 
653 |a modal current control 
653 |a feedforward torque control 
653 |a feedback current control 
653 |a torque ripples and loss minimization 
653 |a low inductance permanent magnet motor 
653 |a extension theory 
653 |a smart fault diagnosis 
653 |a three-level neutral-point clamped inverters 
653 |a line current spectrum feature 
653 |a fault-tolerant control 
653 |a induction motor 
653 |a delta connections 
653 |a star-delta starting 
653 |a SVPWM ASIC 
653 |a asymmetric five-segment switching 
653 |a AC motor drives 
653 |a current control 
653 |a FPGA control 
653 |a motor drive 
653 |a current harmonic reduction 
653 |a torque ripple reduction 
653 |a inverse optimal control 
653 |a state derivative space (SDS) system 
653 |a state derivative feedback 
653 |a DC motor control 
653 |a singular system 
653 |a nonlinear control 
653 |a n/a 
856 4 0 |a www.oapen.org  |u https://mdpi.com/books/pdfview/book/4668  |7 0  |z Get Fullteks 
856 4 0 |a www.oapen.org  |u https://directory.doabooks.org/handle/20.500.12854/77053  |7 0  |z DOAB: description of the publication