This module focuses on the schematic representation of closed-loop control in AC to DC converters. Key aspects include:
Students will develop skills in creating effective control schematics for AC to DC converters.
This module introduces the fundamental concepts of electric drives. It covers the classification of electric drives and their requirements. Topics include:
By the end of this module, students will understand the role electric drives play in various industries and be able to identify potential applications.
This module delves into the workings of controlled rectifiers, focusing on phase-controlled converters. Key topics include:
Students will gain insights into the practical implementation and benefits of controlled rectifiers in various applications.
In this module, we explore three-phase controlled rectifiers, building on prior knowledge of controlled rectifiers. The focus will be on:
This module provides a comprehensive overview of three-phase controlled rectifiers and their impact on power conversion.
This module continues the examination of three-phase controlled rectifiers with an advanced perspective. Topics will include:
By the end of this module, students will be able to analyze and design three-phase rectifier systems effectively.
This module wraps up the discussion on controlled rectifiers by focusing on advanced operational techniques. Key aspects include:
Students will learn to identify and troubleshoot common problems in rectifier operations for improved efficiency.
This module introduces the concepts of choppers, focusing on their role in DC motor drives. Topics include:
Students will be equipped with essential knowledge on how to implement choppers in various applications.
This module explores power electronics improvements, focusing on advancements in technology and efficiency. Key areas include:
Students will analyze case studies on successful improvements in power electronic devices and systems.
This module focuses on the implementation of four quadrant DC to DC converters. Key points include:
Students will learn how to design and analyze four quadrant converters in practical applications.
This module examines Sine Triangle PWM control techniques for converters. Topics include:
Students will understand the effectiveness of PWM techniques in controlling converters efficiently.
This module covers the design of front-end AC to DC converters with a focus on harmonic control. Key learning points include:
Students will learn to design converters that minimize harmonics while ensuring efficient operation.
This module introduces closed-loop control schemas for AC to DC converters. Key topics include:
Students will learn to implement closed-loop control for improved performance in AC to DC conversion applications.
This module focuses on the schematic representation of closed-loop control in AC to DC converters. Key aspects include:
Students will develop skills in creating effective control schematics for AC to DC converters.
This module covers the design of converter controllers for AC to DC conversion. Key topics include:
Students will learn to design effective controllers for enhanced converter performance in various applications.
This module focuses on the design of front-end AC to DC converters with an emphasis on practical applications. Topics include:
Students will learn to design converters suitable for various industrial applications while considering efficiency and reliability.
This module examines simulation studies of front-end AC to DC converters. Key points include:
Students will learn how to utilize simulation tools to analyze and optimize converter performance before physical implementation.
This module introduces the concept of DC motor speed control, providing a foundational understanding of the subject. Key topics include:
Students will gain an appreciation for the importance of speed control in enhancing motor performance.
This module focuses on the block diagram representation of DC motor speed control systems. Key aspects include:
Students will learn to create and interpret block diagrams for effective speed control system design.
This module delves into current control techniques for DC motor speed control. Key topics include:
Students will learn how to effectively apply current control methods to enhance the performance of DC motor drives.
This module focuses on the design of DC motor speed control controllers. Key learning points include:
Students will develop the skills needed to design and implement effective controllers for DC motor speed control.
This module focuses on the design and implementation of DC motor speed control systems. It covers various control strategies used to regulate the speed of DC motors, emphasizing the importance of dynamic response and stability.
This module delves deeper into advanced DC motor speed control techniques. It introduces various algorithms and methodologies that optimize performance and enhance efficiency in speed control applications.
This module introduces the basic concepts of DC to AC conversion. It discusses the significance of converters in power electronics and the fundamentals of their operation.
This module continues the exploration of DC to AC converters, focusing on the various types and their operational principles. Students will learn about the different configurations and their practical applications.
This module covers Sine Triangle PWM (Pulse Width Modulation) techniques used in inverters. It will explain the working principles, advantages, and limitations of this modulation approach.
This module focuses on current hysteresis controlled PWM techniques for inverters. It discusses how hysteresis control can improve inverter performance and responsiveness.
This module introduces C H controlled PWM and the basics of space vector PWM. It aims to provide insights into these advanced modulation techniques and their applications in modern power electronics.
This module provides an in-depth look at space vector PWM, covering its principles, advantages, and applications in various systems. Students will explore how space vector techniques enhance inverter performance.
This module continues the exploration of space vector PWM, providing advanced concepts and techniques. Students will learn about implementation strategies and performance optimization.
This module focuses on space vector PWM signal generation. Students will learn the methods and techniques used to generate PWM signals effectively and efficiently for various applications.
This module covers the speed control of induction motors, focusing on basic principles and strategies. It will provide insights into the methodologies used to regulate the speed of these motors in various applications.
This module delves deeper into the speed control of induction motors, focusing on advanced control techniques. It will cover methodologies that enhance performance and dynamic response.
This module emphasizes the high dynamic performance of induction motor drives. It discusses the factors influencing dynamic response and how to achieve optimal performance in various applications.
This module introduces the dynamic model of induction motors, focusing on both theoretical and practical aspects. It will cover modeling techniques and their relevance to control strategies.
This module continues the exploration of the dynamic model of induction motors, providing advanced insights and methodologies. Students will learn about complexity in modeling and its implications for control strategies.
This module covers vector control of induction motors, emphasizing its significance in achieving high performance. It discusses control strategies and their impact on motor efficiency and responsiveness.
This module discusses the effect of switching time lag in inverters. It will explore how switching delays can impact system performance and efficiency, along with mitigation strategies.
This module focuses on power switch protection using snubbers. It discusses the importance of snubber circuits in protecting power electronic devices against voltage spikes and transient behaviors.