Fundamentals of Electric Traction for Complete Beginners

Embark on an immersive journey into the fascinating realm of Electric Traction Engineering with our comprehensive course, meticulously crafted to deepen your understanding and expertise in modern rail systems. From foundational concepts to advanced applications, each section of this course is designed to equip you with the knowledge and skills needed to excel in the field.

• Introduction to the Course 30:28

  • 1: Introduction to Electric Traction 03:31
  • 2: Electric Traction - Self-Contained 04:21
  • 3: Electric Traction Part 1 10:12
  • 4: Electric Traction Part 2 03:51
  • 5: Advantages and Disadvantages of Electric Traction 08:33

• Track Electrification Systems 48:54

  • 6: Track Electrification Systems 02:37
  • 7: Configurations 1 and 2 07:03
  • 8: Configuration 3 02:52
  • 9: DC Traction System 09:58
  • 10: Advantages of DC Traction System 02:41
  • 11: Single-Phase Low-Frequency AC System 09:12
  • 12: Advantages of Single-Phase Low-Frequency AC System 03:14
  • 13: Three-Phase Low-Frequency AC System 03:03
  • 14: Advantages and Disadvantages of Three-Phase Low-Frequency AC System 03:31
  • 15: Kando System 03:24
  • 16: Single-Phase to DC 01:19

• Components in Electric Traction 24:36

  • 17: Block Diagram of an AC Locomotive 03:28
  • 18: Collector Gear for Overhead Equipment (OHE) 02:43
  • 19: Trolley Collector 01:57
  • 20: The Bow Collector 01:21
  • 21: The Pantograph Collector 02:26
  • 22: Leakage Currents 03:16
  • 23: Solution of Leakage Currents 01:30
  • 24: Negative Booster 07:55

• Speed-Time Curves of a Train 1:26:22

  • 25: Typical Speed-Time Curve 20:59
  • 26: Simplified Speed-Time Curve 08:02
  • 27: Definitions and Quantities Used 11:19
  • 28: Trapezoidal Speed-Time Curve 14:22
  • 29: Example 1 06:41
  • 30: Example 2 05:28
  • 31: Example 3 04:14
  • 32: Quadrilateral Speed-Time Curve 09:21
  • 33: Example 4 05:56

• Tractive Effort and Equations of Train Motion 1:41:47

  • 34: Tractive Effort for Propulsion of a Train 24:06
  • 35: Power Output from Driving Axles 05:55
  • 36: Energy Output from Driving Axles 19:58
  • 37: Specific Energy Output 04:09
  • 38: Adhesive Weight and Coefficient of Adhesion 08:20
  • 39: Mechanism of Train Movement 08:45
  • 40: Example 1 11:23
  • 41: Example 2 05:48
  • 42: Example 3 04:56
  • 43: Example 4 08:27

Section 1: Introduction to Electric Traction

In this introductory section, you will gain a solid understanding of the principles and significance of electric traction in modern transportation. Explore the evolution of electric traction systems and discover how they have revolutionized the railway industry. By the end of this section, you will have a clear grasp of the fundamentals and be ready to delve deeper into the world of electric traction engineering.

Section 2: Track Electrification Systems

Dive into the complexities of track electrification systems, including various configurations and technologies used to power railways. Learn about DC and AC traction systems, their advantages, and applications in different contexts. By examining real-world examples and case studies, you will develop a comprehensive understanding of track electrification and its crucial role in railway operations.

Section 3: Components in Electric Traction

Explore the essential components of electric traction systems, from collector gears to pantograph systems, and their functions in maintaining efficient railway operations. Delve into the intricacies of overhead equipment (OHE) and gain insight into managing leakage currents for optimal performance. By the end of this section, you will be well-versed in the key components that drive electric traction engineering forward.

Section 4: Speed-Time Curves of a Train

Master the dynamics of speed-time curves and their significance in understanding train movement and performance. Explore different types of speed-time curves and learn how to analyze and interpret them effectively. Through practical examples, you will develop the skills needed to optimize train speed and efficiency in various operating conditions.

Section 5: Tractive Effort and Equations of Train Motion

Gain a deep understanding of tractive effort and equations of train motion, essential for optimizing propulsion and energy efficiency in rail systems. Explore concepts such as power output, energy output, and specific energy output, and learn how to calculate them for different scenarios.

Whether you're an electrical engineer, a seasoned professional, or simply passionate about railways, "Fundamentals of Electric Traction for Complete Beginners" offers a comprehensive and engaging learning experience that will empower you to excel in this dynamic field.

Join us on this electrifying journey and unlock your full potential in electric traction engineering today!

This course is suitable for:

• Aspiring engineers in electrical or transportation fields
• Railway enthusiasts curious about electric traction
• Researchers in transportation or electrical engineering

There are no specific prerequisites for this course. However, a basic understanding of electrical engineering concepts and an interest in transportation technology would be beneficial.

Upon completing this course, students can pursue careers such as:

1. Railway Engineer: Maintaining electric traction systems.
2. Transportation Planner: Integrating electric traction into transit systems.
3. Researcher/Academic: Advancing the field through research and teaching.

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Reed Courses Certificate of Completion

Digital certificate - Included