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Fundamentals of Automotive Systems

Fundamentals of Automotive Systems banner
Preview this course
Self-paced Beginner

Fundamentals of Automotive Systems

4(1581)
32 enrolled
2012 views
FREE
1786 min
Anytime
English
2012 views
Team EveryEng
Team EveryEngMechanical Engineering
  • Lifetime access
  • Certificate of completion
  • Foundational Learning
  • Access to Study Materials
Volume pricing for groups of 5+

Why enroll

Participants join the Fundamentals of Automotive Systems course to gain a deep and practical understanding of all key automotive systems, including engines, transmissions, brakes, suspensions, and electrical and electronic components. By taking this course, they develop hands-on expertise that allows them to diagnose and repair complex automotive issues effectively. Additionally, participants learn how to optimize vehicle performance and efficiency, making them more proficient and valuable in the automotive industry. This comprehensive training also helps individuals advance their careers in automotive technology by equipping them with the skills and confidence needed to tackle real-world automotive challenges.

Is this course for you?

You should take this if

  • You work in Automotive
  • You're a Instrumentation Engineering / Mechanical Engineering professional
  • You prefer self-paced learning you can revisit

You should skip if

  • You need a different specialisation outside Instrumentation Engineering
  • You need live interaction with an instructor

Course details

This course introduces students to the basic concepts and components of modern vehicles.It covers how engines work, including both combustion and hybrid systems.Students will learn about vehicle transmission systems and how power is transferred to the wheels.Braking systems, steering mechanisms, and suspension designs are explained in practical terms.The course explores electrical systems, including batteries, starters, and lighting circuits.Students will understand fuel systems, exhaust systems, and emission controls.It includes an introduction to vehicle safety features and modern driver-assist technologies.Maintenance practices, diagnostics, and troubleshooting techniques are discussed.The course highlights the role of sensors and control systems in automotive performance.Students gain awareness of environmental impacts and efficiency improvements in vehicles.Hands-on demonstrations and simple experiments help connect theory to real-world applications.By the end, students will have a solid foundation to understand, operate, and maintain automotive systems

Course suitable for

Key topics covered

  • Describe the basic components and operation of automotive systems.

  • Understand the interactions between engine, transmission, braking, and suspension systems.

  • Analyze electrical and electronic systems, including battery, starting, and charging systems.

  • Explain safety features, including airbags, anti-lock braking systems (ABS), and electronic stability control (ESC).

Course content

The course is readily available, allowing learners to start and complete it at their own pace.

74 lectures29 hr 46 min
  1. Course Overview and Classification of Internal Combustion Engines - Part 01
    25 min
  2. Course Overview and Classification of Internal Combustion Engines - Part 02
    22 min
  3. Engine Components - Part 01
    24 min
  4. Engine Components - Part 02
    21 min
  5. Operation of Four Stroke Engines - Part 01
    27 min
  6. Operation of Four Stroke Engines - Part 02
    22 min
  7. Two Stroke Engine and Engine Cycles - Part 01
    26 min
  8. Two Stroke Engine and Engine Cycles - Part 02
    21 min
  9. Otto Cycle and Diesel Cycle - Part 01
    20 min
  10. Otto Cycle and Diesel Cycle - Part 02
    29 min
  11. Dual Cycle and Engine Performance - Part 01
    28 min
  12. Dual Cycle and Engine Performance - Part 02
    18 min
  13. Engine Performance - Part 01
    24 min
  14. Engine Performance - Part 02
    22 min
  15. Supercharging and Combustion in SI Engines - Part 01
    21 min
  16. Supercharging and Combustion in SI Engines - Part 02
    25 min
  17. Knocking in SI Engines - Part 01
    23 min
  18. Knocking in SI Engines - Part 02
    18 min
  19. Combustion in CI Engines and Carburetion - Part 01
    28 min
  20. Combustion in CI Engines and Carburetion - Part 02
    21 min
  21. Fuel Introduction Systems - Part 01
    28 min
  22. Fuel Introduction Systems - Part 02
    21 min
  23. Analysis of Carburetor - Part 01
    27 min
  24. Analysis of Carburetor - Part 02
    22 min
  25. Engine Emissions - Part 01
    31 min
  26. Engine Emissions - Part 02
    18 min
  27. Emission Control Systems - Part 01
    27 min
  28. Emission Control Systems - Part 02
    22 min
  29. Automotive Powertrain - Part 01
    20 min
  30. Automotive Powertrain - Part 02
    21 min
  31. Automotive Clutch - Part 01
    24 min
  32. Automotive Clutch - Part 02
    24 min
  33. Transmission - Part 01
    30 min
  34. Transmission - Part 02
    21 min
  35. Powertrain Analysis - Part 01
    22 min
  36. Powertrain Analysis - Part 02
    28 min
  37. Powertrain Analysis 2 - Part 01
    20 min
  38. Powertrain Analysis 2 - Part 02
    23 min
  39. Transmission Matching - Part 01
    29 min
  40. Transmission Matching - Part 02
    20 min
  41. Brake System - Part 01
    25 min
  42. Brake System - Part 02
    24 min
  43. Components of a Brake System and Drum Brake - Part 01
    24 min
  44. Components of a Brake System and Drum Brake - Part 02
    26 min
  45. Disc Brake and Introduction to Hydraulic Brake - Part 01
    26 min
  46. Disc Brake and Introduction to Hydraulic Brake - Part 02
    22 min
  47. Hydraulic Brake System - Part 01
    23 min
  48. Hydraulic Brake System - Part 02
    24 min
  49. Air Brake System - Part 01
    24 min
  50. Air Brake System - Part 02
    28 min
  51. Antilock Brake System 1 - Part 01
    22 min
  52. Antilock Brake System 1 - Part 02
    22 min
  53. Antilock Brake System 2 - Part 01
    27 min
  54. Antilock Brake System 2 - Part 02
    23 min
  55. Braking Analysis - Part 01
    27 min
  56. Braking Analysis - Part 02
    23 min
  57. Steering System - Part 01
    26 min
  58. Steering System - Part 02
    19 min
  59. Manual Steering Systems - Part 01
    25 min
  60. Manual Steering Systems - Part 02
    24 min
  61. Power Steering and Kinematic Steering Analysis - Part 01
    25 min
  62. Power Steering and Kinematic Steering Analysis - Part 02
    25 min
  63. Wheel Alignment - Part 01
    31 min
  64. Wheel Alignment - Part 02
    20 min
  65. Introduction to Suspension System - Part 01
    27 min
  66. Introduction to Suspension System - Part 02
    21 min
  67. Shock Absorbers and Independent Suspension - Part 01
    29 min
  68. Shock Absorbers and Independent Suspension - Part 02
    24 min
  69. Dependent Suspension and Suspension Analysis - Part 01
    29 min
  70. Dependent Suspension and Suspension Analysis - Part 02
    28 min
  71. Introduction to Electric and Hybrid Powertrain - Part 01
    26 min
  72. Introduction to Electric and Hybrid Powertrain - Part 02
    28 min
  73. Tyres - Part 01
    25 min
  74. Tyres - Part 02
    21 min

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Questions and Answers

A: Governing principle: Brake discs are heat sinks first, friction pairs second. Applied here: GG25 has high specific heat and thermal conductivity, tolerates 500–600 °C without phase change, and fits cost and packaging; the mass penalty is acceptable at this axle. Trap: Engineers who know unsprung mass hurts ride often grab aluminum, missing that anodized layers fail under repeated 400+ °C stops in real traffic.

A: Governing principle: Pressure equals force divided by piston area. Applied here: 300 N × 4.5 gives 1350 N at the master; area of a 20 mm bore is 3.14×10⁻⁴ m², yielding roughly 4.3 MPa or 43 bar. Trap: Dropping the pedal ratio or doubling pressure by mixing up radius and diameter lands people at 21 or 85 bar.

A: Governing principle: Dissimilar metals plus electrolyte create a galvanic cell. Applied here: Chloride solution bridges zinc‑plated steel and aluminum, making the aluminum anodic and producing pitting and white hydroxides in stagnant zones. Trap: Engineers familiar with fretting in bearings may over‑apply it here, ignoring the visible electrochemical signature.

A: Governing principle: Mechanical power equals torque times angular speed. Applied here: 800 W / 0.55 ≈ 1450 W mechanical; at 800 rpm (≈84 rad/s) torque is about 17 N·m, close to 20 N·m. Trap: Forgetting efficiency or using rpm directly without converting to rad/s drags people to 5 or 60 N·m.