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Introduction to Metal Casting Technology

Introduction to Metal Casting Technology banner
Preview this course
Self-paced Beginner

Introduction to Metal Casting Technology

4(1581)
66 enrolled
3019 views
FREE
1771 min
Anytime
English
3019 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

Transform raw materials into high-performance products! Enroll in the Metal Casting NPTEL course to unlock the secrets of shaping metals into precise, complex, and functional components. Learn from industry experts and gain hands-on experience with cutting-edge casting techniques, materials, and technologies. Boost your skills in design, manufacturing, and quality control, and stay ahead in the rapidly evolving fields of automotive, aerospace, and industrial engineering. Join the Metal Casting NPTEL course and cast your future in a new light!

Is this course for you?

You should take this if

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

You should skip if

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

Course details

Metal casting is a manufacturing process that involves pouring molten metal into a mold to produce a desired shape. This course covers the fundamental principles and techniques of metal casting, including different casting processes such as sand casting, investment casting, die casting, and other methods. It also discusses the properties and applications of various casting metals like aluminum, steel, and iron. In addition, the course explains the principles of mold design, mold materials, and mold-making techniques. Students learn about melting and pouring practices, including furnace operations and proper pouring techniques. The course further explores solidification and cooling processes, emphasizing how cooling rates affect the final casting. It also focuses on defect prevention and correction by identifying common casting defects and methods to address them. Quality control is another key aspect, covering inspection, testing, and evaluation of castings. Finally, the course includes applications and case studies demonstrating the use of metal casting in industries such as automotive and aerospace.


Source: nptelhrd (YouTube Chanel)

Course suitable for

Key topics covered

  • Introduction to Metal Casting: Overview, history, and applications

  • Casting Processes

  • Casting Materials

  • Mold Design and Making

  • Melting and Pouring

  • Solidification and Cooling

  • Defect Prevention and Correction

  • Quality Control

  • Applications and Case Studies

Course content

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

39 lectures29 hr 31 min
  1. Environment, Health and Safety Aspects
    46 min
  2. Design Consideration and Economics
    43 min
  3. Inspection, Testing and Quality Control
    43 min
  4. Shakeout, Fettling and Finishing
    48 min
  5. Evaporative Pattern Casting and Plaster Moulding
    48 min
  6. Vacuum Sealed Moulding and Squeeze Casting
    45 min
  7. Centrifugal Casting Process
    39 min
  8. Continuous Casting Process
    41 min
  9. Investment Casting Process-II
    35 min
  10. Investment Casting Process-I
    43 min
  11. Die Casting Process-II
    43 min
  12. Die Casting Process-I
    53 min
  13. Copper, Zinc and Titanium Cast Alloys
    29 min
  14. Aluminum and Magnesium Cast Alloys
    47 min
  15. Cast Irons and Steels
    43 min
  16. Solidification
    45 min
  17. Fluidity of Molten Metal
    48 min
  18. Treatment of Molten Metal
    44 min
  19. Melting Furnaces and Practice
    49 min
  20. Sand Casting Defects-2
    39 min
  21. Sand Casting Defects-1
    47 min
  22. Design of Gating System-2
    48 min
  23. Design of Gating System-1
    39 min
  24. Design of Risering System-1
    39 min
  25. Design of Risering System-2
    46 min
  26. Design of Risering System-3
    45 min
  27. Design of Risering System-4
    50 min
  28. Design of Risering System-5
    49 min
  29. Steps Involved in Making a Sand Casting
    69 min
  30. Patterns and Allowances
    54 min
  31. Cores & Core Sands
    45 min
  32. Moulding Sand Properties Testing
    51 min
  33. Moulding Sands Properties
    51 min
  34. Moulding Sands and Design-1
    44 min
  35. Moulding Sands and Design-2
    44 min
  36. Terminology & Tools of Sand Moulding
    48 min
  37. Overview of different casting processes-3
    43 min
  38. Overview of different casting processes-2
    46 min
  39. Overview of different casting processes-1
    42 min

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Questions and Answers

A: Pick too short a time and you’ll underpredict feeding demand, leading straight to centerline shrinkage that shows up months later in warranty data. Chvorinov says solidification time scales with (V/A)^2; for a 10 mm wall in sand, (V/A) is a few millimeters and mold constants put you in the tens of seconds to low minutes range. Aluminum’s conductivity helps, but sand throttles heat flow. That lands you near a minute, not seconds and not tens of minutes.

A: Miss this and you’re risking operator injury and damaged ladles, not just scrap. Liquid metal at 700 °C flashing residual water to steam expands by orders of magnitude, ejecting molten aluminum. The safeguard is about explosion energy, not metallurgical quality, so options focused on defects miss the hazard chain.

A: Undersized risers freeze first and trap shrinkage right where fatigue loads sit, which is how you earn a 40,000 km warranty spike. Riser design works on modulus, not volume, and the margin is multiplicative. A 20% increase on 1.2 cm gives 1.44 cm. Matching or guessing big without basis both miss the control logic.

A: Choosing the wrong process burns capital and delays SOP while adding no durability value. Low volume, thick sections, and loose tolerances play directly to sand casting strengths. Die and permanent molds need higher volumes to amortize tooling, while investment casting overshoots tolerance and cost needs.