Fabrication

Industrial Training on Fabrication & Welding Technology

Introduction

The Fabrication and Welding Technology Training Course provides essential skills and knowledge in metalworking, focusing on welding processes, material science, and fabrication techniques. This course is designed for individuals pursuing careers in industries like manufacturing, construction, and automotive, where precision and expertise in welding are crucial. Participants learn various welding methods, such as MIG, TIG, and stick welding, along with cutting, bending, and assembling metal structures. The course emphasizes safety, quality control, and adherence to industry standards, preparing students for successful careers in fabrication and welding.

Curriculum

Automobile Welding

The Curriculum for Automotive Fabrication & Welding is designed to equip students with the practical skills and technical knowledge needed to work in the automotive industry, focusing on the fabrication and welding of vehicle components. This curriculum covers fundamental welding techniques, advanced fabrication processes, and the application of these skills in automotive repair, modification, and manufacturing.

  1. Introduction to Automotive Fabrication and Welding
  2. Overview of Automotive Fabrication
  3. Role of fabrication in the automotive industry
  4. Common materials used in automotive fabrication (steel, aluminum, composites)
  5. Introduction to Welding
  6. Overview of welding processes: MIG, TIG, Stick, and Spot welding
  7. Importance of welding in automotive repair and manufacturing
  8. Safety Practices and Workshop Management
  9. Workshop Safety Protocols
  10. Proper use of personal protective equipment (PPE)
  11. Handling and storage of materials and tools
  12. Welding Safety
  13. Safe handling of welding equipment
  14. Ventilation, fire prevention, and emergency procedures
  15. Workshop Organization
  16. Efficient layout and management of fabrication and welding workspaces
  17. Inventory management and tool maintenance
  18. Welding Processes and Techniques
  19. MIG (Metal Inert Gas) Welding
  20. Principles of MIG welding and its applications in automotive fabrication
  21. Setting up and operating MIG welding equipment
  22. Welding techniques for various automotive components
  23. TIG (Tungsten Inert Gas) Welding
  24. Fundamentals of TIG welding, especially for aluminum and stainless steel
  25. Precision welding for automotive parts requiring high strength and aesthetics
  26. TIG welding for thin materials and complex shapes
  27. Stick Welding (SMAW)
  28. Basics of Stick welding for heavy-duty automotive applications
  29. Advantages and limitations of Stick welding in automotive repair
  30. Techniques for welding thicker sections and under harsh conditions
  31. Spot Welding
  32. Overview of spot welding in automotive assembly
  33. Applications in joining sheet metal and body panels
  34. Use of spot welders in repair and manufacturing
  35. Automotive Fabrication Techniques
  36. Sheet Metal Fabrication
  37. Basics of working with sheet metal: cutting, bending, and shaping
  38. Tools and techniques for fabricating automotive body panels
  39. Joining methods: riveting, bolting, and welding
  40. Tube and Pipe Fabrication
  41. Fabrication of roll cages, exhaust systems, and frames
  42. Techniques for bending, cutting, and welding tubes and pipes
  43. Stress analysis and reinforcement for safety-critical components
  44. Chassis Fabrication and Repair
  45. Fundamentals of chassis design and fabrication
  46. Techniques for repairing and reinforcing automotive chassis
  47. Alignment and measurement tools for chassis fabrication
  48. Custom Fabrication and Modifications
  49. Fabricating custom parts for vehicle modification and restoration
  50. Techniques for integrating new components into existing structures
  51. Working with aftermarket parts and custom fabrication requests
  52. Material Science for Welding and Fabrication
  53. Metallurgy Basics
  54. Properties of metals commonly used in automotive fabrication (steel, aluminum, alloys)
  55. Heat treatment processes and their effects on metal properties
  56. Material selection for strength, weight, and corrosion resistance
  57. Welding Metallurgy
  58. Understanding the effects of welding on metal structures
  59. Common welding defects (cracking, warping, porosity) and how to prevent them
  60. Techniques for post-weld treatment and stress relief
  61. Advanced Materials
  62. Working with advanced materials like high-strength steels and composites
  63. Challenges and techniques for welding advanced materials
  64. Applications of advanced materials in modern automotive design
  65. Automotive Body Repair and Fabrication
  66. Body Panel Fabrication and Repair
  67. Techniques for repairing damaged body panels
  68. Fabricating replacement panels from scratch
  69. Techniques for aligning and installing panels
  70. Frame Straightening and Repair
  71. Methods for assessing and repairing damaged vehicle frames
  72. Use of frame alignment tools and techniques
  73. Reinforcing and modifying frames for performance and safety
  74. Restoration of Classic Cars
  75. Techniques for fabricating parts for vintage and classic vehicles
  76. Challenges in working with older materials and designs
  77. Custom fabrication for restoration projects
  78. Welding Certification Preparation
  79. Welding Standards and Certifications
  80. Overview of industry standards and certifications (e.g., AWS, ASME)
  81. Preparation for welding certification tests
  82. Practice exams and assessment of welding skills
  83. Practical Welding Exams
  84. Hands-on testing of welding skills in a controlled environment
  85. Certification in specific welding processes (MIG, TIG, Stick)
  86. Continuous Skill Development
  87. Techniques for improving and refining welding skills
  88. Staying updated with the latest welding technologies and standards
  89. CAD and CNC for Fabrication
  90. Introduction to CAD (Computer-Aided Design)
  91. Basics of CAD software for designing automotive parts
  92. Creating 2D drawings and 3D models for fabrication projects
  93. Converting designs into fabrication-ready blueprints
  94. CNC (Computer Numerical Control) Machining
  95. Basics of CNC machines and their role in automotive fabrication
  96. Programming CNC machines for cutting, shaping, and drilling
  97. Integrating CNC machining with manual fabrication techniques
  98. CAM (Computer-Aided Manufacturing)
  99. Using CAM software to plan and execute fabrication processes
  100. Simulation and verification of CNC machining processes
  101. Optimization of tool paths and material usage
  102. Quality Control and Inspection
  103. Inspection Techniques
  104. Visual inspection of welds and fabricated components
  105. Use of tools like calipers, micrometers, and gauges for precision measurement
  106. Nondestructive testing (NDT) methods: ultrasonic, radiographic, and dye penetrant
  107. Quality Assurance in Fabrication
  108. Establishing quality control procedures in a fabrication workshop
  109. Documentation and reporting of quality control checks
  110. Continuous improvement practices for maintaining high standards
  111. Defect Analysis and Remediation
  112. Identifying common defects in welds and fabricated parts
  113. Techniques for repairing and preventing defects
  114. Root cause analysis and corrective actions in the fabrication process
  115. Hands-On Projects and Workshops
  116. Practical Welding Projects
  117. Completing welding projects that simulate real-world automotive repairs and modifications
  118. Projects involving different materials, thicknesses, and joint configurations
  119. Collaborative projects that require teamwork and problem-solving
  120. Fabrication Workshops
  121. Building custom automotive components from design to completion
  122. Workshops on specific fabrication techniques like tube bending, panel beating, and chassis reinforcement
  123. Real-world projects, such as restoring a vehicle or building a custom car part
  124. Capstone Project
  125. A comprehensive project that involves both welding and fabrication skills
  126. Designing, fabricating, and assembling a complex automotive component or structure
  127. Presenting the project, including design rationale, fabrication process, and quality assurance
  128. Industry Engagement and Internship
  129. Industry Visits
  130. Tours of automotive manufacturing plants and fabrication workshops
  131. Observation of advanced welding and fabrication techniques in a professional setting
  132. Networking opportunities with industry professionals
  133. Guest Lectures
  134. Sessions with experienced welders, fabricators, and automotive engineers
  135. Insights into current industry trends, challenges, and innovations
  136. Internship Opportunities
  137. Practical experience in an automotive workshop or manufacturing environment
  138. Applying learned skills in a real-world setting under professional supervision
  139. Gaining exposure to the day-to-day operations of automotive fabrication and welding
  140. Final Assessment and Certification
  141. Practical Exams
  142. Evaluation of welding and fabrication skills through hands-on testing
  143. Assessment of precision, technique, and adherence to safety protocols
  144. Theory Exams
  145. Testing knowledge of material properties, welding processes, and fabrication techniques
  146. Assessment of understanding of industry standards and best practices
  147. Certification
  148. Awarding of certification upon successful completion of the course, recognizing proficiency in automotive fabrication and welding

This curriculum is designed to provide students with a solid foundation in automotive fabrication and welding, preparing them for careers in the automotive industry, whether in manufacturing, repair, or custom vehicle modification.

Structural Fabrication

The Curriculum for Structural Fabrication and Welding is tailored to provide in-depth knowledge and practical skills required for fabricating and welding structural components. This curriculum is essential for those looking to work in industries such as construction, manufacturing, and infrastructure development, where structural integrity and precision are critical.

Introduction to Structural Fabrication and Welding

  1. Overview of Structural Fabrication
  2. Importance of structural fabrication in construction and industry
  3. Common structures: bridges, buildings, pipelines, and industrial frameworks
  4. Introduction to Welding in Structural Fabrication
  5. Role of welding in creating and maintaining structural integrity
  6. Types of welding processes used in structural fabrication (MIG, TIG, Stick)
  7. Basics of structural design and load-bearing considerations

Safety Practices in Structural Welding and Fabrication

  1. Workshop Safety Protocols
  2. Importance of personal protective equipment (PPE) in structural welding
  3. Handling and storage of heavy materials and equipment
  4. Welding Safety
  5. Safe operation of welding machines and handling of high-voltage equipment
  6. Fire prevention, ventilation, and emergency response procedures
  7. Site Safety for Structural Fabrication
  8. Working at heights: safety harnesses, scaffolding, and ladders
  9. Heavy lifting techniques and use of cranes or other lifting equipment

Welding Processes and Techniques for Structural Applications

  1. MIG Welding (Metal Inert Gas)
  2. Principles of MIG welding in structural steel fabrication
  3. Techniques for welding thick materials and large structural components
  4. Advantages and applications of MIG welding in construction
  5. TIG Welding (Tungsten Inert Gas)
  6. Precision welding techniques for critical structural joints
  7. Welding non-ferrous metals like aluminum and stainless steel in structural applications
  8. Use of TIG welding for aesthetic and high-strength structural welds
  9. Stick Welding (SMAW)
  10. Basics of Stick welding for heavy-duty structural applications
  11. Techniques for welding in various positions (vertical, overhead, etc.)
  12. Stick welding in harsh environments and remote locations
  13. Submerged Arc Welding (SAW)
  14. Overview of SAW for high-productivity structural welding
  15. Application of SAW in welding large beams, columns, and girders
  16. Advantages of SAW for welding thick sections with high deposition rates

Structural Fabrication Techniques

  1. Cutting and Shaping Structural Materials
  2. Techniques for cutting steel plates, beams, and pipes (oxy-fuel cutting, plasma cutting)
  3. Bending and shaping techniques for structural components
  4. Introduction to CNC cutting machines for precision fabrication
  5. Assembly of Structural Components
  6. Techniques for aligning and fitting structural members
  7. Use of jigs and fixtures to ensure precision during assembly
  8. Tack welding and temporary fastening methods
  9. Welding Structural Joints
  10. Types of joints used in structural fabrication: butt, lap, and corner joints
  11. Techniques for welding different joint configurations in structural components
  12. Pre-heating and post-weld treatment to prevent cracking and distortion
  13. Heavy Structural Fabrication
  14. Fabrication of large and complex structures like bridges, towers, and industrial frameworks
  15. Use of cranes and rigging equipment for assembling large components
  16. Techniques for ensuring structural integrity during and after fabrication

Material Science for Structural Welding

  1. Metallurgy Basics for Structural Applications
  2. Properties of structural steels and alloys
  3. Heat treatment and its effects on structural metals
  4. Material selection based on strength, ductility, and environmental factors
  5. Welding Metallurgy
  6. Effects of welding on the microstructure of structural metals
  7. Common welding defects (cracking, porosity, distortion) and prevention methods
  8. Understanding the heat-affected zone (HAZ) in structural welding
  9. Advanced Materials in Structural Fabrication
  10. High-strength steels and their applications in modern structures
  11. Welding techniques for advanced materials like weathering steel and duplex stainless steel
  12. Considerations for welding dissimilar metals in structural fabrication

Structural Design and Engineering Principles

  1. Basic Structural Engineering Concepts
  2. Understanding loads, stresses, and strains in structures
  3. Load-bearing principles and distribution in different types of structures
  4. Introduction to structural analysis and design software
  5. Design of Welded Structures
  6. Designing joints and welds for maximum strength and durability
  7. Standards and codes for structural welding (e.g., AWS D1.1)
  8. Importance of weld size, length, and placement in structural integrity
  9. Blueprint Reading and Interpretation
  10. Understanding and interpreting structural blueprints and welding symbols
  11. Translating design specifications into practical fabrication steps
  12. Use of CAD drawings in structural fabrication projects

Quality Control and Inspection in Structural Welding

  1. Inspection Techniques
  2. Visual inspection of welds and structural assemblies
  3. Use of non-destructive testing (NDT) methods: ultrasonic, radiographic, magnetic particle, and dye penetrant testing
  4. Dimensional inspection and tolerance checking for structural components
  5. Welding Codes and Standards
  6. Overview of industry standards for structural welding (AWS, ASME, ISO)
  7. Compliance with national and international codes for structural fabrication
  8. Documentation and record-keeping for quality assurance in welding
  9. Defect Analysis and Remediation
  10. Identification and correction of welding defects in structural fabrication
  11. Techniques for repairing defective welds and ensuring structural integrity
  12. Root cause analysis of welding failures and implementation of corrective actions

Advanced Fabrication Techniques

  1. Welding Automation in Structural Fabrication
  2. Introduction to automated welding processes (robotic welding, mechanized welding)
  3. Applications of welding automation in high-volume structural fabrication
  4. Programming and operation of welding robots and automated systems
  5. Modular Fabrication and Prefabrication
  6. Techniques for fabricating large structural modules off-site
  7. Benefits of prefabrication in terms of time, cost, and quality
  8. Challenges and considerations in transporting and assembling prefabricated modules
  9. Specialized Structural Fabrication Projects
  10. Fabrication of specialized structures such as tanks, silos, and pressure vessels
  11. Techniques for working with high-pressure and high-temperature environments
  12. Fabrication of structures designed for seismic, wind, or other environmental loads

Practical Welding Projects and Workshops

  1. Hands-On Welding Projects
  2. Fabrication and welding of structural components like beams, columns, and trusses
  3. Real-world projects involving the assembly of structural frameworks
  4. Collaborative projects that simulate construction site conditions
  5. Fabrication Workshops
  6. Workshops focused on specific fabrication techniques such as cutting, bending, and joining
  7. Use of heavy machinery and tools in structural fabrication
  8. Practical training in aligning and fitting large structural components
  9. Capstone Project
  10. Comprehensive project involving the design, fabrication, and assembly of a structural component or framework
  11. Collaboration with industry partners for real-world application and feedback
  12. Presentation of the project, including design rationale, fabrication process, and quality assurance measures

Industry Engagement and Internship

  1. Industry Visits
  2. Tours of construction sites, steel fabrication shops, and manufacturing plants
  3. Observation of large-scale structural fabrication and welding projects
  4. Networking opportunities with industry professionals
  5. Internship Opportunities
  6. Practical experience in a structural fabrication workshop or construction site
  7. Application of learned skills in real-world settings under professional supervision
  8. Exposure to the day-to-day operations of structural fabrication and welding

Final Assessment and Certification

  1. Practical Exams
  2. Evaluation of welding and fabrication skills through hands-on testing
  3. Assessment of precision, technique, and adherence to safety protocols in structural welding
  4. Theory Exams
  5. Testing knowledge of material properties, welding processes, and structural design principles
  6. Assessment of understanding of industry standards and best practices in structural fabrication
  7. Certification
  8. Awarding of certification upon successful completion of the course, recognizing proficiency in structural fabrication and welding

This curriculum is designed to provide students with the necessary skills and knowledge to excel in the field of structural fabrication and welding. It prepares them for careers in construction, manufacturing, and other industries where the fabrication and welding of structural components are essential.