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Course Outline

Introduction to WAAM and Hybrid Manufacturing

  • The role of additive manufacturing in metal production
  • Core WAAM principles and deposition techniques
  • Hybrid robot-CNC strategies and current industry trends

Fundamentals of FANUC Welding Robot Programming

  • An overview of FANUC robotic systems and ROBOGUIDE software
  • Creating paths for arc welding applications
  • Setting teaching points, tool offsets, and coordinate systems

GMAW Process and WAAM Deposition Planning

  • Optimizing Gas Metal Arc Welding (GMAW) settings for WAAM
  • Managing wire feed rates, travel speeds, and current control
  • Planning single-bead and multi-bead layer strategies

Coordination with HAAS CNC Systems

  • Managing 5-axis worktables and part setup procedures
  • Aligning references and calibrating with robotic paths
  • Developing CNC toolpaths for hybrid finishing operations

Integrating Robot and CNC Workflows

  • Strategic process planning: comparing robot-first and CNC-first approaches
  • Implementing handshaking, communication, and synchronization methods
  • Simulating and analyzing real-world process timing

Process Validation and Troubleshooting

  • Assessing the geometric accuracy and consistency of WAAM parts
  • Addressing weld defects, layer distortion, and post-processing requirements
  • Standard troubleshooting procedures in hybrid environments

Conclusion and Future Steps

  • Recap of the key components of an integrated WAAM process
  • Recommended pathways for production validation and scaling up
  • Next steps regarding testing, safety compliance, and quality assurance

Requirements

  • Familiarity with industrial automation principles
  • Prior experience with welding or robotic programming
  • Fundamental understanding of CNC machining operations

Target Audience

  • Robotic welding technicians
  • Manufacturing and automation engineers
  • Technologists specializing in hybrid CNC/robotic processes
 21 Hours

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