Start with the course pathway
Use this page to open the current unit, review the course structure, and find course-specific tools and resources.
Explore Industry 4.0, automation, digital systems, virtual integration, and aerospace CNC production through hands-on manufacturing challenges.
Use this page to open the current unit, review the course structure, and find course-specific tools and resources.
Each unit connects classroom work to engineering evidence: notes, sketches, CAD/CAM files, code, photos, testing data, revisions, and final reflections.
ADM moves from robotic arm fundamentals into automation, digital systems, virtual integration, and aerospace CNC manufacturing.
Use robotic movement, sensors, loops, conditionals, and workcell logic to control manufacturing tasks.
Use virtual systems, digital twins, kinematics, and offline programming to evaluate before building.
Connect requirements, CAD, CAM, machine code, CNC setup, inspection, and process improvement.
Need a stronger Python foundation before continuing with Workcell automation? Use this VEX-focused bridge unit to practice reading, debugging, modifying, and writing robot code.
Practice variables, coordinate math, comparisons, conditionals, loops, and functions through robotic-arm movement, part handling, routing, and palletizing.
Open Python Crash CourseAlready comfortable with Python? Use AI-assisted development to build a software simulation of a robotic workcell while classmates complete Python remediation.
Use ChatGPT, Copilot, or another approved AI tool to help generate and improve your simulator. Your grade is based on functionality, testing, iteration, documentation, and your ability to explain and modify the finished system.
Open Advanced ChallengeEach unit page includes an overview, essential questions, learning targets, lesson sequence, challenge, deliverables, certifications, resources, and vocabulary.
Explore smart manufacturing, robotic arm movement, assembly lines, material handling, palletizing, and packaging workflows.
Unit 2Integrate sensors, conveyors, pneumatics, machine vision, workcell communication, maintenance data, and process optimization into reliable automated production systems.
Unit 3Use digital twins, CAD/CAM workflows, motion studies, simulation, and virtual manufacturing tools to test before building.
Unit 4Analyze, design, program, machine, inspect, and defend a non-flight-critical aerospace component prototype.
ADM connects technical skills with professional engineering documentation.
Sketch layouts, map workflows, identify constraints, and prepare files before building.
Use movement commands, sensors, logic, and testing to control manufacturing tasks.
Measure results, document failures, compare outcomes, and revise based on data.
Maintain notebooks, code comments, photos, test logs, and final reflections.
Open the current course syllabus and the documentation tools used throughout Advanced Manufacturing.
Review ADM course goals, VEX CTE Workcell expectations, grading, materials, robotics and workcell safety, collaboration, artificial intelligence expectations, support, and the family acknowledgment.
Open Syllabus (PDF)Complete this beginning-of-course diagnostic to identify your current strengths in Python fundamentals, control logic, loops, lists, functions, debugging, and manufacturing applications.
Open Pre-TestUse this Google Doc template to document projects, fabrication logs, inspection data, code, testing, revisions, and final reflections.
Open Template