TOOLING DESIGN ENGINEER
MONDAYS & WEDNESDAYS
4:30 PM PT / 7:30 PM ET
18 NOV 2026 - 1 FEB 2027
DURATION:
9 WEEKS
MONDAYS & WEDNESDAYS
4:30 PM PT / 7:30 PM ET
Every production line depends on tooling that gets it right the first time.
Join Ashea Williams, Senior Die Cast Tooling Engineer at General Motors, to learn how to transform engineering intent into manufacturable, reliable solutions that keep automotive production moving.
THIS COURSE IS FOR YOU, IF...
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YOU ARE AN AUTOMOTIVE MANUFACTURING ENGINEER
You know the pressure of keeping production moving — every tooling issue, defect, or delay costs time and money. This automotive tooling design course helps you think beyond the fixture itself, showing you how to design tooling that supports faster cycle times, reduces risk before launch, and works seamlessly on the shop floor. Learn to solve problems before they become downtime.
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YOU ARE A CAD MECHANICAL DESIGNER
Your CAD models may look flawless on screen, but real manufacturing demands far more than clean geometry. Learn how experienced tooling engineers design fixtures that account for tolerances, material behavior, manufacturability, and assembly constraints. You'll leave with production-ready design skills that transform digital models into tooling engineers can actually build and use.
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YOU ARE A TOOLING ENGINEER OR PROJECT LEAD
You're responsible for delivering tooling that performs under production pressure, not just at design review. We’ll show you how to build complete engineering packages, control tolerances and part location, and make design decisions that stand up to OEM expectations. Strengthen your technical expertise while creating portfolio-ready deliverables that demonstrate you're ready to lead complex tooling programs.
Our students work in 1600+ companies worldwide
- Leads Die Cast Tooling Engineering at General Motors, driving manufacturing innovation and process excellence across global production programs.
- Brings 30+ years of engineering experience spanning tooling design, manufacturing, automation, industrial engineering, and sales engineering across the automotive and tooling industries.
- Developed lean manufacturing solutions as a GM Subject Matter Expert, backed by Six Sigma Black Belt Master and Red X Statistical Engineer certifications.
- Delivered award-winning engineering innovations, including GM's Chairman's Honor Award and the People Make Quality Happen – Best of the Best Award for solving complex manufacturing challenges.
- Designed and launched groundbreaking automation systems, from patented equipment concepts to large-scale plant automation projects that set new company benchmarks.
- Mentors the next generation of engineers through STEM robotics, Get WISE, Girls in Engineering & Manufacturing (GEMs), and other initiatives promoting careers in engineering and manufacturing.
- Meet your instructor
- Course structure
- Assignments & final project overview
- Overview of physical tools
- Discussion: What brought you to this class?
(OPTIONAL) Assignment A: Ink Pens vs. Pencils Self-Analysis
Explore the automotive tooling ecosystem, manufacturing workflow, and the critical role tooling plays in high-volume vehicle production from concept through manufacturing.
- Types of automotive tooling
- Role of tooling in automotive production
- Automotive manufacturing workflow
- Suggested reference books reading
- Group activity: Continue self-analysis
Learn CAD best practices for building production-ready tooling assemblies using industry-standard modeling techniques, constraints, and tolerancing.
- CAD workflows for tooling design
- Assemblies, constraints, tolerance integration
- Common modeling pitfalls in tooling
- Demo: Automotive fixture assembly
Master engineering drawings, GD&T principles, and tolerance stack-up methods to create tooling that meets automotive production requirements.
- Reading automotive blueprints
- GD&T fundamentals
- Tolerance stack-ups
- Workshop: GD&T validation exercise
Assignment 1: Tooling Input Analysis & Datuming Strategy
Analyze an automotive component drawing to define the 3-2-1 datuming strategy, locating features, and clamping layout for repeatable production. Submit a marked-up engineering study with technical justification.
Discover how tooling materials, coatings, and manufacturing processes influence durability, performance, and production costs across automotive applications.
- Steels, coatings, heat treatments
- High-volume manufacturing methods
- Case study: Material selection for stamping die
- Demo: Material and finish comparison
Design reliable locating and clamping systems that improve machining accuracy, repeatability, and production efficiency.
- Locating and clamping for repeatability
- Designing for cycle time reduction
- Workshop: Fixture design
- Peer review of workshop design
Assignment 2: 3D CAD Tooling Mechanism Design (Locating & Clamping)
Build the primary locating and clamping mechanisms for your fixture using commercial hardware and custom components. Submit a complete 3D CAD assembly.
Understand how tooling designs move from CAD to manufacturing through CAM workflows, CNC machining, and design-for-manufacturability principles.
- CAM workflows
- Multi-axis machining
- Design for manufacturability
- Workshop: Toolpath simulation
Assignment 3: 2D Tooling Assembly Drawing & Bill of Materials (BOM)
Produce a manufacturing drawing package with tolerances, assembly views, and a complete bill of materials for your tooling assembly.
Learn the fundamentals of progressive die design and the tooling systems used to manufacture automotive sheet metal components at scale.
- Progressive dies and stamping processes
- Automotive body panel production
- Case study: Panel die redesign
- Demo: Strip layout
Explore die and mold design principles while balancing cooling, ejection, durability, and manufacturability for automotive components.
- Dies and injection mold
- Cooling, ejection, and durability
- Common automotive design failures
- Demo: Mold breakdown
Learn how to maximize tooling lifespan through preventive maintenance, lifecycle planning, and data-driven performance monitoring.
- Wear in high-cycle automotive environments
- Preventive maintenance strategies
- Cost vs lifecycle optimization
- Tracking and charting
- Case study: Die refurbishment
Evaluate how tooling supports lean manufacturing by improving efficiency, reducing waste, and meeting production targets.
- Lean manufacturing and takt time
- Tooling impact on production efficiency
- Workshop: Analyze tooling within a production line
Assignment 4: Manufacturing Process Plan & PFMEA Summary
Develop a manufacturing process plan and PFMEA summary that evaluates operator workflow, tooling risks, and preventive maintenance strategies.
Examine how tooling supports automation, die casting, stamping, and other high-volume automotive manufacturing processes.
- High-volume die casting and stamping
- Assembly line fixtures and automation
- Case study: Automotive production challenge
Design tooling for automotive plastic and interior components with a focus on precision, surface quality, and production reliability.
- Injection molding
- Surface finish and precision requirements
- Demo: Automotive plastic component tooling
Final Project: Professional Automotive Tooling Design Pack
Develop a portfolio-ready tooling package for a production welding and assembly fixture used in an automotive Body-in-White (BIW) application. Throughout the course, you'll refine your assignments into a complete engineering release that includes datuming strategy, 3D CAD assembly, manufacturing drawings, BOM, and production readiness documentation.
Explore the digital technologies transforming modern tooling, from additive manufacturing and digital twins to AI-powered production systems.
- Additive tooling and conformal cooling
- Digital twins in automotive production
- Smart tooling systems
- Demo: Advanced tooling example
Apply sustainable engineering and lean manufacturing principles to improve tooling efficiency while reducing waste and lifecycle costs.
- Reducing waste
- Designing for efficiency and lifecycle
- Workshop: Sustainability audit
Understand how inspection, metrology, and GD&T validation ensure tooling quality and manufacturing consistency.
- CMM inspection and scanning
- GD&T validation workflows
- Demo: Inspection process
Analyze real automotive tooling projects to identify engineering challenges, evaluate solutions, and strengthen design decision-making.
- Real-world tooling failures and redesigns
- Lessons from automotive production
- Workshop: Redesign exercise
Consolidate your learning by reviewing key concepts, presenting your final project, and exploring career opportunities across the automotive tooling industry.
- Building an automotive tooling portfolio
- Career pathways
- Industry certifications and growth
- Instructor Q&A
- (Optional) Final project presentations
What our students say
"I really enjoy the format of the course. Lectures with real life examples and an ongoing case study. Also built in 20 minutes at the end of each class for questions is helpful."
"Overall I'm impressed with the level of detail and explanation around particular topics and subjects. There's a real depth to each module which for learning allows the information to stay in your brain."
"The group activities, they allow us to interact and exchange ideas, plus the way it is structured is challenging and mind twisting as we collaborate in different parts of the ideation."
"I enjoyed the structure of the class. I like how we learned about a topic and practiced it in the workshops. It’s helped me to apply what I learned!"