7. Design
Engineering
• Establish Open Access Resource: Ensure easy
access to detailed and relevant design data for
forming and manufacturing simulation.
• Optimize Joining Designs and Processes: Develop
more robust joining technologies, including
adhesives, with emphasis on dissimilar materials.
• Improve Aluminum Component
Manufacturability & Process Design: Design
components and subsystems for higher strength,
improved formability/ease of fabrication, and
increased corrosion resistance.
9. New Alloys,
Products &
Grades
• Tailor Alloys for High Performance in OEM-Specific
Applications: Develop affordable, ultra-high-
strength, corrosion-resistant aluminum grades.
• Harness Data Analytics & Predictive Modeling of
Alloy Properties: Modernize simulation/material
property cards for CAE for safety, durability, etc. to
cut costs and shorten development time.
• Expedite Testing and Qualification of Next
Generation Alloys: Achieve industry consensus on
fit-for-purpose material specs and testing, including
joining and bonding durability.
11. Future
Vehicles
• Reduce Overall Part and Sub-system
Costs: Develop cost-effective aluminum solutions
to meet all structural and safety requirements of
battery enclosures.
• Create Alloys Specifically for Electric Vehicle
Batteries: Balance customer design requirements
for stable dimensions/tolerances with material
properties and cost of processing.
• Tailor Designs for Battery Enclosures: Improve
alloys and processes to enhance battery
component functionality and flexibility.
13. Next
Generation
Fabrication
• Develop Advances in Formability: Develop higher-
formability aluminum grades that can substitute for
mild steels without compromising design.
• Enable Real-Time Process Data Collection at All
Manufacturing Steps: Implement real-time process
data collection for sharing across the automotive
aluminum value chain to enable effective use of
Industry 4.0, machine learning, and AI.
• Develop Innovative, Cost-Effective Next Generation
Fabrication Processes: Overcome the hurdles of
high CAPEX new technology deployments by
extensive use of digital twins and relevant scale
prototyping.
15. Recycling &
Sustainability
Develop High-Speed / High-Volume Sorting and
Recycling:
Develop the next generation of high-speed, alloy-
selective, low-cost sorting technology for shredded
scrap; ensuring state-of-the-art technologies for
closed-loop recycling are widely available.
Enable and Ensure Life Cycle Management Across
the Value Chain:
Develop comprehensive systems for tracking and
recording global scrap flow.
Recycle Bonded and Riveted Joints:
Efficiently shred and separate dissimilar metals and
alloys that are bonded, welded or riveted.