How might we enable scalable, automated, and cost-competitive U.S. assembly of flexible and non-rigid materials across diverse product configurations?
Flexible material assembly remains heavily constrained by manual processes due to the complexity of handling, routing, joining, and inspecting non-rigid components across a wide range of configurations. The deformable nature of these materials, combined with significant product variability, has historically made these processes difficult to automate at scale.
As a result, production of products requiring complex flexible material assembly often remains concentrated in lower-cost labor markets, creating geographic dependency and limiting the economic viability of U.S.-based manufacturing. High labor content, product variability, and limited automation can also constrain production responsiveness and make it difficult to efficiently adapt to changing designs and demand.
Increasing productivity, adaptability, and flexibility of automated assembly could materially improve the economics of domestic production while enabling a more resilient and responsive U.S. supply base.
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Demonstrated ability to automate or increase productivity in operations involving flexible, deformable, or difficult-to-handle materials and components
- 02
Ability to meet OEM-defined cycle time and production throughput requirements
- 03
Ability to meet automotive quality, reliability, and traceability requirements
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Ability to accommodate product and configuration variability with limited retooling or changeover
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Competitive total landed cost relative to current production methods
- 06
Scalability to OEM-defined annual production volumes
- 07
Demonstrated potential to materially reduce labor intensity and/or improve production efficiency
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Credible pathway to economically competitive U.S. production
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Credible pathway to integration, validation, and qualification with an automotive OEM or Tier 1 supplier
- Adaptive robotics and manipulation
- Machine vision and AI-guided assembly
- Automated flexible material handling, routing, insertion, joining, and assembly
- Flexible and reconfigurable fixturing
- Automated inspection and testing
- Digital work instructions and human-machine collaboration
- Design-for-manufacturability improvements
- Novel manufacturing processes
- Technologies that improve automation, changeover flexibility, material handling, or production efficiency
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