Skip to content
Open Call

How might we expand resilient, cost-competitive U.S. capacity to produce complex cast, forged, formed, and precision-machined components using advanced materials such as titanium, magnesium, nickel-based superalloys, and other critical metals across aerospace, automotive, defense, energy, and industrial applications?

Context

Complex castings, forgings, formed parts, and precision-machined components are foundational inputs across aerospace, automotive, defense, energy, transportation, and industrial systems.

U.S. production is constrained by aging equipment, long lead times, limited tooling capacity, supplier concentration, and the technical and economic challenges of processing advanced materials. These constraints are particularly acute for high-performance and difficult-to-process metals, which can require specialized equipment, tooling, process expertise, quality control, and lengthy customer qualification.

There is an opportunity to strengthen and modernize U.S. manufacturing by deploying new technologies and production models that improve the economics, flexibility, throughput, and quality of advanced metal component production while expanding the base of qualified domestic suppliers.

Criteria
  1. 01

    Credible pathway to U.S.-based production at commercially relevant scale

  2. 02

    Competitive total landed cost relative to incumbent production

  3. 03

    Ability to produce complex geometries and/or process difficult-to-manufacture materials

  4. 04

    Ability to meet applicable quality, reliability, melt-origin traceability, and certification requirements

  5. 05

    Demonstrated potential to improve lead time, yield, throughput, capital efficiency, material utilization or production flexibility

  6. 06

    Reduced dependence on constrained, geographically concentrated, or single-source supply

  7. 07

    Ability to support multiple part families, configurations, or customer requirements where applicable

  8. 08

    Scalability to customer-defined production volumes

  9. 09

    Credible pathway to customer validation and qualification

  10. 10

    Potential applicability across multiple customers, industries, or end markets

Potential areas of innovation
  • Advanced casting, forging, and forming processes
  • Advanced alloy processing
  • Flexible and incremental forming
  • Robotic and automated machining
  • Near-net-shape manufacturing
  • Additive and hybrid manufacturing
  • Additive-enabled and rapid tooling
  • Digital foundries
  • AI-enabled process control
  • Automated inspection and metrology
  • Advanced joining and finishing
  • Rapid changeover
  • Technologies that improve yield, throughput, quality, capital efficiency, or material utilization
Submit interest

Submit interest in this Open Call

Register your interest now and we will notify you when the intake opens. The intake will ask for high-level, non-confidential information only. Michigan LIFT is a non-exclusive platform. Any procurement, financing, incentives or other support is subject to each participant’s standard qualification, sourcing and approval processes.

Sectors

We use the information you provide to respond to your inquiry. Newlab holds these details and does not share them with any Michigan LIFT participant other than MEDC, except that an inquiry from a prospective industrial buyer or other organization may be forwarded to the Founding Participant best placed to respond. Please do not include confidential information. Registering interest is not an Open Call response; when the Open Call intake opens, we will notify you. See our Terms of Use & Privacy Policy.

* Required

More Open Calls

Flexible and non-rigid material assembly

How might we enable scalable, automated, and cost-competitive U.S. assembly of flexible and non-rigid materials across diverse product configurations?

Brownfield manufacturing equipment

How might we improve the reliability, quality, and capacity of existing “brownfield” manufacturing equipment without requiring costly wholesale line replacement?

Qualification of alternative manufacturing inputs

How might we reduce the time and cost required to evaluate and qualify alternative components, materials, and sources while maintaining performance, quality, and supply continuity?