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FusionTool-AI: AI-Driven Tool Optimization in Metal Forming

In the FusionTool-AI research project, RISC Software GmbH and its partners are developing an AI-based tool that decides whether forming tools should remain in operation, be regenerated or be replaced.

C Mark Metallwarenfabrik GmbH

Data-driven decisions instead of rules of thumb

The metal technology industry is Austria’s strongest export sector. More than 1,200 predominantly medium-sized companies work with wear-intensive manufacturing processes in which tools account for around 8 to 15% of production costs. Today, skilled workers usually decide on the basis of their experience whether a tool continues to operate, is repaired or is replaced. Wrong decisions lead to increased material wear, longer downtimes and avoidable CO₂ emissions. To date, there is no standardised, scientifically validated decision-support methodology for this segment.

Making wear measurable at the micrometre level

The functionally relevant wear of hard coatings on active tool elements in multi-stage deep drawing ranges from 1 to 9 µm. Conventional inspection methods cannot reliably detect these changes under real shopfloor conditions. FusionTool-AI therefore relies on sub-micrometre measurement technology, creating an objective basis for every further assessment.

Intelligently linking heterogeneous data

Machine data, CAM/CAW geometry data, metrology measurements and operator observations are currently stored in separate systems. FusionTool-AI merges these sources into a semantically linked database. Multimodal AI methods derive physically grounded cause-and-effect relationships from this data and distinguish genuine causes of wear from spurious statistical correlations. The result is a concrete recommendation for action: continued operation, laser-based regeneration or an economically justified new purchase.

Hybrid laser processes for regeneration

In parallel, the project team is qualifying hybrid laser processes (EHLA, LBDED) from a materials science perspective for high-alloy cold work steels. This creates a well-founded alternative to purchasing new tools to replace worn ones.

Expected benefits

The project team is validating a functional AI prototype on two pilot lines in ongoing production at MARK. Once fully rolled out, the system is expected to reduce new tool procurement by 30% and repair costs by more than 40%, and to save around 23 tonnes of CO₂ equivalents per year. The methodology is designed as a transferable prototype and is therefore, in principle, available to more than 1,200 companies in the Austrian metal industry.

Project partners

Project details

  • Short title: FusionTool-AI
  • Full title: Prescriptive tool optimisation in forming technology through AI data fusion and hybrid laser processes
  • Call: FFG General Programme, 2026 call (IWI 24/26)
  • Project partners:
    • Mark Metallwarenfabrik GmbH (consortium lead)
    • FH OÖ Forschungs & Entwicklungs GmbH
    • RISC Software GmbH
  • Total budget: EUR 571,888
  • Duration: 06/2026–05/2027 (12 months)

Contact person

Name(Required)

Project lead

Dr. Roxana Holom, MSc

Data Science Project Manager & Researcher